Instruction
stringlengths
362
7.83k
output_code
stringlengths
1
945
Predict the next line for this snippet: <|code_start|>from __future__ import unicode_literals class Users: def __init__(self, client): self.client = client self.keys = UsersKeys(self.client) self.emails = UsersEmails(self.client) self.followers = UsersFollowers(self.client) def get(self, user=None): url = 'user' if (user is not None and user != self.client._username): url = 'users/%s' % user return self.client.get(url, msg_type=UserResponse) def update(self, name=None, email=None, blog=None, company=None, location=None, hireable=False, bio=None): <|code_end|> with the help of current file imports: from userskeys import UsersKeys from usersemails import UsersEmails from usersfollowers import UsersFollowers from ..messages import User from ..requests import UserResponse and context from other files: # Path: flask_github/client/messages.py # class User(msgs.Message): # name = msgs.StringField(1) # email = msgs.StringField(2) # id = msgs.IntegerField(3, default=0) # login = msgs.StringField(4) # url = msgs.StringField(5) # blog = msgs.StringField(6) # company = msgs.StringField(7) # location = msgs.StringField(8) # hireable = msgs.BooleanField(9, default=False) # bio = msgs.StringField(10) # avatar_url = msgs.StringField(11) # gravatar_id = msgs.StringField(12) # _links = msgs.MessageField('Link', 13, repeated=True) # date = msgs.StringField(14) # created_at = msgs.StringField(15) # type = msgs.StringField(16) # following = msgs.IntegerField(17, default=0) # followers = msgs.IntegerField(18, default=0) # public_repos = msgs.IntegerField(19, default=0) # public_gists = msgs.IntegerField(20, default=0) # total_private_repos = msgs.IntegerField(21, default=0) # owned_private_repos = msgs.IntegerField(22, default=0) # private_gists = msgs.IntegerField(23, default=0) # disk_usage = msgs.IntegerField(24, default=0) # collaborators = msgs.IntegerField(25, default=0) # html_url = msgs.StringField(26) # repos_url = msgs.StringField(27) # events_url = msgs.StringField(28) # members_url = msgs.StringField(29) # public_members_url = msgs.StringField(30) # # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) , which may contain function names, class names, or code. Output only the next line.
msg = User(
Here is a snippet: <|code_start|>from __future__ import unicode_literals class Users: def __init__(self, client): self.client = client self.keys = UsersKeys(self.client) self.emails = UsersEmails(self.client) self.followers = UsersFollowers(self.client) def get(self, user=None): url = 'user' if (user is not None and user != self.client._username): url = 'users/%s' % user <|code_end|> . Write the next line using the current file imports: from userskeys import UsersKeys from usersemails import UsersEmails from usersfollowers import UsersFollowers from ..messages import User from ..requests import UserResponse and context from other files: # Path: flask_github/client/messages.py # class User(msgs.Message): # name = msgs.StringField(1) # email = msgs.StringField(2) # id = msgs.IntegerField(3, default=0) # login = msgs.StringField(4) # url = msgs.StringField(5) # blog = msgs.StringField(6) # company = msgs.StringField(7) # location = msgs.StringField(8) # hireable = msgs.BooleanField(9, default=False) # bio = msgs.StringField(10) # avatar_url = msgs.StringField(11) # gravatar_id = msgs.StringField(12) # _links = msgs.MessageField('Link', 13, repeated=True) # date = msgs.StringField(14) # created_at = msgs.StringField(15) # type = msgs.StringField(16) # following = msgs.IntegerField(17, default=0) # followers = msgs.IntegerField(18, default=0) # public_repos = msgs.IntegerField(19, default=0) # public_gists = msgs.IntegerField(20, default=0) # total_private_repos = msgs.IntegerField(21, default=0) # owned_private_repos = msgs.IntegerField(22, default=0) # private_gists = msgs.IntegerField(23, default=0) # disk_usage = msgs.IntegerField(24, default=0) # collaborators = msgs.IntegerField(25, default=0) # html_url = msgs.StringField(26) # repos_url = msgs.StringField(27) # events_url = msgs.StringField(28) # members_url = msgs.StringField(29) # public_members_url = msgs.StringField(30) # # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) , which may include functions, classes, or code. Output only the next line.
return self.client.get(url, msg_type=UserResponse)
Given the code snippet: <|code_start|>from __future__ import unicode_literals class ReposKeys: def __init__(self, client): self.client = client def list(self, repo, user=None): return self.client.get( 'repos/%s/%s/keys' % ( self.client.user(user), repo), msg_type=KeyListResponse) def get(self, repo, id, user=None): return self.client.get( 'repos/%s/%s/keys/%s' % ( self.client.user(user), repo, id), msg_type=KeyResponse) def create(self, repo, title, key, user=None): <|code_end|> , generate the next line using the imports in this file: from ..messages import Key from ..requests import KeyResponse from ..requests import KeyListResponse and context (functions, classes, or occasionally code) from other files: # Path: flask_github/client/messages.py # class Key(msgs.Message): # id = msgs.IntegerField(1, default=0) # key = msgs.StringField(2) # title = msgs.StringField(3) # # Path: flask_github/client/requests.py # class KeyResponse(msgs.Message): # response = msgs.MessageField('Key', 1) # # Path: flask_github/client/requests.py # class KeyListResponse(msgs.Message): # response = msgs.MessageField('Key', 1, repeated=True) . Output only the next line.
msg = Key(
Given the code snippet: <|code_start|>from __future__ import unicode_literals class ReposKeys: def __init__(self, client): self.client = client def list(self, repo, user=None): return self.client.get( 'repos/%s/%s/keys' % ( self.client.user(user), repo), msg_type=KeyListResponse) def get(self, repo, id, user=None): return self.client.get( 'repos/%s/%s/keys/%s' % ( <|code_end|> , generate the next line using the imports in this file: from ..messages import Key from ..requests import KeyResponse from ..requests import KeyListResponse and context (functions, classes, or occasionally code) from other files: # Path: flask_github/client/messages.py # class Key(msgs.Message): # id = msgs.IntegerField(1, default=0) # key = msgs.StringField(2) # title = msgs.StringField(3) # # Path: flask_github/client/requests.py # class KeyResponse(msgs.Message): # response = msgs.MessageField('Key', 1) # # Path: flask_github/client/requests.py # class KeyListResponse(msgs.Message): # response = msgs.MessageField('Key', 1, repeated=True) . Output only the next line.
self.client.user(user), repo, id), msg_type=KeyResponse)
Next line prediction: <|code_start|>from __future__ import unicode_literals class ReposKeys: def __init__(self, client): self.client = client def list(self, repo, user=None): return self.client.get( 'repos/%s/%s/keys' % ( <|code_end|> . Use current file imports: (from ..messages import Key from ..requests import KeyResponse from ..requests import KeyListResponse ) and context including class names, function names, or small code snippets from other files: # Path: flask_github/client/messages.py # class Key(msgs.Message): # id = msgs.IntegerField(1, default=0) # key = msgs.StringField(2) # title = msgs.StringField(3) # # Path: flask_github/client/requests.py # class KeyResponse(msgs.Message): # response = msgs.MessageField('Key', 1) # # Path: flask_github/client/requests.py # class KeyListResponse(msgs.Message): # response = msgs.MessageField('Key', 1, repeated=True) . Output only the next line.
self.client.user(user), repo), msg_type=KeyListResponse)
Given snippet: <|code_start|>from __future__ import unicode_literals class OrgMembers: def __init__(self, client): self.client = client def list(self, org, public_only=False): url = 'orgs/%s/members' % org if public_only: url = 'orgs/%s/public_members' % org return self.client.get(url, msg_type=UserListResponse) def get(self, org, user=None, public_only=False): url = 'orgs/%s/members/%s' % (org, self.client.user(user)) if public_only: url = 'orgs/%s/public_members/%s' % ( org, self.client.user(user)) <|code_end|> , continue by predicting the next line. Consider current file imports: from ..requests import UserResponse from ..requests import UserListResponse and context: # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) which might include code, classes, or functions. Output only the next line.
return self.client.get(url, msg_type=UserResponse)
Here is a snippet: <|code_start|>from __future__ import unicode_literals class OrgMembers: def __init__(self, client): self.client = client def list(self, org, public_only=False): url = 'orgs/%s/members' % org if public_only: url = 'orgs/%s/public_members' % org <|code_end|> . Write the next line using the current file imports: from ..requests import UserResponse from ..requests import UserListResponse and context from other files: # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) , which may include functions, classes, or code. Output only the next line.
return self.client.get(url, msg_type=UserListResponse)
Given the following code snippet before the placeholder: <|code_start|>from __future__ import unicode_literals class OrgTeams: def __init__(self, client): self.client = client def list(self, org): return self.client.get('orgs/%s/teams' % org, msg_type=TeamListResponse) def get(self, id): return self.client.get('teams/%s' % id, msg_type=TeamResponse) def create(self, org, name, repo_names=None, permission=None): <|code_end|> , predict the next line using imports from the current file: from ..messages import Team from ..requests import TeamResponse from ..requests import TeamListResponse from ..requests import RepoResponse from ..requests import RepoListResponse from ..requests import UserResponse from ..requests import UserListResponse and context including class names, function names, and sometimes code from other files: # Path: flask_github/client/messages.py # class Team(msgs.Message): # name = msgs.StringField(1) # repo_names = msgs.StringField(2, repeated=True) # permission = msgs.StringField(3) # # Path: flask_github/client/requests.py # class TeamResponse(msgs.Message): # response = msgs.MessageField('Team', 1) # # Path: flask_github/client/requests.py # class TeamListResponse(msgs.Message): # response = msgs.MessageField('Team', 1, repeated=True) # # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) # # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) . Output only the next line.
msg = Team(
Given snippet: <|code_start|>from __future__ import unicode_literals class OrgTeams: def __init__(self, client): self.client = client def list(self, org): return self.client.get('orgs/%s/teams' % org, msg_type=TeamListResponse) def get(self, id): <|code_end|> , continue by predicting the next line. Consider current file imports: from ..messages import Team from ..requests import TeamResponse from ..requests import TeamListResponse from ..requests import RepoResponse from ..requests import RepoListResponse from ..requests import UserResponse from ..requests import UserListResponse and context: # Path: flask_github/client/messages.py # class Team(msgs.Message): # name = msgs.StringField(1) # repo_names = msgs.StringField(2, repeated=True) # permission = msgs.StringField(3) # # Path: flask_github/client/requests.py # class TeamResponse(msgs.Message): # response = msgs.MessageField('Team', 1) # # Path: flask_github/client/requests.py # class TeamListResponse(msgs.Message): # response = msgs.MessageField('Team', 1, repeated=True) # # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) # # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) which might include code, classes, or functions. Output only the next line.
return self.client.get('teams/%s' % id, msg_type=TeamResponse)
Given the following code snippet before the placeholder: <|code_start|>from __future__ import unicode_literals class OrgTeams: def __init__(self, client): self.client = client def list(self, org): <|code_end|> , predict the next line using imports from the current file: from ..messages import Team from ..requests import TeamResponse from ..requests import TeamListResponse from ..requests import RepoResponse from ..requests import RepoListResponse from ..requests import UserResponse from ..requests import UserListResponse and context including class names, function names, and sometimes code from other files: # Path: flask_github/client/messages.py # class Team(msgs.Message): # name = msgs.StringField(1) # repo_names = msgs.StringField(2, repeated=True) # permission = msgs.StringField(3) # # Path: flask_github/client/requests.py # class TeamResponse(msgs.Message): # response = msgs.MessageField('Team', 1) # # Path: flask_github/client/requests.py # class TeamListResponse(msgs.Message): # response = msgs.MessageField('Team', 1, repeated=True) # # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) # # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) . Output only the next line.
return self.client.get('orgs/%s/teams' % org, msg_type=TeamListResponse)
Using the snippet: <|code_start|> 'teams/%s' % id) # members.. def list_members(self, id): return self.client.get( 'teams/%s/members' % id, msg_type=UserListResponse) def get_member(self, id, user=None): return self.client.get( 'teams/%s/members/%s' % ( id, self.client.user(user)), msg_type=UserResponse) def add_member(self, id, user): return self.client.put( 'teams/%s/members/%s' % (id, self.client.user(user))) def delete_member(self, id, user): return self.client.delete( 'teams/%s/members/%s' % (id, self.client.user(user))) # repos.. def list_repos(self, id): return self.client.get( 'teams/%s/repos' % id, msg_type=RepoListResponse) def get_repo(self, id, user, repo): return self.client.get( 'teams/%s/repos/%s/%s' % ( <|code_end|> , determine the next line of code. You have imports: from ..messages import Team from ..requests import TeamResponse from ..requests import TeamListResponse from ..requests import RepoResponse from ..requests import RepoListResponse from ..requests import UserResponse from ..requests import UserListResponse and context (class names, function names, or code) available: # Path: flask_github/client/messages.py # class Team(msgs.Message): # name = msgs.StringField(1) # repo_names = msgs.StringField(2, repeated=True) # permission = msgs.StringField(3) # # Path: flask_github/client/requests.py # class TeamResponse(msgs.Message): # response = msgs.MessageField('Team', 1) # # Path: flask_github/client/requests.py # class TeamListResponse(msgs.Message): # response = msgs.MessageField('Team', 1, repeated=True) # # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) # # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) . Output only the next line.
id, self.client.user(user), repo), msg_type=RepoResponse)
Predict the next line for this snippet: <|code_start|> def _edit(self, id, msg): return self.client.patch('teams/%s' % id, data=msg) def delete(self, id): return self.client.delete( 'teams/%s' % id) # members.. def list_members(self, id): return self.client.get( 'teams/%s/members' % id, msg_type=UserListResponse) def get_member(self, id, user=None): return self.client.get( 'teams/%s/members/%s' % ( id, self.client.user(user)), msg_type=UserResponse) def add_member(self, id, user): return self.client.put( 'teams/%s/members/%s' % (id, self.client.user(user))) def delete_member(self, id, user): return self.client.delete( 'teams/%s/members/%s' % (id, self.client.user(user))) # repos.. def list_repos(self, id): return self.client.get( <|code_end|> with the help of current file imports: from ..messages import Team from ..requests import TeamResponse from ..requests import TeamListResponse from ..requests import RepoResponse from ..requests import RepoListResponse from ..requests import UserResponse from ..requests import UserListResponse and context from other files: # Path: flask_github/client/messages.py # class Team(msgs.Message): # name = msgs.StringField(1) # repo_names = msgs.StringField(2, repeated=True) # permission = msgs.StringField(3) # # Path: flask_github/client/requests.py # class TeamResponse(msgs.Message): # response = msgs.MessageField('Team', 1) # # Path: flask_github/client/requests.py # class TeamListResponse(msgs.Message): # response = msgs.MessageField('Team', 1, repeated=True) # # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) # # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) , which may contain function names, class names, or code. Output only the next line.
'teams/%s/repos' % id, msg_type=RepoListResponse)
Predict the next line for this snippet: <|code_start|> name=name, repo_names=repo_names, permission=permission) return self._create(org=org, msg=msg) def _create(self, org, msg): return self.client.post('orgs/%s/teams' % org, data=msg) def edit(self, id, name, permission=None): msg = Team( name=name, permission=permission) return self._edit(id=id, msg=msg) def _edit(self, id, msg): return self.client.patch('teams/%s' % id, data=msg) def delete(self, id): return self.client.delete( 'teams/%s' % id) # members.. def list_members(self, id): return self.client.get( 'teams/%s/members' % id, msg_type=UserListResponse) def get_member(self, id, user=None): return self.client.get( 'teams/%s/members/%s' % ( <|code_end|> with the help of current file imports: from ..messages import Team from ..requests import TeamResponse from ..requests import TeamListResponse from ..requests import RepoResponse from ..requests import RepoListResponse from ..requests import UserResponse from ..requests import UserListResponse and context from other files: # Path: flask_github/client/messages.py # class Team(msgs.Message): # name = msgs.StringField(1) # repo_names = msgs.StringField(2, repeated=True) # permission = msgs.StringField(3) # # Path: flask_github/client/requests.py # class TeamResponse(msgs.Message): # response = msgs.MessageField('Team', 1) # # Path: flask_github/client/requests.py # class TeamListResponse(msgs.Message): # response = msgs.MessageField('Team', 1, repeated=True) # # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) # # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) , which may contain function names, class names, or code. Output only the next line.
id, self.client.user(user)), msg_type=UserResponse)
Based on the snippet: <|code_start|> def get(self, id): return self.client.get('teams/%s' % id, msg_type=TeamResponse) def create(self, org, name, repo_names=None, permission=None): msg = Team( name=name, repo_names=repo_names, permission=permission) return self._create(org=org, msg=msg) def _create(self, org, msg): return self.client.post('orgs/%s/teams' % org, data=msg) def edit(self, id, name, permission=None): msg = Team( name=name, permission=permission) return self._edit(id=id, msg=msg) def _edit(self, id, msg): return self.client.patch('teams/%s' % id, data=msg) def delete(self, id): return self.client.delete( 'teams/%s' % id) # members.. def list_members(self, id): return self.client.get( <|code_end|> , predict the immediate next line with the help of imports: from ..messages import Team from ..requests import TeamResponse from ..requests import TeamListResponse from ..requests import RepoResponse from ..requests import RepoListResponse from ..requests import UserResponse from ..requests import UserListResponse and context (classes, functions, sometimes code) from other files: # Path: flask_github/client/messages.py # class Team(msgs.Message): # name = msgs.StringField(1) # repo_names = msgs.StringField(2, repeated=True) # permission = msgs.StringField(3) # # Path: flask_github/client/requests.py # class TeamResponse(msgs.Message): # response = msgs.MessageField('Team', 1) # # Path: flask_github/client/requests.py # class TeamListResponse(msgs.Message): # response = msgs.MessageField('Team', 1, repeated=True) # # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) # # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) . Output only the next line.
'teams/%s/members' % id, msg_type=UserListResponse)
Next line prediction: <|code_start|>from __future__ import unicode_literals class UsersKeys: def __init__(self, client): self.client = client def list(self): return self.client.get( 'user/keys', msg_type=KeyListResponse) def get(self, id): return self.client.get( 'user/keys/%s' % id, msg_type=KeyResponse) def create(self, title, key): <|code_end|> . Use current file imports: (from ..messages import Key from ..requests import KeyResponse from ..requests import KeyListResponse ) and context including class names, function names, or small code snippets from other files: # Path: flask_github/client/messages.py # class Key(msgs.Message): # id = msgs.IntegerField(1, default=0) # key = msgs.StringField(2) # title = msgs.StringField(3) # # Path: flask_github/client/requests.py # class KeyResponse(msgs.Message): # response = msgs.MessageField('Key', 1) # # Path: flask_github/client/requests.py # class KeyListResponse(msgs.Message): # response = msgs.MessageField('Key', 1, repeated=True) . Output only the next line.
msg = Key(
Continue the code snippet: <|code_start|>from __future__ import unicode_literals class UsersKeys: def __init__(self, client): self.client = client def list(self): return self.client.get( 'user/keys', msg_type=KeyListResponse) def get(self, id): return self.client.get( <|code_end|> . Use current file imports: from ..messages import Key from ..requests import KeyResponse from ..requests import KeyListResponse and context (classes, functions, or code) from other files: # Path: flask_github/client/messages.py # class Key(msgs.Message): # id = msgs.IntegerField(1, default=0) # key = msgs.StringField(2) # title = msgs.StringField(3) # # Path: flask_github/client/requests.py # class KeyResponse(msgs.Message): # response = msgs.MessageField('Key', 1) # # Path: flask_github/client/requests.py # class KeyListResponse(msgs.Message): # response = msgs.MessageField('Key', 1, repeated=True) . Output only the next line.
'user/keys/%s' % id, msg_type=KeyResponse)
Next line prediction: <|code_start|>from __future__ import unicode_literals class UsersKeys: def __init__(self, client): self.client = client def list(self): return self.client.get( <|code_end|> . Use current file imports: (from ..messages import Key from ..requests import KeyResponse from ..requests import KeyListResponse ) and context including class names, function names, or small code snippets from other files: # Path: flask_github/client/messages.py # class Key(msgs.Message): # id = msgs.IntegerField(1, default=0) # key = msgs.StringField(2) # title = msgs.StringField(3) # # Path: flask_github/client/requests.py # class KeyResponse(msgs.Message): # response = msgs.MessageField('Key', 1) # # Path: flask_github/client/requests.py # class KeyListResponse(msgs.Message): # response = msgs.MessageField('Key', 1, repeated=True) . Output only the next line.
'user/keys', msg_type=KeyListResponse)
Given snippet: <|code_start|>from __future__ import unicode_literals class GitDataTrees: def __init__(self, client): self.client = client def get(self, repo, sha, recursive=False, user=None): query = None if recursive: query = {'recursive': '1'} return self.client.get('repos/%s/%s/git/trees/%s' % ( self.client.user(user), repo, sha), query=query, msg_type=TreeListResponse) def create(self, repo, tree, base_tree=None, user=None): <|code_end|> , continue by predicting the next line. Consider current file imports: from ..messages import Tree from ..requests import TreeResponse from ..requests import TreeListResponse and context: # Path: flask_github/client/messages.py # class Tree(msgs.Message): # url = msgs.StringField(1) # sha = msgs.StringField(2) # message = msgs.StringField(3) # tree = msgs.MessageField('Tree', 4, repeated=True) # # fields that live on the tree api responses.. # path = msgs.StringField(5) # mode = msgs.StringField(6) # type = msgs.StringField(7) # size = msgs.IntegerField(8, default=0) # content = msgs.StringField(9) # # String of the SHA1 of the tree you want to update with new data # base_tree = msgs.StringField(10) # # Path: flask_github/client/requests.py # class TreeResponse(msgs.Message): # response = msgs.MessageField('Tree', 1) # # Path: flask_github/client/requests.py # class TreeListResponse(msgs.Message): # response = msgs.MessageField('Tree', 1, repeated=True) which might include code, classes, or functions. Output only the next line.
msg = Tree(
Given the code snippet: <|code_start|>from __future__ import unicode_literals class GitDataTrees: def __init__(self, client): self.client = client def get(self, repo, sha, recursive=False, user=None): query = None if recursive: query = {'recursive': '1'} return self.client.get('repos/%s/%s/git/trees/%s' % ( self.client.user(user), repo, sha), query=query, msg_type=TreeListResponse) def create(self, repo, tree, base_tree=None, user=None): msg = Tree( base_tree=base_tree, tree=tree) return self._create(repo=repo, msg=msg, user=user) def _create(self, repo, msg, user=None): return self.client.post( 'repos/%s/%s/git/trees' % ( <|code_end|> , generate the next line using the imports in this file: from ..messages import Tree from ..requests import TreeResponse from ..requests import TreeListResponse and context (functions, classes, or occasionally code) from other files: # Path: flask_github/client/messages.py # class Tree(msgs.Message): # url = msgs.StringField(1) # sha = msgs.StringField(2) # message = msgs.StringField(3) # tree = msgs.MessageField('Tree', 4, repeated=True) # # fields that live on the tree api responses.. # path = msgs.StringField(5) # mode = msgs.StringField(6) # type = msgs.StringField(7) # size = msgs.IntegerField(8, default=0) # content = msgs.StringField(9) # # String of the SHA1 of the tree you want to update with new data # base_tree = msgs.StringField(10) # # Path: flask_github/client/requests.py # class TreeResponse(msgs.Message): # response = msgs.MessageField('Tree', 1) # # Path: flask_github/client/requests.py # class TreeListResponse(msgs.Message): # response = msgs.MessageField('Tree', 1, repeated=True) . Output only the next line.
self.client.user(user), repo), data=msg, msg_type=TreeResponse)
Next line prediction: <|code_start|>from __future__ import unicode_literals class GitDataTrees: def __init__(self, client): self.client = client def get(self, repo, sha, recursive=False, user=None): query = None if recursive: query = {'recursive': '1'} return self.client.get('repos/%s/%s/git/trees/%s' % ( <|code_end|> . Use current file imports: (from ..messages import Tree from ..requests import TreeResponse from ..requests import TreeListResponse ) and context including class names, function names, or small code snippets from other files: # Path: flask_github/client/messages.py # class Tree(msgs.Message): # url = msgs.StringField(1) # sha = msgs.StringField(2) # message = msgs.StringField(3) # tree = msgs.MessageField('Tree', 4, repeated=True) # # fields that live on the tree api responses.. # path = msgs.StringField(5) # mode = msgs.StringField(6) # type = msgs.StringField(7) # size = msgs.IntegerField(8, default=0) # content = msgs.StringField(9) # # String of the SHA1 of the tree you want to update with new data # base_tree = msgs.StringField(10) # # Path: flask_github/client/requests.py # class TreeResponse(msgs.Message): # response = msgs.MessageField('Tree', 1) # # Path: flask_github/client/requests.py # class TreeListResponse(msgs.Message): # response = msgs.MessageField('Tree', 1, repeated=True) . Output only the next line.
self.client.user(user), repo, sha), query=query, msg_type=TreeListResponse)
Here is a snippet: <|code_start|>from __future__ import unicode_literals class Orgs: def __init__(self, client): self.client = client self.teams = OrgTeams(self.client) self.members = OrgMembers(self.client) def list(self, user=None): url = 'user/orgs' if user and user != self.client._username: url = 'users/%s/orgs' % self.client.user(user) return self.client.get(url, msg_type=OrgListResponse) def get(self, org): return self.client.get('orgs/%s' % org, msg_type=UserResponse) def edit(self, org, billing_email=None, company=None, email=None, location=None, name=None): <|code_end|> . Write the next line using the current file imports: from orgteams import OrgTeams from orgmembers import OrgMembers from ..messages import Org from ..requests import UserResponse from ..requests import OrgListResponse and context from other files: # Path: flask_github/client/messages.py # class Org(msgs.Message): # id = msgs.IntegerField(1, default=0) # login = msgs.StringField(2) # company = msgs.StringField(3) # billing_email = msgs.StringField(4) # email = msgs.StringField(5) # location = msgs.StringField(6) # name = msgs.StringField(7) # members = msgs.MessageField('User', 8, repeated=True) # url = msgs.StringField(9) # repos_url = msgs.StringField(10) # events_url = msgs.StringField(11) # avatar_url = msgs.StringField(12) # members_url = msgs.StringField(13) # public_members_url = msgs.StringField(14) # # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) # # Path: flask_github/client/requests.py # class OrgListResponse(msgs.Message): # response = msgs.MessageField('Org', 1, repeated=True) , which may include functions, classes, or code. Output only the next line.
msg = Org(
Given the code snippet: <|code_start|>from __future__ import unicode_literals class Orgs: def __init__(self, client): self.client = client self.teams = OrgTeams(self.client) self.members = OrgMembers(self.client) def list(self, user=None): url = 'user/orgs' if user and user != self.client._username: url = 'users/%s/orgs' % self.client.user(user) return self.client.get(url, msg_type=OrgListResponse) def get(self, org): <|code_end|> , generate the next line using the imports in this file: from orgteams import OrgTeams from orgmembers import OrgMembers from ..messages import Org from ..requests import UserResponse from ..requests import OrgListResponse and context (functions, classes, or occasionally code) from other files: # Path: flask_github/client/messages.py # class Org(msgs.Message): # id = msgs.IntegerField(1, default=0) # login = msgs.StringField(2) # company = msgs.StringField(3) # billing_email = msgs.StringField(4) # email = msgs.StringField(5) # location = msgs.StringField(6) # name = msgs.StringField(7) # members = msgs.MessageField('User', 8, repeated=True) # url = msgs.StringField(9) # repos_url = msgs.StringField(10) # events_url = msgs.StringField(11) # avatar_url = msgs.StringField(12) # members_url = msgs.StringField(13) # public_members_url = msgs.StringField(14) # # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) # # Path: flask_github/client/requests.py # class OrgListResponse(msgs.Message): # response = msgs.MessageField('Org', 1, repeated=True) . Output only the next line.
return self.client.get('orgs/%s' % org, msg_type=UserResponse)
Continue the code snippet: <|code_start|>from __future__ import unicode_literals class Orgs: def __init__(self, client): self.client = client self.teams = OrgTeams(self.client) self.members = OrgMembers(self.client) def list(self, user=None): url = 'user/orgs' if user and user != self.client._username: url = 'users/%s/orgs' % self.client.user(user) <|code_end|> . Use current file imports: from orgteams import OrgTeams from orgmembers import OrgMembers from ..messages import Org from ..requests import UserResponse from ..requests import OrgListResponse and context (classes, functions, or code) from other files: # Path: flask_github/client/messages.py # class Org(msgs.Message): # id = msgs.IntegerField(1, default=0) # login = msgs.StringField(2) # company = msgs.StringField(3) # billing_email = msgs.StringField(4) # email = msgs.StringField(5) # location = msgs.StringField(6) # name = msgs.StringField(7) # members = msgs.MessageField('User', 8, repeated=True) # url = msgs.StringField(9) # repos_url = msgs.StringField(10) # events_url = msgs.StringField(11) # avatar_url = msgs.StringField(12) # members_url = msgs.StringField(13) # public_members_url = msgs.StringField(14) # # Path: flask_github/client/requests.py # class UserResponse(msgs.Message): # response = msgs.MessageField('User', 1) # # Path: flask_github/client/requests.py # class OrgListResponse(msgs.Message): # response = msgs.MessageField('Org', 1, repeated=True) . Output only the next line.
return self.client.get(url, msg_type=OrgListResponse)
Given the code snippet: <|code_start|> 'labels': labels, 'sort': sort, 'direction': direction, 'since': since } return self.client.get('issues', query=query, msg_type=IssueListResponse) def list_repo_issues(self, repo, milestone=None, assignee=None, mentioned=None, state='open', labels=None, sort='created', direction='desc', since=None, user=None): query = { 'state': state, 'assignee': assignee, 'mentioned': mentioned, 'labels': labels, 'sort': sort, 'direction': direction, 'since': since, 'milestone': milestone } return self.client.get('repos/%s/%s/issues' % ( self.client.user(user), repo), query=query, msg_type=IssueListResponse) def get(self, repo, number, user=None): return self.client.get( 'repos/%s/%s/issues/%s' % ( self.client.user(user), repo, number), msg_type=IssueResponse) def create(self, repo, title, body=None, assignee=None, milestone=None, labels=None, user=None): <|code_end|> , generate the next line using the imports in this file: from issuesevents import IssuesEvents from issueslabels import IssuesLabels from issuescomments import IssuesComments from issuesmilestones import IssuesMilestones from ..messages import Issue from ..requests import IssueResponse from ..requests import IssueListResponse and context (functions, classes, or occasionally code) from other files: # Path: flask_github/client/messages.py # class Issue(msgs.Message): # title = msgs.StringField(1) # body = msgs.StringField(2) # state = msgs.StringField(3) # labels = msgs.StringField(4, repeated=True) # assignee = msgs.StringField(5) # milestone = msgs.StringField(6) # # Path: flask_github/client/requests.py # class IssueResponse(msgs.Message): # response = msgs.MessageField('Issue', 1) # # Path: flask_github/client/requests.py # class IssueListResponse(msgs.Message): # response = msgs.MessageField('Issue', 1, repeated=True) . Output only the next line.
msg = Issue(
Here is a snippet: <|code_start|> sort='created', direction='desc', since=None): query = { 'filter': filter, 'state': state, 'labels': labels, 'sort': sort, 'direction': direction, 'since': since } return self.client.get('issues', query=query, msg_type=IssueListResponse) def list_repo_issues(self, repo, milestone=None, assignee=None, mentioned=None, state='open', labels=None, sort='created', direction='desc', since=None, user=None): query = { 'state': state, 'assignee': assignee, 'mentioned': mentioned, 'labels': labels, 'sort': sort, 'direction': direction, 'since': since, 'milestone': milestone } return self.client.get('repos/%s/%s/issues' % ( self.client.user(user), repo), query=query, msg_type=IssueListResponse) def get(self, repo, number, user=None): return self.client.get( 'repos/%s/%s/issues/%s' % ( <|code_end|> . Write the next line using the current file imports: from issuesevents import IssuesEvents from issueslabels import IssuesLabels from issuescomments import IssuesComments from issuesmilestones import IssuesMilestones from ..messages import Issue from ..requests import IssueResponse from ..requests import IssueListResponse and context from other files: # Path: flask_github/client/messages.py # class Issue(msgs.Message): # title = msgs.StringField(1) # body = msgs.StringField(2) # state = msgs.StringField(3) # labels = msgs.StringField(4, repeated=True) # assignee = msgs.StringField(5) # milestone = msgs.StringField(6) # # Path: flask_github/client/requests.py # class IssueResponse(msgs.Message): # response = msgs.MessageField('Issue', 1) # # Path: flask_github/client/requests.py # class IssueListResponse(msgs.Message): # response = msgs.MessageField('Issue', 1, repeated=True) , which may include functions, classes, or code. Output only the next line.
self.client.user(user), repo, number), msg_type=IssueResponse)
Predict the next line after this snippet: <|code_start|>from __future__ import unicode_literals class Issues: def __init__(self, client): self.client = client self.comments = IssuesComments(self.client) self.events = IssuesEvents(self.client) self.labels = IssuesLabels(self.client) self.milestones = IssuesMilestones(self.client) def list_issues(self, filter='assigned', state='open', labels=None, sort='created', direction='desc', since=None): query = { 'filter': filter, 'state': state, 'labels': labels, 'sort': sort, 'direction': direction, 'since': since } <|code_end|> using the current file's imports: from issuesevents import IssuesEvents from issueslabels import IssuesLabels from issuescomments import IssuesComments from issuesmilestones import IssuesMilestones from ..messages import Issue from ..requests import IssueResponse from ..requests import IssueListResponse and any relevant context from other files: # Path: flask_github/client/messages.py # class Issue(msgs.Message): # title = msgs.StringField(1) # body = msgs.StringField(2) # state = msgs.StringField(3) # labels = msgs.StringField(4, repeated=True) # assignee = msgs.StringField(5) # milestone = msgs.StringField(6) # # Path: flask_github/client/requests.py # class IssueResponse(msgs.Message): # response = msgs.MessageField('Issue', 1) # # Path: flask_github/client/requests.py # class IssueListResponse(msgs.Message): # response = msgs.MessageField('Issue', 1, repeated=True) . Output only the next line.
return self.client.get('issues', query=query, msg_type=IssueListResponse)
Continue the code snippet: <|code_start|>from __future__ import unicode_literals class Gists: def __init__(self, client): self.client = client def list(self, user=None): url = 'users/%s/gists' % user if user else 'gists' return self.client.get(url, msg_type=GistListResponse) def list_public(self): return self.client.get('gists/public', msg_type=GistListResponse) def list_starred(self): return self.client.get('gists/starred', msg_type=GistListResponse) def get(self, id): return self.client.get('gists/%s' % id, msg_type=GistResponse) def create(self, public, files, description=None): <|code_end|> . Use current file imports: from ..messages import Gist from ..requests import GistResponse from ..requests import GistListResponse and context (classes, functions, or code) from other files: # Path: flask_github/client/messages.py # class Gist(msgs.Message): # ''' # { # "files": { # "ring.erl": { # "size": 932, # "filename": "ring.erl", # "raw_url": "https://gist.github.com/raw/365370/8c4d2d43d178df44f4c03a7f2ac0ff512853564e/ring.erl" # } # } # "history": [ # { # "url": "https://api.github.com/gists/14a2302d4083e5331759", # "version": "57a7f021a713b1c5a6a199b54cc514735d2d462f", # "user": { # "login": "octocat", # "id": 1, # "avatar_url": "https://github.com/images/error/octocat_happy.gif", # "gravatar_id": "somehexcode", # "url": "https://api.github.com/users/octocat" # }, # "change_status": { # "deletions": 0, # "additions": 180, # "total": 180 # }, # "committed_at": "2010-04-14T02:15:15Z" # } # ] # ''' # id = msgs.IntegerField(1, default=0) # url = msgs.StringField(2) # description = msgs.StringField(3) # public = msgs.BooleanField(4, default=True) # user = msgs.MessageField('User', 5) # comments = msgs.IntegerField(6, default=0) # comments_url = msgs.StringField(7) # html_url = msgs.StringField(8) # git_pull_url = msgs.StringField(9) # git_push_url = msgs.StringField(10) # created_at = msgs.StringField(11) # forks = msgs.MessageField('Gist', 12, repeated=True) # # Path: flask_github/client/requests.py # class GistResponse(msgs.Message): # response = msgs.MessageField('Gist', 1) # # Path: flask_github/client/requests.py # class GistListResponse(msgs.Message): # response = msgs.MessageField('Gist', 1, repeated=True) . Output only the next line.
msg = Gist(
Predict the next line for this snippet: <|code_start|>from __future__ import unicode_literals class Gists: def __init__(self, client): self.client = client def list(self, user=None): url = 'users/%s/gists' % user if user else 'gists' return self.client.get(url, msg_type=GistListResponse) def list_public(self): return self.client.get('gists/public', msg_type=GistListResponse) def list_starred(self): return self.client.get('gists/starred', msg_type=GistListResponse) def get(self, id): <|code_end|> with the help of current file imports: from ..messages import Gist from ..requests import GistResponse from ..requests import GistListResponse and context from other files: # Path: flask_github/client/messages.py # class Gist(msgs.Message): # ''' # { # "files": { # "ring.erl": { # "size": 932, # "filename": "ring.erl", # "raw_url": "https://gist.github.com/raw/365370/8c4d2d43d178df44f4c03a7f2ac0ff512853564e/ring.erl" # } # } # "history": [ # { # "url": "https://api.github.com/gists/14a2302d4083e5331759", # "version": "57a7f021a713b1c5a6a199b54cc514735d2d462f", # "user": { # "login": "octocat", # "id": 1, # "avatar_url": "https://github.com/images/error/octocat_happy.gif", # "gravatar_id": "somehexcode", # "url": "https://api.github.com/users/octocat" # }, # "change_status": { # "deletions": 0, # "additions": 180, # "total": 180 # }, # "committed_at": "2010-04-14T02:15:15Z" # } # ] # ''' # id = msgs.IntegerField(1, default=0) # url = msgs.StringField(2) # description = msgs.StringField(3) # public = msgs.BooleanField(4, default=True) # user = msgs.MessageField('User', 5) # comments = msgs.IntegerField(6, default=0) # comments_url = msgs.StringField(7) # html_url = msgs.StringField(8) # git_pull_url = msgs.StringField(9) # git_push_url = msgs.StringField(10) # created_at = msgs.StringField(11) # forks = msgs.MessageField('Gist', 12, repeated=True) # # Path: flask_github/client/requests.py # class GistResponse(msgs.Message): # response = msgs.MessageField('Gist', 1) # # Path: flask_github/client/requests.py # class GistListResponse(msgs.Message): # response = msgs.MessageField('Gist', 1, repeated=True) , which may contain function names, class names, or code. Output only the next line.
return self.client.get('gists/%s' % id, msg_type=GistResponse)
Given the code snippet: <|code_start|>from __future__ import unicode_literals class Gists: def __init__(self, client): self.client = client def list(self, user=None): url = 'users/%s/gists' % user if user else 'gists' <|code_end|> , generate the next line using the imports in this file: from ..messages import Gist from ..requests import GistResponse from ..requests import GistListResponse and context (functions, classes, or occasionally code) from other files: # Path: flask_github/client/messages.py # class Gist(msgs.Message): # ''' # { # "files": { # "ring.erl": { # "size": 932, # "filename": "ring.erl", # "raw_url": "https://gist.github.com/raw/365370/8c4d2d43d178df44f4c03a7f2ac0ff512853564e/ring.erl" # } # } # "history": [ # { # "url": "https://api.github.com/gists/14a2302d4083e5331759", # "version": "57a7f021a713b1c5a6a199b54cc514735d2d462f", # "user": { # "login": "octocat", # "id": 1, # "avatar_url": "https://github.com/images/error/octocat_happy.gif", # "gravatar_id": "somehexcode", # "url": "https://api.github.com/users/octocat" # }, # "change_status": { # "deletions": 0, # "additions": 180, # "total": 180 # }, # "committed_at": "2010-04-14T02:15:15Z" # } # ] # ''' # id = msgs.IntegerField(1, default=0) # url = msgs.StringField(2) # description = msgs.StringField(3) # public = msgs.BooleanField(4, default=True) # user = msgs.MessageField('User', 5) # comments = msgs.IntegerField(6, default=0) # comments_url = msgs.StringField(7) # html_url = msgs.StringField(8) # git_pull_url = msgs.StringField(9) # git_push_url = msgs.StringField(10) # created_at = msgs.StringField(11) # forks = msgs.MessageField('Gist', 12, repeated=True) # # Path: flask_github/client/requests.py # class GistResponse(msgs.Message): # response = msgs.MessageField('Gist', 1) # # Path: flask_github/client/requests.py # class GistListResponse(msgs.Message): # response = msgs.MessageField('Gist', 1, repeated=True) . Output only the next line.
return self.client.get(url, msg_type=GistListResponse)
Using the snippet: <|code_start|>from __future__ import unicode_literals class Events: def __init__(self, client): # TODO: Research http://developer.github.com/v3/events/types/ self.client = client def list_public_events(self): '''List public events.''' <|code_end|> , determine the next line of code. You have imports: from ..requests import EventListResponse and context (class names, function names, or code) available: # Path: flask_github/client/requests.py # class EventListResponse(msgs.Message): # response = msgs.MessageField('Event', 1, repeated=True) . Output only the next line.
return self.client.get('events', msg_type=EventListResponse)
Given the following code snippet before the placeholder: <|code_start|>from __future__ import unicode_literals class UsersFollowers: def __init__(self, client): self.client = client def list_followers(self, user=None): url = 'users/%s/followers' % user if ( user is not None and user != self.client._username) else 'user/followers' <|code_end|> , predict the next line using imports from the current file: from ..requests import UserListResponse and context including class names, function names, and sometimes code from other files: # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) . Output only the next line.
return self.client.get(url, msg_type=UserListResponse)
Given the following code snippet before the placeholder: <|code_start|>from __future__ import unicode_literals class IssuesEvents: def __init__(self, client): self.client = client def list(self, repo, issue_id=None, user=None): 'repos/%s/%s/issues/events' % (self.client.user(user), repo) if issue_id: url = 'repos/%s/%s/issues/%s/events' % ( self.client.user(user), repo, issue_id) return self.client.get(url, msg_type=IssueEventListResponse) def get(self, repo, id, user=None): return self.client.get('repos/%s/%s/issues/events/%s' % ( <|code_end|> , predict the next line using imports from the current file: from ..messages import IssueEvent from ..requests import IssueEventResponse from ..requests import IssueEventListResponse and context including class names, function names, and sometimes code from other files: # Path: flask_github/client/messages.py # class IssueEvent(msgs.Message): # pass # # Path: flask_github/client/requests.py # class IssueEventResponse(msgs.Message): # response = msgs.MessageField('IssueEvent', 1) # # Path: flask_github/client/requests.py # class IssueEventListResponse(msgs.Message): # response = msgs.MessageField('IssueEvent', 1, repeated=True) . Output only the next line.
self.client.user(user), repo, id), msg_type=IssueEventResponse)
Here is a snippet: <|code_start|>from __future__ import unicode_literals class IssuesEvents: def __init__(self, client): self.client = client def list(self, repo, issue_id=None, user=None): 'repos/%s/%s/issues/events' % (self.client.user(user), repo) if issue_id: url = 'repos/%s/%s/issues/%s/events' % ( self.client.user(user), repo, issue_id) <|code_end|> . Write the next line using the current file imports: from ..messages import IssueEvent from ..requests import IssueEventResponse from ..requests import IssueEventListResponse and context from other files: # Path: flask_github/client/messages.py # class IssueEvent(msgs.Message): # pass # # Path: flask_github/client/requests.py # class IssueEventResponse(msgs.Message): # response = msgs.MessageField('IssueEvent', 1) # # Path: flask_github/client/requests.py # class IssueEventListResponse(msgs.Message): # response = msgs.MessageField('IssueEvent', 1, repeated=True) , which may include functions, classes, or code. Output only the next line.
return self.client.get(url, msg_type=IssueEventListResponse)
Given the following code snippet before the placeholder: <|code_start|>from __future__ import unicode_literals class ReposStarring: def __init__(self, client): self.client = client def list_stargazers(self, repo, user=None, page=1): return self.client.get( 'repos/%s/%s/stargazers' % ( <|code_end|> , predict the next line using imports from the current file: from ..requests import UserListResponse from ..requests import RepoListResponse and context including class names, function names, and sometimes code from other files: # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) . Output only the next line.
self.client.user(user), repo), msg_type=UserListResponse)
Based on the snippet: <|code_start|>from __future__ import unicode_literals class ReposStarring: def __init__(self, client): self.client = client def list_stargazers(self, repo, user=None, page=1): return self.client.get( 'repos/%s/%s/stargazers' % ( self.client.user(user), repo), msg_type=UserListResponse) def list_starred_repos(self, user=None, page=1): url = 'user/starred' if user is not None and user != self.client._username: url = 'users/%s/starred' % user <|code_end|> , predict the immediate next line with the help of imports: from ..requests import UserListResponse from ..requests import RepoListResponse and context (classes, functions, sometimes code) from other files: # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) . Output only the next line.
return self.client.get(url, msg_type=RepoListResponse)
Given the following code snippet before the placeholder: <|code_start|>from __future__ import unicode_literals class GitDataBlobs: def __init__(self, client): self.client = client def get(self, repo, sha, user=None): return self.client.get( 'repos/%s/%s/git/blobs/%s' % ( self.client.user(user), repo, sha), msg_type=BlobResponse) def create(self, repo, content, encoding, user=None): <|code_end|> , predict the next line using imports from the current file: from ..messages import Blob from ..requests import BlobResponse and context including class names, function names, and sometimes code from other files: # Path: flask_github/client/messages.py # class Blob(msgs.Message): # content = msgs.BytesField(1) # encoding = msgs.StringField(2, default='utf-8') # sha = msgs.StringField(3) # size = msgs.IntegerField(4, default=0) # # Path: flask_github/client/requests.py # class BlobResponse(msgs.Message): # response = msgs.MessageField('Blob', 1) . Output only the next line.
msg = Blob(
Given the code snippet: <|code_start|>from __future__ import unicode_literals class GitDataBlobs: def __init__(self, client): self.client = client def get(self, repo, sha, user=None): return self.client.get( 'repos/%s/%s/git/blobs/%s' % ( <|code_end|> , generate the next line using the imports in this file: from ..messages import Blob from ..requests import BlobResponse and context (functions, classes, or occasionally code) from other files: # Path: flask_github/client/messages.py # class Blob(msgs.Message): # content = msgs.BytesField(1) # encoding = msgs.StringField(2, default='utf-8') # sha = msgs.StringField(3) # size = msgs.IntegerField(4, default=0) # # Path: flask_github/client/requests.py # class BlobResponse(msgs.Message): # response = msgs.MessageField('Blob', 1) . Output only the next line.
self.client.user(user), repo, sha), msg_type=BlobResponse)
Using the snippet: <|code_start|>from __future__ import unicode_literals class GitDataCommits: def __init__(self, client): self.client = client def get(self, repo, sha, user=None): return self.client.get( 'repos/%s/%s/git/commits/%s' % ( self.client.user(user), repo, sha), msg_type=GitDataCommitListResponse) def create(self, repo, message, tree, parents, author_name=None, author_email=None, author_date=None, committer_name=None, committer_email=None, commiter_date=None, user=None): msg = Commit( message=message, parents=parents, tree=tree, <|code_end|> , determine the next line of code. You have imports: from ..messages import User from ..messages import Commit from ..requests import GitDataCommitResponse from ..requests import GitDataCommitListResponse and context (class names, function names, or code) available: # Path: flask_github/client/messages.py # class User(msgs.Message): # name = msgs.StringField(1) # email = msgs.StringField(2) # id = msgs.IntegerField(3, default=0) # login = msgs.StringField(4) # url = msgs.StringField(5) # blog = msgs.StringField(6) # company = msgs.StringField(7) # location = msgs.StringField(8) # hireable = msgs.BooleanField(9, default=False) # bio = msgs.StringField(10) # avatar_url = msgs.StringField(11) # gravatar_id = msgs.StringField(12) # _links = msgs.MessageField('Link', 13, repeated=True) # date = msgs.StringField(14) # created_at = msgs.StringField(15) # type = msgs.StringField(16) # following = msgs.IntegerField(17, default=0) # followers = msgs.IntegerField(18, default=0) # public_repos = msgs.IntegerField(19, default=0) # public_gists = msgs.IntegerField(20, default=0) # total_private_repos = msgs.IntegerField(21, default=0) # owned_private_repos = msgs.IntegerField(22, default=0) # private_gists = msgs.IntegerField(23, default=0) # disk_usage = msgs.IntegerField(24, default=0) # collaborators = msgs.IntegerField(25, default=0) # html_url = msgs.StringField(26) # repos_url = msgs.StringField(27) # events_url = msgs.StringField(28) # members_url = msgs.StringField(29) # public_members_url = msgs.StringField(30) # # Path: flask_github/client/messages.py # class Commit(msgs.Message): # url = msgs.StringField(1) # sha = msgs.StringField(2) # committer = msgs.MessageField('User', 3) # author = msgs.MessageField('User', 4) # comment_count = msgs.IntegerField(5, default=0) # message = msgs.StringField(6) # # string reference allows for recursion.. # tree = msgs.MessageField('Commit', 7) # parents = msgs.MessageField('Commit', 8, repeated=True) # # fields that live on the tree api responses.. # path = msgs.StringField(9) # mode = msgs.StringField(10) # type = msgs.StringField(11) # size = msgs.IntegerField(12, default=0) # # fields for the hooks payload.. # id = msgs.StringField(13) # timestamp = msgs.StringField(14) # added = msgs.StringField(15, repeated=True) # removed = msgs.StringField(16, repeated=True) # modified = msgs.StringField(17, repeated=True) # commit = msgs.MessageField('Commit', 18) # # Path: flask_github/client/requests.py # class GitDataCommitResponse(msgs.Message): # response = msgs.MessageField('Commit', 1) # # Path: flask_github/client/requests.py # class GitDataCommitListResponse(msgs.Message): # response = msgs.MessageField('Commit', 1, repeated=True) . Output only the next line.
author=User(
Given the code snippet: <|code_start|>from __future__ import unicode_literals class GitDataCommits: def __init__(self, client): self.client = client def get(self, repo, sha, user=None): return self.client.get( 'repos/%s/%s/git/commits/%s' % ( self.client.user(user), repo, sha), msg_type=GitDataCommitListResponse) def create(self, repo, message, tree, parents, author_name=None, author_email=None, author_date=None, committer_name=None, committer_email=None, commiter_date=None, user=None): <|code_end|> , generate the next line using the imports in this file: from ..messages import User from ..messages import Commit from ..requests import GitDataCommitResponse from ..requests import GitDataCommitListResponse and context (functions, classes, or occasionally code) from other files: # Path: flask_github/client/messages.py # class User(msgs.Message): # name = msgs.StringField(1) # email = msgs.StringField(2) # id = msgs.IntegerField(3, default=0) # login = msgs.StringField(4) # url = msgs.StringField(5) # blog = msgs.StringField(6) # company = msgs.StringField(7) # location = msgs.StringField(8) # hireable = msgs.BooleanField(9, default=False) # bio = msgs.StringField(10) # avatar_url = msgs.StringField(11) # gravatar_id = msgs.StringField(12) # _links = msgs.MessageField('Link', 13, repeated=True) # date = msgs.StringField(14) # created_at = msgs.StringField(15) # type = msgs.StringField(16) # following = msgs.IntegerField(17, default=0) # followers = msgs.IntegerField(18, default=0) # public_repos = msgs.IntegerField(19, default=0) # public_gists = msgs.IntegerField(20, default=0) # total_private_repos = msgs.IntegerField(21, default=0) # owned_private_repos = msgs.IntegerField(22, default=0) # private_gists = msgs.IntegerField(23, default=0) # disk_usage = msgs.IntegerField(24, default=0) # collaborators = msgs.IntegerField(25, default=0) # html_url = msgs.StringField(26) # repos_url = msgs.StringField(27) # events_url = msgs.StringField(28) # members_url = msgs.StringField(29) # public_members_url = msgs.StringField(30) # # Path: flask_github/client/messages.py # class Commit(msgs.Message): # url = msgs.StringField(1) # sha = msgs.StringField(2) # committer = msgs.MessageField('User', 3) # author = msgs.MessageField('User', 4) # comment_count = msgs.IntegerField(5, default=0) # message = msgs.StringField(6) # # string reference allows for recursion.. # tree = msgs.MessageField('Commit', 7) # parents = msgs.MessageField('Commit', 8, repeated=True) # # fields that live on the tree api responses.. # path = msgs.StringField(9) # mode = msgs.StringField(10) # type = msgs.StringField(11) # size = msgs.IntegerField(12, default=0) # # fields for the hooks payload.. # id = msgs.StringField(13) # timestamp = msgs.StringField(14) # added = msgs.StringField(15, repeated=True) # removed = msgs.StringField(16, repeated=True) # modified = msgs.StringField(17, repeated=True) # commit = msgs.MessageField('Commit', 18) # # Path: flask_github/client/requests.py # class GitDataCommitResponse(msgs.Message): # response = msgs.MessageField('Commit', 1) # # Path: flask_github/client/requests.py # class GitDataCommitListResponse(msgs.Message): # response = msgs.MessageField('Commit', 1, repeated=True) . Output only the next line.
msg = Commit(
Given the following code snippet before the placeholder: <|code_start|> class GitDataCommits: def __init__(self, client): self.client = client def get(self, repo, sha, user=None): return self.client.get( 'repos/%s/%s/git/commits/%s' % ( self.client.user(user), repo, sha), msg_type=GitDataCommitListResponse) def create(self, repo, message, tree, parents, author_name=None, author_email=None, author_date=None, committer_name=None, committer_email=None, commiter_date=None, user=None): msg = Commit( message=message, parents=parents, tree=tree, author=User( name=author_name, email=author_email, date=author_date), committer = User( name=committer_name, email=committer_email, date=commiter_date)) return self._create(repo=repo, msg=msg, user=user) def _create(self, repo, msg, user=None): return self.client.post( 'repos/%s/%s/git/commits' % ( <|code_end|> , predict the next line using imports from the current file: from ..messages import User from ..messages import Commit from ..requests import GitDataCommitResponse from ..requests import GitDataCommitListResponse and context including class names, function names, and sometimes code from other files: # Path: flask_github/client/messages.py # class User(msgs.Message): # name = msgs.StringField(1) # email = msgs.StringField(2) # id = msgs.IntegerField(3, default=0) # login = msgs.StringField(4) # url = msgs.StringField(5) # blog = msgs.StringField(6) # company = msgs.StringField(7) # location = msgs.StringField(8) # hireable = msgs.BooleanField(9, default=False) # bio = msgs.StringField(10) # avatar_url = msgs.StringField(11) # gravatar_id = msgs.StringField(12) # _links = msgs.MessageField('Link', 13, repeated=True) # date = msgs.StringField(14) # created_at = msgs.StringField(15) # type = msgs.StringField(16) # following = msgs.IntegerField(17, default=0) # followers = msgs.IntegerField(18, default=0) # public_repos = msgs.IntegerField(19, default=0) # public_gists = msgs.IntegerField(20, default=0) # total_private_repos = msgs.IntegerField(21, default=0) # owned_private_repos = msgs.IntegerField(22, default=0) # private_gists = msgs.IntegerField(23, default=0) # disk_usage = msgs.IntegerField(24, default=0) # collaborators = msgs.IntegerField(25, default=0) # html_url = msgs.StringField(26) # repos_url = msgs.StringField(27) # events_url = msgs.StringField(28) # members_url = msgs.StringField(29) # public_members_url = msgs.StringField(30) # # Path: flask_github/client/messages.py # class Commit(msgs.Message): # url = msgs.StringField(1) # sha = msgs.StringField(2) # committer = msgs.MessageField('User', 3) # author = msgs.MessageField('User', 4) # comment_count = msgs.IntegerField(5, default=0) # message = msgs.StringField(6) # # string reference allows for recursion.. # tree = msgs.MessageField('Commit', 7) # parents = msgs.MessageField('Commit', 8, repeated=True) # # fields that live on the tree api responses.. # path = msgs.StringField(9) # mode = msgs.StringField(10) # type = msgs.StringField(11) # size = msgs.IntegerField(12, default=0) # # fields for the hooks payload.. # id = msgs.StringField(13) # timestamp = msgs.StringField(14) # added = msgs.StringField(15, repeated=True) # removed = msgs.StringField(16, repeated=True) # modified = msgs.StringField(17, repeated=True) # commit = msgs.MessageField('Commit', 18) # # Path: flask_github/client/requests.py # class GitDataCommitResponse(msgs.Message): # response = msgs.MessageField('Commit', 1) # # Path: flask_github/client/requests.py # class GitDataCommitListResponse(msgs.Message): # response = msgs.MessageField('Commit', 1, repeated=True) . Output only the next line.
self.client.user(user), repo), data=msg, msg_type=GitDataCommitResponse)
Predict the next line after this snippet: <|code_start|>from __future__ import unicode_literals class GitDataCommits: def __init__(self, client): self.client = client def get(self, repo, sha, user=None): return self.client.get( 'repos/%s/%s/git/commits/%s' % ( <|code_end|> using the current file's imports: from ..messages import User from ..messages import Commit from ..requests import GitDataCommitResponse from ..requests import GitDataCommitListResponse and any relevant context from other files: # Path: flask_github/client/messages.py # class User(msgs.Message): # name = msgs.StringField(1) # email = msgs.StringField(2) # id = msgs.IntegerField(3, default=0) # login = msgs.StringField(4) # url = msgs.StringField(5) # blog = msgs.StringField(6) # company = msgs.StringField(7) # location = msgs.StringField(8) # hireable = msgs.BooleanField(9, default=False) # bio = msgs.StringField(10) # avatar_url = msgs.StringField(11) # gravatar_id = msgs.StringField(12) # _links = msgs.MessageField('Link', 13, repeated=True) # date = msgs.StringField(14) # created_at = msgs.StringField(15) # type = msgs.StringField(16) # following = msgs.IntegerField(17, default=0) # followers = msgs.IntegerField(18, default=0) # public_repos = msgs.IntegerField(19, default=0) # public_gists = msgs.IntegerField(20, default=0) # total_private_repos = msgs.IntegerField(21, default=0) # owned_private_repos = msgs.IntegerField(22, default=0) # private_gists = msgs.IntegerField(23, default=0) # disk_usage = msgs.IntegerField(24, default=0) # collaborators = msgs.IntegerField(25, default=0) # html_url = msgs.StringField(26) # repos_url = msgs.StringField(27) # events_url = msgs.StringField(28) # members_url = msgs.StringField(29) # public_members_url = msgs.StringField(30) # # Path: flask_github/client/messages.py # class Commit(msgs.Message): # url = msgs.StringField(1) # sha = msgs.StringField(2) # committer = msgs.MessageField('User', 3) # author = msgs.MessageField('User', 4) # comment_count = msgs.IntegerField(5, default=0) # message = msgs.StringField(6) # # string reference allows for recursion.. # tree = msgs.MessageField('Commit', 7) # parents = msgs.MessageField('Commit', 8, repeated=True) # # fields that live on the tree api responses.. # path = msgs.StringField(9) # mode = msgs.StringField(10) # type = msgs.StringField(11) # size = msgs.IntegerField(12, default=0) # # fields for the hooks payload.. # id = msgs.StringField(13) # timestamp = msgs.StringField(14) # added = msgs.StringField(15, repeated=True) # removed = msgs.StringField(16, repeated=True) # modified = msgs.StringField(17, repeated=True) # commit = msgs.MessageField('Commit', 18) # # Path: flask_github/client/requests.py # class GitDataCommitResponse(msgs.Message): # response = msgs.MessageField('Commit', 1) # # Path: flask_github/client/requests.py # class GitDataCommitListResponse(msgs.Message): # response = msgs.MessageField('Commit', 1, repeated=True) . Output only the next line.
self.client.user(user), repo, sha), msg_type=GitDataCommitListResponse)
Given the code snippet: <|code_start|>from __future__ import unicode_literals class UsersEmails: def __init__(self, client): self.client = client def list(self): return self.client.get( 'user/emails', msg_type=UserEmailListResponse) def add(self, emails): return self.client.post( <|code_end|> , generate the next line using the imports in this file: from ..requests import UserEmailResponse from ..requests import UserEmailListResponse and context (functions, classes, or occasionally code) from other files: # Path: flask_github/client/requests.py # class UserEmailResponse(msgs.Message): # response = msgs.MessageField('UserEmail', 1) # # Path: flask_github/client/requests.py # class UserEmailListResponse(msgs.Message): # response = msgs.MessageField('UserEmail', 1, repeated=True) . Output only the next line.
'user/emails', data=emails, msg_type=UserEmailResponse)
Given the code snippet: <|code_start|>from __future__ import unicode_literals class UsersEmails: def __init__(self, client): self.client = client def list(self): return self.client.get( <|code_end|> , generate the next line using the imports in this file: from ..requests import UserEmailResponse from ..requests import UserEmailListResponse and context (functions, classes, or occasionally code) from other files: # Path: flask_github/client/requests.py # class UserEmailResponse(msgs.Message): # response = msgs.MessageField('UserEmail', 1) # # Path: flask_github/client/requests.py # class UserEmailListResponse(msgs.Message): # response = msgs.MessageField('UserEmail', 1, repeated=True) . Output only the next line.
'user/emails', msg_type=UserEmailListResponse)
Given snippet: <|code_start|>from __future__ import unicode_literals class GitDataRefs: def __init__(self, client): self.client = client def list(self, repo, subnamespace=None, user=None): url = 'repos/%s/%s/git/refs' % (repo, self.client.user(user)) if subnamespace: if subnamespace[0] == '/': url += subnamespace else: url += subnamespace return self.client.get(url, msg_type=RefListResponse) def get(self, repo, ref, user=None): return self.client.get( 'repos/%s/%s/git/refs/%s' % ( self.client.user(user), repo, ref), msg_type=RefResponse) def create(self, repo, ref, sha, user=None): <|code_end|> , continue by predicting the next line. Consider current file imports: from ..messages import Ref from ..requests import RefResponse from ..requests import RefListResponse and context: # Path: flask_github/client/messages.py # class Ref(msgs.Message): # sha = msgs.StringField(1) # ref = msgs.StringField(2) # force = msgs.BooleanField(3, default=False) # # Path: flask_github/client/requests.py # class RefResponse(msgs.Message): # response = msgs.MessageField('Ref', 1) # # Path: flask_github/client/requests.py # class RefListResponse(msgs.Message): # response = msgs.MessageField('Ref', 1, repeated=True) which might include code, classes, or functions. Output only the next line.
msg = Ref(
Given the following code snippet before the placeholder: <|code_start|>from __future__ import unicode_literals class GitDataRefs: def __init__(self, client): self.client = client def list(self, repo, subnamespace=None, user=None): url = 'repos/%s/%s/git/refs' % (repo, self.client.user(user)) if subnamespace: if subnamespace[0] == '/': url += subnamespace else: url += subnamespace return self.client.get(url, msg_type=RefListResponse) def get(self, repo, ref, user=None): return self.client.get( 'repos/%s/%s/git/refs/%s' % ( <|code_end|> , predict the next line using imports from the current file: from ..messages import Ref from ..requests import RefResponse from ..requests import RefListResponse and context including class names, function names, and sometimes code from other files: # Path: flask_github/client/messages.py # class Ref(msgs.Message): # sha = msgs.StringField(1) # ref = msgs.StringField(2) # force = msgs.BooleanField(3, default=False) # # Path: flask_github/client/requests.py # class RefResponse(msgs.Message): # response = msgs.MessageField('Ref', 1) # # Path: flask_github/client/requests.py # class RefListResponse(msgs.Message): # response = msgs.MessageField('Ref', 1, repeated=True) . Output only the next line.
self.client.user(user), repo, ref), msg_type=RefResponse)
Here is a snippet: <|code_start|>from __future__ import unicode_literals class GitDataRefs: def __init__(self, client): self.client = client def list(self, repo, subnamespace=None, user=None): url = 'repos/%s/%s/git/refs' % (repo, self.client.user(user)) if subnamespace: if subnamespace[0] == '/': url += subnamespace else: url += subnamespace <|code_end|> . Write the next line using the current file imports: from ..messages import Ref from ..requests import RefResponse from ..requests import RefListResponse and context from other files: # Path: flask_github/client/messages.py # class Ref(msgs.Message): # sha = msgs.StringField(1) # ref = msgs.StringField(2) # force = msgs.BooleanField(3, default=False) # # Path: flask_github/client/requests.py # class RefResponse(msgs.Message): # response = msgs.MessageField('Ref', 1) # # Path: flask_github/client/requests.py # class RefListResponse(msgs.Message): # response = msgs.MessageField('Ref', 1, repeated=True) , which may include functions, classes, or code. Output only the next line.
return self.client.get(url, msg_type=RefListResponse)
Using the snippet: <|code_start|>from __future__ import unicode_literals class GitDataTags: def __init__(self, client): self.client = client def get(self, repo, sha, user=None): return self.client.get( 'repos/%s/%s/git/tags/%s' % ( self.client.user(user), repo, sha), msg_type=TagResponse) def create(self, repo, tag, message, object, type, tagger_name, tagger_email, tagger_date, user=None): msg = Tag( tag=tag, message=message, object=object, type=type) <|code_end|> , determine the next line of code. You have imports: from ..messages import User from ..messages import Tag from ..requests import TagResponse and context (class names, function names, or code) available: # Path: flask_github/client/messages.py # class User(msgs.Message): # name = msgs.StringField(1) # email = msgs.StringField(2) # id = msgs.IntegerField(3, default=0) # login = msgs.StringField(4) # url = msgs.StringField(5) # blog = msgs.StringField(6) # company = msgs.StringField(7) # location = msgs.StringField(8) # hireable = msgs.BooleanField(9, default=False) # bio = msgs.StringField(10) # avatar_url = msgs.StringField(11) # gravatar_id = msgs.StringField(12) # _links = msgs.MessageField('Link', 13, repeated=True) # date = msgs.StringField(14) # created_at = msgs.StringField(15) # type = msgs.StringField(16) # following = msgs.IntegerField(17, default=0) # followers = msgs.IntegerField(18, default=0) # public_repos = msgs.IntegerField(19, default=0) # public_gists = msgs.IntegerField(20, default=0) # total_private_repos = msgs.IntegerField(21, default=0) # owned_private_repos = msgs.IntegerField(22, default=0) # private_gists = msgs.IntegerField(23, default=0) # disk_usage = msgs.IntegerField(24, default=0) # collaborators = msgs.IntegerField(25, default=0) # html_url = msgs.StringField(26) # repos_url = msgs.StringField(27) # events_url = msgs.StringField(28) # members_url = msgs.StringField(29) # public_members_url = msgs.StringField(30) # # Path: flask_github/client/messages.py # class Tag(msgs.Message): # tag = msgs.StringField(1) # message = msgs.StringField(2) # tagger = msgs.MessageField('User', 4) # # fields for tag objects.. # object = msgs.MessageField('Tag', 5) # type = msgs.StringField(6) # sha = msgs.StringField(7) # url = msgs.StringField(8) # name = msgs.StringField(9) # commit = msgs.MessageField('Commit', 10) # zipball_url = msgs.StringField(11) # tarball_url = msgs.StringField(12) # # Path: flask_github/client/requests.py # class TagResponse(msgs.Message): # response = msgs.MessageField('Tag', 1) . Output only the next line.
msg.tagger = User(
Using the snippet: <|code_start|>from __future__ import unicode_literals class GitDataTags: def __init__(self, client): self.client = client def get(self, repo, sha, user=None): return self.client.get( 'repos/%s/%s/git/tags/%s' % ( self.client.user(user), repo, sha), msg_type=TagResponse) def create(self, repo, tag, message, object, type, tagger_name, tagger_email, tagger_date, user=None): <|code_end|> , determine the next line of code. You have imports: from ..messages import User from ..messages import Tag from ..requests import TagResponse and context (class names, function names, or code) available: # Path: flask_github/client/messages.py # class User(msgs.Message): # name = msgs.StringField(1) # email = msgs.StringField(2) # id = msgs.IntegerField(3, default=0) # login = msgs.StringField(4) # url = msgs.StringField(5) # blog = msgs.StringField(6) # company = msgs.StringField(7) # location = msgs.StringField(8) # hireable = msgs.BooleanField(9, default=False) # bio = msgs.StringField(10) # avatar_url = msgs.StringField(11) # gravatar_id = msgs.StringField(12) # _links = msgs.MessageField('Link', 13, repeated=True) # date = msgs.StringField(14) # created_at = msgs.StringField(15) # type = msgs.StringField(16) # following = msgs.IntegerField(17, default=0) # followers = msgs.IntegerField(18, default=0) # public_repos = msgs.IntegerField(19, default=0) # public_gists = msgs.IntegerField(20, default=0) # total_private_repos = msgs.IntegerField(21, default=0) # owned_private_repos = msgs.IntegerField(22, default=0) # private_gists = msgs.IntegerField(23, default=0) # disk_usage = msgs.IntegerField(24, default=0) # collaborators = msgs.IntegerField(25, default=0) # html_url = msgs.StringField(26) # repos_url = msgs.StringField(27) # events_url = msgs.StringField(28) # members_url = msgs.StringField(29) # public_members_url = msgs.StringField(30) # # Path: flask_github/client/messages.py # class Tag(msgs.Message): # tag = msgs.StringField(1) # message = msgs.StringField(2) # tagger = msgs.MessageField('User', 4) # # fields for tag objects.. # object = msgs.MessageField('Tag', 5) # type = msgs.StringField(6) # sha = msgs.StringField(7) # url = msgs.StringField(8) # name = msgs.StringField(9) # commit = msgs.MessageField('Commit', 10) # zipball_url = msgs.StringField(11) # tarball_url = msgs.StringField(12) # # Path: flask_github/client/requests.py # class TagResponse(msgs.Message): # response = msgs.MessageField('Tag', 1) . Output only the next line.
msg = Tag(
Given the following code snippet before the placeholder: <|code_start|>from __future__ import unicode_literals class GitDataTags: def __init__(self, client): self.client = client def get(self, repo, sha, user=None): return self.client.get( 'repos/%s/%s/git/tags/%s' % ( <|code_end|> , predict the next line using imports from the current file: from ..messages import User from ..messages import Tag from ..requests import TagResponse and context including class names, function names, and sometimes code from other files: # Path: flask_github/client/messages.py # class User(msgs.Message): # name = msgs.StringField(1) # email = msgs.StringField(2) # id = msgs.IntegerField(3, default=0) # login = msgs.StringField(4) # url = msgs.StringField(5) # blog = msgs.StringField(6) # company = msgs.StringField(7) # location = msgs.StringField(8) # hireable = msgs.BooleanField(9, default=False) # bio = msgs.StringField(10) # avatar_url = msgs.StringField(11) # gravatar_id = msgs.StringField(12) # _links = msgs.MessageField('Link', 13, repeated=True) # date = msgs.StringField(14) # created_at = msgs.StringField(15) # type = msgs.StringField(16) # following = msgs.IntegerField(17, default=0) # followers = msgs.IntegerField(18, default=0) # public_repos = msgs.IntegerField(19, default=0) # public_gists = msgs.IntegerField(20, default=0) # total_private_repos = msgs.IntegerField(21, default=0) # owned_private_repos = msgs.IntegerField(22, default=0) # private_gists = msgs.IntegerField(23, default=0) # disk_usage = msgs.IntegerField(24, default=0) # collaborators = msgs.IntegerField(25, default=0) # html_url = msgs.StringField(26) # repos_url = msgs.StringField(27) # events_url = msgs.StringField(28) # members_url = msgs.StringField(29) # public_members_url = msgs.StringField(30) # # Path: flask_github/client/messages.py # class Tag(msgs.Message): # tag = msgs.StringField(1) # message = msgs.StringField(2) # tagger = msgs.MessageField('User', 4) # # fields for tag objects.. # object = msgs.MessageField('Tag', 5) # type = msgs.StringField(6) # sha = msgs.StringField(7) # url = msgs.StringField(8) # name = msgs.StringField(9) # commit = msgs.MessageField('Commit', 10) # zipball_url = msgs.StringField(11) # tarball_url = msgs.StringField(12) # # Path: flask_github/client/requests.py # class TagResponse(msgs.Message): # response = msgs.MessageField('Tag', 1) . Output only the next line.
self.client.user(user), repo, sha), msg_type=TagResponse)
Based on the snippet: <|code_start|>from __future__ import unicode_literals class PullReviewComments: def __init__(self, client): self.client = client def list(self, repo, id, user=None): return self.client.get( 'repos/%s/%s/pulls/%s/comments' % ( self.client.user(user), repo, id), msg_type=PullReviewCommentListResponse) def get(self, repo, id, user=None): return self.client.get( 'repos/%s/%s/pulls/comments/%s' % ( self.client.user(user), repo, id), msg_type=PullReviewCommentResponse) def create(self, repo, id, body, commit_id, path, position, user=None): <|code_end|> , predict the immediate next line with the help of imports: from ..messages import PullReviewComment from ..requests import PullReviewCommentResponse from ..requests import PullReviewCommentListResponse and context (classes, functions, sometimes code) from other files: # Path: flask_github/client/messages.py # class PullReviewComment(msgs.Message): # commit_message = msgs.StringField(1) # # Path: flask_github/client/requests.py # class PullReviewCommentResponse(msgs.Message): # response = msgs.MessageField('PullReviewComment', 1) # # Path: flask_github/client/requests.py # class PullReviewCommentListResponse(msgs.Message): # response = msgs.MessageField('PullReviewComment', 1, repeated=True) . Output only the next line.
msg = PullReviewComment(
Next line prediction: <|code_start|>from __future__ import unicode_literals class PullReviewComments: def __init__(self, client): self.client = client def list(self, repo, id, user=None): return self.client.get( 'repos/%s/%s/pulls/%s/comments' % ( self.client.user(user), repo, id), msg_type=PullReviewCommentListResponse) def get(self, repo, id, user=None): return self.client.get( 'repos/%s/%s/pulls/comments/%s' % ( <|code_end|> . Use current file imports: (from ..messages import PullReviewComment from ..requests import PullReviewCommentResponse from ..requests import PullReviewCommentListResponse ) and context including class names, function names, or small code snippets from other files: # Path: flask_github/client/messages.py # class PullReviewComment(msgs.Message): # commit_message = msgs.StringField(1) # # Path: flask_github/client/requests.py # class PullReviewCommentResponse(msgs.Message): # response = msgs.MessageField('PullReviewComment', 1) # # Path: flask_github/client/requests.py # class PullReviewCommentListResponse(msgs.Message): # response = msgs.MessageField('PullReviewComment', 1, repeated=True) . Output only the next line.
self.client.user(user), repo, id), msg_type=PullReviewCommentResponse)
Here is a snippet: <|code_start|>from __future__ import unicode_literals class PullReviewComments: def __init__(self, client): self.client = client def list(self, repo, id, user=None): return self.client.get( 'repos/%s/%s/pulls/%s/comments' % ( self.client.user(user), repo, id), <|code_end|> . Write the next line using the current file imports: from ..messages import PullReviewComment from ..requests import PullReviewCommentResponse from ..requests import PullReviewCommentListResponse and context from other files: # Path: flask_github/client/messages.py # class PullReviewComment(msgs.Message): # commit_message = msgs.StringField(1) # # Path: flask_github/client/requests.py # class PullReviewCommentResponse(msgs.Message): # response = msgs.MessageField('PullReviewComment', 1) # # Path: flask_github/client/requests.py # class PullReviewCommentListResponse(msgs.Message): # response = msgs.MessageField('PullReviewComment', 1, repeated=True) , which may include functions, classes, or code. Output only the next line.
msg_type=PullReviewCommentListResponse)
Predict the next line for this snippet: <|code_start|>from __future__ import unicode_literals class ReposDownloads: def __init__(self, client): self.client = client def list(self, repo, user=None): return self.client.get( 'repos/%s/%s/downloads' % ( self.client.username(user), repo), msg_type=RepoDownloadListResponse) def get(self, repo, id, user=None): return self.client.get( 'repos/%s/%s/downloads/%s' % ( <|code_end|> with the help of current file imports: import json from ..requests import RepoDownloadResponse from ..requests import RepoDownloadListResponse and context from other files: # Path: flask_github/client/requests.py # class RepoDownloadResponse(msgs.Message): # response = msgs.MessageField('RepoDownload', 1) # # Path: flask_github/client/requests.py # class RepoDownloadListResponse(msgs.Message): # response = msgs.MessageField('RepoDownload', 1, repeated=True) , which may contain function names, class names, or code. Output only the next line.
self.client.username(user), repo, id), msg_type=RepoDownloadResponse)
Here is a snippet: <|code_start|>from __future__ import unicode_literals class ReposDownloads: def __init__(self, client): self.client = client def list(self, repo, user=None): return self.client.get( 'repos/%s/%s/downloads' % ( <|code_end|> . Write the next line using the current file imports: import json from ..requests import RepoDownloadResponse from ..requests import RepoDownloadListResponse and context from other files: # Path: flask_github/client/requests.py # class RepoDownloadResponse(msgs.Message): # response = msgs.MessageField('RepoDownload', 1) # # Path: flask_github/client/requests.py # class RepoDownloadListResponse(msgs.Message): # response = msgs.MessageField('RepoDownload', 1, repeated=True) , which may include functions, classes, or code. Output only the next line.
self.client.username(user), repo), msg_type=RepoDownloadListResponse)
Using the snippet: <|code_start|> class Repos: def __init__(self, client): self.client = client self.keys = ReposKeys(self.client) self.forks = ReposForks(self.client) self.hooks = ReposHooks(self.client) self.commits = ReposCommits(self.client) self.starring = ReposStarring(self.client) self.watching = ReposWatching(self.client) self.downloads = ReposDownloads(self.client) self.collaborators = ReposCollaborators(self.client) def list(self, org=None, user=None): url = 'user/repos' if org: url = 'orgs/%s/repos' % org else: if user and user != self.client._username: url = 'users/%s/repos' % self.client.user(user) return self.client.get(url, msg_type=RepoListResponse) def get(self, repo, user=None): return self.client.get( 'repos/%s/%s' % ( self.client.user(user), repo), msg_type=RepoResponse) def create(self, name, org=None, description=None, homepage=None, private=False, has_issues=True, has_wiki=True, has_downloads=True): <|code_end|> , determine the next line of code. You have imports: from reposkeys import ReposKeys from reposhooks import ReposHooks from reposforks import ReposForks from reposcommits import ReposCommits from reposwatching import ReposWatching from reposstarring import ReposStarring from reposdownloads import ReposDownloads from reposcollaborators import ReposCollaborators from ..messages import Repo from ..requests import RepoResponse from ..requests import RepoListResponse from ..requests import TagListResponse from ..requests import UserListResponse from ..requests import TeamListResponse and context (class names, function names, or code) available: # Path: flask_github/client/messages.py # class Repo(msgs.Message): # id = msgs.IntegerField(1, default=0) # name = msgs.StringField(2) # full_name = msgs.StringField(3) # description = msgs.StringField(4) # owner = msgs.MessageField('User', 5) # created_at = msgs.StringField(6) # pushed_at = msgs.StringField(7) # updated_at = msgs.StringField(8) # has_wiki = msgs.BooleanField(9, default=False) # has_issues = msgs.BooleanField(10, default=False) # has_downloads = msgs.BooleanField(11, default=False) # private = msgs.BooleanField(12, default=False) # size = msgs.IntegerField(13, default=0) # forks = msgs.IntegerField(14, default=0) # forks_count = msgs.IntegerField(15, default=0) # watchers = msgs.IntegerField(16, default=0) # watchers_count = msgs.IntegerField(17, default=0) # open_issues_count = msgs.IntegerField(18, default=0) # open_issues = msgs.IntegerField(19, default=0) # language = msgs.StringField(20) # fork = msgs.BooleanField(21, default=False) # permissions = msgs.MessageField('RepoPermission', 22, repeated=True) # url = msgs.StringField(23) # git_url = msgs.StringField(24) # svn_url = msgs.StringField(25) # ssh_url = msgs.StringField(26) # html_url = msgs.StringField(27) # clone_url = msgs.StringField(28) # mirror_url = msgs.StringField(29) # homepage = msgs.StringField(30) # ref = msgs.StringField(31) # master_branch = msgs.StringField(32) # # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) # # Path: flask_github/client/requests.py # class TagListResponse(msgs.Message): # response = msgs.MessageField('Tag', 1, repeated=True) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) # # Path: flask_github/client/requests.py # class TeamListResponse(msgs.Message): # response = msgs.MessageField('Team', 1, repeated=True) . Output only the next line.
msg = Repo(
Given the code snippet: <|code_start|>from __future__ import unicode_literals class Repos: def __init__(self, client): self.client = client self.keys = ReposKeys(self.client) self.forks = ReposForks(self.client) self.hooks = ReposHooks(self.client) self.commits = ReposCommits(self.client) self.starring = ReposStarring(self.client) self.watching = ReposWatching(self.client) self.downloads = ReposDownloads(self.client) self.collaborators = ReposCollaborators(self.client) def list(self, org=None, user=None): url = 'user/repos' if org: url = 'orgs/%s/repos' % org else: if user and user != self.client._username: url = 'users/%s/repos' % self.client.user(user) return self.client.get(url, msg_type=RepoListResponse) def get(self, repo, user=None): return self.client.get( 'repos/%s/%s' % ( <|code_end|> , generate the next line using the imports in this file: from reposkeys import ReposKeys from reposhooks import ReposHooks from reposforks import ReposForks from reposcommits import ReposCommits from reposwatching import ReposWatching from reposstarring import ReposStarring from reposdownloads import ReposDownloads from reposcollaborators import ReposCollaborators from ..messages import Repo from ..requests import RepoResponse from ..requests import RepoListResponse from ..requests import TagListResponse from ..requests import UserListResponse from ..requests import TeamListResponse and context (functions, classes, or occasionally code) from other files: # Path: flask_github/client/messages.py # class Repo(msgs.Message): # id = msgs.IntegerField(1, default=0) # name = msgs.StringField(2) # full_name = msgs.StringField(3) # description = msgs.StringField(4) # owner = msgs.MessageField('User', 5) # created_at = msgs.StringField(6) # pushed_at = msgs.StringField(7) # updated_at = msgs.StringField(8) # has_wiki = msgs.BooleanField(9, default=False) # has_issues = msgs.BooleanField(10, default=False) # has_downloads = msgs.BooleanField(11, default=False) # private = msgs.BooleanField(12, default=False) # size = msgs.IntegerField(13, default=0) # forks = msgs.IntegerField(14, default=0) # forks_count = msgs.IntegerField(15, default=0) # watchers = msgs.IntegerField(16, default=0) # watchers_count = msgs.IntegerField(17, default=0) # open_issues_count = msgs.IntegerField(18, default=0) # open_issues = msgs.IntegerField(19, default=0) # language = msgs.StringField(20) # fork = msgs.BooleanField(21, default=False) # permissions = msgs.MessageField('RepoPermission', 22, repeated=True) # url = msgs.StringField(23) # git_url = msgs.StringField(24) # svn_url = msgs.StringField(25) # ssh_url = msgs.StringField(26) # html_url = msgs.StringField(27) # clone_url = msgs.StringField(28) # mirror_url = msgs.StringField(29) # homepage = msgs.StringField(30) # ref = msgs.StringField(31) # master_branch = msgs.StringField(32) # # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) # # Path: flask_github/client/requests.py # class TagListResponse(msgs.Message): # response = msgs.MessageField('Tag', 1, repeated=True) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) # # Path: flask_github/client/requests.py # class TeamListResponse(msgs.Message): # response = msgs.MessageField('Team', 1, repeated=True) . Output only the next line.
self.client.user(user), repo), msg_type=RepoResponse)
Next line prediction: <|code_start|>from __future__ import unicode_literals class Repos: def __init__(self, client): self.client = client self.keys = ReposKeys(self.client) self.forks = ReposForks(self.client) self.hooks = ReposHooks(self.client) self.commits = ReposCommits(self.client) self.starring = ReposStarring(self.client) self.watching = ReposWatching(self.client) self.downloads = ReposDownloads(self.client) self.collaborators = ReposCollaborators(self.client) def list(self, org=None, user=None): url = 'user/repos' if org: url = 'orgs/%s/repos' % org else: if user and user != self.client._username: url = 'users/%s/repos' % self.client.user(user) <|code_end|> . Use current file imports: (from reposkeys import ReposKeys from reposhooks import ReposHooks from reposforks import ReposForks from reposcommits import ReposCommits from reposwatching import ReposWatching from reposstarring import ReposStarring from reposdownloads import ReposDownloads from reposcollaborators import ReposCollaborators from ..messages import Repo from ..requests import RepoResponse from ..requests import RepoListResponse from ..requests import TagListResponse from ..requests import UserListResponse from ..requests import TeamListResponse ) and context including class names, function names, or small code snippets from other files: # Path: flask_github/client/messages.py # class Repo(msgs.Message): # id = msgs.IntegerField(1, default=0) # name = msgs.StringField(2) # full_name = msgs.StringField(3) # description = msgs.StringField(4) # owner = msgs.MessageField('User', 5) # created_at = msgs.StringField(6) # pushed_at = msgs.StringField(7) # updated_at = msgs.StringField(8) # has_wiki = msgs.BooleanField(9, default=False) # has_issues = msgs.BooleanField(10, default=False) # has_downloads = msgs.BooleanField(11, default=False) # private = msgs.BooleanField(12, default=False) # size = msgs.IntegerField(13, default=0) # forks = msgs.IntegerField(14, default=0) # forks_count = msgs.IntegerField(15, default=0) # watchers = msgs.IntegerField(16, default=0) # watchers_count = msgs.IntegerField(17, default=0) # open_issues_count = msgs.IntegerField(18, default=0) # open_issues = msgs.IntegerField(19, default=0) # language = msgs.StringField(20) # fork = msgs.BooleanField(21, default=False) # permissions = msgs.MessageField('RepoPermission', 22, repeated=True) # url = msgs.StringField(23) # git_url = msgs.StringField(24) # svn_url = msgs.StringField(25) # ssh_url = msgs.StringField(26) # html_url = msgs.StringField(27) # clone_url = msgs.StringField(28) # mirror_url = msgs.StringField(29) # homepage = msgs.StringField(30) # ref = msgs.StringField(31) # master_branch = msgs.StringField(32) # # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) # # Path: flask_github/client/requests.py # class TagListResponse(msgs.Message): # response = msgs.MessageField('Tag', 1, repeated=True) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) # # Path: flask_github/client/requests.py # class TeamListResponse(msgs.Message): # response = msgs.MessageField('Team', 1, repeated=True) . Output only the next line.
return self.client.get(url, msg_type=RepoListResponse)
Predict the next line for this snippet: <|code_start|> if org: url = 'orgs/%s/repos' % org return self.client.post( url, data=msg, msg_type=RepoResponse) def edit(self, repo, name, description=None, homepage=None, private=False, has_issues=True, has_wiki=True, has_downloads=True, user=None): msg = Repo( name=name, private=private, has_issues=has_issues, has_wiki=has_wiki, has_downloads=has_downloads, description=description, homepage=homepage) return self._edit(repo=repo, msg=msg, user=user) def _edit(self, repo, msg, user=None): return self.client.patch( 'repos/%s/%s' % ( self.client.user(user), repo), data=msg) def list_contributors(self, repo, user=None): return self.client.get( 'repos/%s/%s/contributors' % ( self.client.user(user), repo), msg_type=UserListResponse) def list_tags(self, repo, user=None): return self.client.get( 'repos/%s/%s/tags' % ( <|code_end|> with the help of current file imports: from reposkeys import ReposKeys from reposhooks import ReposHooks from reposforks import ReposForks from reposcommits import ReposCommits from reposwatching import ReposWatching from reposstarring import ReposStarring from reposdownloads import ReposDownloads from reposcollaborators import ReposCollaborators from ..messages import Repo from ..requests import RepoResponse from ..requests import RepoListResponse from ..requests import TagListResponse from ..requests import UserListResponse from ..requests import TeamListResponse and context from other files: # Path: flask_github/client/messages.py # class Repo(msgs.Message): # id = msgs.IntegerField(1, default=0) # name = msgs.StringField(2) # full_name = msgs.StringField(3) # description = msgs.StringField(4) # owner = msgs.MessageField('User', 5) # created_at = msgs.StringField(6) # pushed_at = msgs.StringField(7) # updated_at = msgs.StringField(8) # has_wiki = msgs.BooleanField(9, default=False) # has_issues = msgs.BooleanField(10, default=False) # has_downloads = msgs.BooleanField(11, default=False) # private = msgs.BooleanField(12, default=False) # size = msgs.IntegerField(13, default=0) # forks = msgs.IntegerField(14, default=0) # forks_count = msgs.IntegerField(15, default=0) # watchers = msgs.IntegerField(16, default=0) # watchers_count = msgs.IntegerField(17, default=0) # open_issues_count = msgs.IntegerField(18, default=0) # open_issues = msgs.IntegerField(19, default=0) # language = msgs.StringField(20) # fork = msgs.BooleanField(21, default=False) # permissions = msgs.MessageField('RepoPermission', 22, repeated=True) # url = msgs.StringField(23) # git_url = msgs.StringField(24) # svn_url = msgs.StringField(25) # ssh_url = msgs.StringField(26) # html_url = msgs.StringField(27) # clone_url = msgs.StringField(28) # mirror_url = msgs.StringField(29) # homepage = msgs.StringField(30) # ref = msgs.StringField(31) # master_branch = msgs.StringField(32) # # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) # # Path: flask_github/client/requests.py # class TagListResponse(msgs.Message): # response = msgs.MessageField('Tag', 1, repeated=True) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) # # Path: flask_github/client/requests.py # class TeamListResponse(msgs.Message): # response = msgs.MessageField('Team', 1, repeated=True) , which may contain function names, class names, or code. Output only the next line.
self.client.user(user), repo), msg_type=TagListResponse)
Here is a snippet: <|code_start|> homepage=homepage) return self._create(org=org, msg=msg) def _create(self, msg, org=None): url = 'user/repos' if org: url = 'orgs/%s/repos' % org return self.client.post( url, data=msg, msg_type=RepoResponse) def edit(self, repo, name, description=None, homepage=None, private=False, has_issues=True, has_wiki=True, has_downloads=True, user=None): msg = Repo( name=name, private=private, has_issues=has_issues, has_wiki=has_wiki, has_downloads=has_downloads, description=description, homepage=homepage) return self._edit(repo=repo, msg=msg, user=user) def _edit(self, repo, msg, user=None): return self.client.patch( 'repos/%s/%s' % ( self.client.user(user), repo), data=msg) def list_contributors(self, repo, user=None): return self.client.get( 'repos/%s/%s/contributors' % ( <|code_end|> . Write the next line using the current file imports: from reposkeys import ReposKeys from reposhooks import ReposHooks from reposforks import ReposForks from reposcommits import ReposCommits from reposwatching import ReposWatching from reposstarring import ReposStarring from reposdownloads import ReposDownloads from reposcollaborators import ReposCollaborators from ..messages import Repo from ..requests import RepoResponse from ..requests import RepoListResponse from ..requests import TagListResponse from ..requests import UserListResponse from ..requests import TeamListResponse and context from other files: # Path: flask_github/client/messages.py # class Repo(msgs.Message): # id = msgs.IntegerField(1, default=0) # name = msgs.StringField(2) # full_name = msgs.StringField(3) # description = msgs.StringField(4) # owner = msgs.MessageField('User', 5) # created_at = msgs.StringField(6) # pushed_at = msgs.StringField(7) # updated_at = msgs.StringField(8) # has_wiki = msgs.BooleanField(9, default=False) # has_issues = msgs.BooleanField(10, default=False) # has_downloads = msgs.BooleanField(11, default=False) # private = msgs.BooleanField(12, default=False) # size = msgs.IntegerField(13, default=0) # forks = msgs.IntegerField(14, default=0) # forks_count = msgs.IntegerField(15, default=0) # watchers = msgs.IntegerField(16, default=0) # watchers_count = msgs.IntegerField(17, default=0) # open_issues_count = msgs.IntegerField(18, default=0) # open_issues = msgs.IntegerField(19, default=0) # language = msgs.StringField(20) # fork = msgs.BooleanField(21, default=False) # permissions = msgs.MessageField('RepoPermission', 22, repeated=True) # url = msgs.StringField(23) # git_url = msgs.StringField(24) # svn_url = msgs.StringField(25) # ssh_url = msgs.StringField(26) # html_url = msgs.StringField(27) # clone_url = msgs.StringField(28) # mirror_url = msgs.StringField(29) # homepage = msgs.StringField(30) # ref = msgs.StringField(31) # master_branch = msgs.StringField(32) # # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) # # Path: flask_github/client/requests.py # class TagListResponse(msgs.Message): # response = msgs.MessageField('Tag', 1, repeated=True) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) # # Path: flask_github/client/requests.py # class TeamListResponse(msgs.Message): # response = msgs.MessageField('Team', 1, repeated=True) , which may include functions, classes, or code. Output only the next line.
self.client.user(user), repo), msg_type=UserListResponse)
Here is a snippet: <|code_start|> has_issues=has_issues, has_wiki=has_wiki, has_downloads=has_downloads, description=description, homepage=homepage) return self._edit(repo=repo, msg=msg, user=user) def _edit(self, repo, msg, user=None): return self.client.patch( 'repos/%s/%s' % ( self.client.user(user), repo), data=msg) def list_contributors(self, repo, user=None): return self.client.get( 'repos/%s/%s/contributors' % ( self.client.user(user), repo), msg_type=UserListResponse) def list_tags(self, repo, user=None): return self.client.get( 'repos/%s/%s/tags' % ( self.client.user(user), repo), msg_type=TagListResponse) def list_langs(self, repo, user=None): return self.client.get( 'repos/%s/%s/languages' % ( self.client.user(user), repo)) def list_teams(self, repo, user=None): return self.client.get( 'repos/%s/%s/teams' % ( <|code_end|> . Write the next line using the current file imports: from reposkeys import ReposKeys from reposhooks import ReposHooks from reposforks import ReposForks from reposcommits import ReposCommits from reposwatching import ReposWatching from reposstarring import ReposStarring from reposdownloads import ReposDownloads from reposcollaborators import ReposCollaborators from ..messages import Repo from ..requests import RepoResponse from ..requests import RepoListResponse from ..requests import TagListResponse from ..requests import UserListResponse from ..requests import TeamListResponse and context from other files: # Path: flask_github/client/messages.py # class Repo(msgs.Message): # id = msgs.IntegerField(1, default=0) # name = msgs.StringField(2) # full_name = msgs.StringField(3) # description = msgs.StringField(4) # owner = msgs.MessageField('User', 5) # created_at = msgs.StringField(6) # pushed_at = msgs.StringField(7) # updated_at = msgs.StringField(8) # has_wiki = msgs.BooleanField(9, default=False) # has_issues = msgs.BooleanField(10, default=False) # has_downloads = msgs.BooleanField(11, default=False) # private = msgs.BooleanField(12, default=False) # size = msgs.IntegerField(13, default=0) # forks = msgs.IntegerField(14, default=0) # forks_count = msgs.IntegerField(15, default=0) # watchers = msgs.IntegerField(16, default=0) # watchers_count = msgs.IntegerField(17, default=0) # open_issues_count = msgs.IntegerField(18, default=0) # open_issues = msgs.IntegerField(19, default=0) # language = msgs.StringField(20) # fork = msgs.BooleanField(21, default=False) # permissions = msgs.MessageField('RepoPermission', 22, repeated=True) # url = msgs.StringField(23) # git_url = msgs.StringField(24) # svn_url = msgs.StringField(25) # ssh_url = msgs.StringField(26) # html_url = msgs.StringField(27) # clone_url = msgs.StringField(28) # mirror_url = msgs.StringField(29) # homepage = msgs.StringField(30) # ref = msgs.StringField(31) # master_branch = msgs.StringField(32) # # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) # # Path: flask_github/client/requests.py # class TagListResponse(msgs.Message): # response = msgs.MessageField('Tag', 1, repeated=True) # # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) # # Path: flask_github/client/requests.py # class TeamListResponse(msgs.Message): # response = msgs.MessageField('Team', 1, repeated=True) , which may include functions, classes, or code. Output only the next line.
self.client.user(user), repo), msg_type=TeamListResponse)
Given the code snippet: <|code_start|>from __future__ import unicode_literals class IssuesComments: def __init__(self, client): self.client = client def list(self, repo, id, user=None): return self.client.get('repos/%s/%s/issues/%s/comments' % ( self.client.user(user), repo, id), msg_type=IssueCommentListResponse) def get(self, repo, id, user=None): return self.client.get('repos/%s/%s/issues/comments/%s' % ( self.client.user(user), repo, id), msg_type=IssueCommentResponse) def edit(self, repo, id, body, user=None): <|code_end|> , generate the next line using the imports in this file: from ..messages import IssueComment from ..requests import IssueCommentResponse from ..requests import IssueCommentListResponse and context (functions, classes, or occasionally code) from other files: # Path: flask_github/client/messages.py # class IssueComment(msgs.Message): # body = msgs.StringField(1) # # Path: flask_github/client/requests.py # class IssueCommentResponse(msgs.Message): # response = msgs.MessageField('IssueComment', 1) # # Path: flask_github/client/requests.py # class IssueCommentListResponse(msgs.Message): # response = msgs.MessageField('IssueComment', 1, repeated=True) . Output only the next line.
msg = IssueComment(
Using the snippet: <|code_start|>from __future__ import unicode_literals class IssuesComments: def __init__(self, client): self.client = client def list(self, repo, id, user=None): return self.client.get('repos/%s/%s/issues/%s/comments' % ( self.client.user(user), repo, id), msg_type=IssueCommentListResponse) def get(self, repo, id, user=None): return self.client.get('repos/%s/%s/issues/comments/%s' % ( <|code_end|> , determine the next line of code. You have imports: from ..messages import IssueComment from ..requests import IssueCommentResponse from ..requests import IssueCommentListResponse and context (class names, function names, or code) available: # Path: flask_github/client/messages.py # class IssueComment(msgs.Message): # body = msgs.StringField(1) # # Path: flask_github/client/requests.py # class IssueCommentResponse(msgs.Message): # response = msgs.MessageField('IssueComment', 1) # # Path: flask_github/client/requests.py # class IssueCommentListResponse(msgs.Message): # response = msgs.MessageField('IssueComment', 1, repeated=True) . Output only the next line.
self.client.user(user), repo, id), msg_type=IssueCommentResponse)
Using the snippet: <|code_start|>from __future__ import unicode_literals class IssuesComments: def __init__(self, client): self.client = client def list(self, repo, id, user=None): return self.client.get('repos/%s/%s/issues/%s/comments' % ( <|code_end|> , determine the next line of code. You have imports: from ..messages import IssueComment from ..requests import IssueCommentResponse from ..requests import IssueCommentListResponse and context (class names, function names, or code) available: # Path: flask_github/client/messages.py # class IssueComment(msgs.Message): # body = msgs.StringField(1) # # Path: flask_github/client/requests.py # class IssueCommentResponse(msgs.Message): # response = msgs.MessageField('IssueComment', 1) # # Path: flask_github/client/requests.py # class IssueCommentListResponse(msgs.Message): # response = msgs.MessageField('IssueComment', 1, repeated=True) . Output only the next line.
self.client.user(user), repo, id), msg_type=IssueCommentListResponse)
Predict the next line for this snippet: <|code_start|>from __future__ import unicode_literals class ReposWatching: def __init__(self, client): self.client = client def list_watchers(self, repo, user=None, page=1): return self.client.get( 'repos/%s/%s/subscribers' % ( <|code_end|> with the help of current file imports: from ..requests import UserListResponse from ..requests import RepoListResponse and context from other files: # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) , which may contain function names, class names, or code. Output only the next line.
self.client.user(user), repo), msg_type=UserListResponse)
Using the snippet: <|code_start|>from __future__ import unicode_literals class ReposWatching: def __init__(self, client): self.client = client def list_watchers(self, repo, user=None, page=1): return self.client.get( 'repos/%s/%s/subscribers' % ( self.client.user(user), repo), msg_type=UserListResponse) def list_watched_repos(self, user=None, page=1): url = 'user/subscriptions' if user is not None and user != self.client._username: url = 'users/%s/subscriptions' % user <|code_end|> , determine the next line of code. You have imports: from ..requests import UserListResponse from ..requests import RepoListResponse and context (class names, function names, or code) available: # Path: flask_github/client/requests.py # class UserListResponse(msgs.Message): # response = msgs.MessageField('User', 1, repeated=True) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) . Output only the next line.
return self.client.get(url, msg_type=RepoListResponse)
Predict the next line for this snippet: <|code_start|>from __future__ import unicode_literals class ReposForks: def __init__(self, client): self.client = client def list(self, repo, sort=None, user=None): query = None if sort: query = {'sort': sort} return self.client.get('repos/%s/%s/forks' % ( self.client.user(user), repo), query=query, msg_type=RepoListResponse) def create(self, repo, org=None, user=None): query = None if org: query = {'org': org} return self.client.post('repos/%s/%s/forks' % ( <|code_end|> with the help of current file imports: from ..requests import RepoResponse from ..requests import RepoListResponse and context from other files: # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) , which may contain function names, class names, or code. Output only the next line.
self.client.user(user), repo), query=query, msg_type=RepoResponse)
Predict the next line for this snippet: <|code_start|>from __future__ import unicode_literals class ReposForks: def __init__(self, client): self.client = client def list(self, repo, sort=None, user=None): query = None if sort: query = {'sort': sort} return self.client.get('repos/%s/%s/forks' % ( <|code_end|> with the help of current file imports: from ..requests import RepoResponse from ..requests import RepoListResponse and context from other files: # Path: flask_github/client/requests.py # class RepoResponse(msgs.Message): # response = msgs.MessageField('Repo', 1) # # Path: flask_github/client/requests.py # class RepoListResponse(msgs.Message): # response = msgs.MessageField('Repo', 1, repeated=True) , which may contain function names, class names, or code. Output only the next line.
self.client.user(user), repo), query=query, msg_type=RepoListResponse)
Given snippet: <|code_start|>from __future__ import unicode_literals class GistsComments: def __init__(self, client): self.client = client def list(self, id): return self.client.get( 'gists/%s/comments' % id, msg_type=GistCommentListResponse) def get(self, id): return self.client.get( <|code_end|> , continue by predicting the next line. Consider current file imports: from ..messages import GistComment from ..requests import GistCommentResponse from ..requests import GistCommentListResponse and context: # Path: flask_github/client/messages.py # class GistComment(msgs.Message): # pass # # Path: flask_github/client/requests.py # class GistCommentResponse(msgs.Message): # response = msgs.MessageField('GistComment', 1) # # Path: flask_github/client/requests.py # class GistCommentListResponse(msgs.Message): # response = msgs.MessageField('GistComment', 1, repeated=True) which might include code, classes, or functions. Output only the next line.
'gists/comments/%s' % id, msg_type=GistCommentResponse)
Using the snippet: <|code_start|>from __future__ import unicode_literals class GistsComments: def __init__(self, client): self.client = client def list(self, id): return self.client.get( <|code_end|> , determine the next line of code. You have imports: from ..messages import GistComment from ..requests import GistCommentResponse from ..requests import GistCommentListResponse and context (class names, function names, or code) available: # Path: flask_github/client/messages.py # class GistComment(msgs.Message): # pass # # Path: flask_github/client/requests.py # class GistCommentResponse(msgs.Message): # response = msgs.MessageField('GistComment', 1) # # Path: flask_github/client/requests.py # class GistCommentListResponse(msgs.Message): # response = msgs.MessageField('GistComment', 1, repeated=True) . Output only the next line.
'gists/%s/comments' % id, msg_type=GistCommentListResponse)
Given the following code snippet before the placeholder: <|code_start|>from __future__ import unicode_literals class PullRequests: def __init__(self, client): self.client = client self.reviewcomments = PullReviewComments(self.client) def list(self, repo, state=None, user=None): query = None if state: query = {'state': state} return self.client.get('repos/%s/%s/pulls' % (self.client.user(user), repo), query=query, msg_type=PullRequestListResponse) def get(self, repo, id, user=None): return self.client.get( 'repos/%s/%s/pulls/%s' % ( self.client.user(user), repo, id), msg_type=PullRequestResponse) def create(self, repo, title, base, head, body=None, user=None): <|code_end|> , predict the next line using imports from the current file: from pullreqsreviewcomments import PullReviewComments from ..messages import PullRequest from ..messages import CommitMessage from ..requests import PullRequestResponse from ..requests import PullRequestListResponse and context including class names, function names, and sometimes code from other files: # Path: flask_github/client/messages.py # class PullRequest(msgs.Message): # title = msgs.StringField(1) # base = msgs.StringField(2) # head = msgs.StringField(3) # body = msgs.StringField(4) # issue = msgs.StringField(5) # # Path: flask_github/client/messages.py # class CommitMessage(msgs.Message): # commit_message = msgs.StringField(1) # # Path: flask_github/client/requests.py # class PullRequestResponse(msgs.Message): # response = msgs.MessageField('PullRequest', 1) # # Path: flask_github/client/requests.py # class PullRequestListResponse(msgs.Message): # response = msgs.MessageField('PullRequest', 1, repeated=True) . Output only the next line.
msg = PullRequest(
Given the following code snippet before the placeholder: <|code_start|> return self.client.post( 'repos/%s/%s/pulls' % (self.client.user(user), repo), data=msg, msg_type=PullRequestResponse) def create_from_issue(self, repo, issue, base, head, user=None): msg = PullRequest( issue=issue, base=base, head=head) return self.client.post( 'repos/%s/%s/pulls' % ( self.client.user(user), repo), data=msg, msg_type=PullRequestResponse) def list_commits(self, repo, id, user=None): return self.client.get( 'repos/%s/%s/pulls/%s/commits' % ( self.client.user(user), repo, id), msg_type=None) def list_files(self, repo, id, user=None): return self.client.get( 'repos/%s/%s/pulls/%s/files' % ( self.client.user(user), repo, id), msg_type=None) def get_if_merged(self, repo, id, user=None): return self.client.get( 'repos/%s/%s/pulls/%s/merge' % ( self.client.user(user), repo, id), msg_type=None) def merge(self, repo, id, commit_message=None, user=None): if commit_message: <|code_end|> , predict the next line using imports from the current file: from pullreqsreviewcomments import PullReviewComments from ..messages import PullRequest from ..messages import CommitMessage from ..requests import PullRequestResponse from ..requests import PullRequestListResponse and context including class names, function names, and sometimes code from other files: # Path: flask_github/client/messages.py # class PullRequest(msgs.Message): # title = msgs.StringField(1) # base = msgs.StringField(2) # head = msgs.StringField(3) # body = msgs.StringField(4) # issue = msgs.StringField(5) # # Path: flask_github/client/messages.py # class CommitMessage(msgs.Message): # commit_message = msgs.StringField(1) # # Path: flask_github/client/requests.py # class PullRequestResponse(msgs.Message): # response = msgs.MessageField('PullRequest', 1) # # Path: flask_github/client/requests.py # class PullRequestListResponse(msgs.Message): # response = msgs.MessageField('PullRequest', 1, repeated=True) . Output only the next line.
msg = CommitMessage(
Continue the code snippet: <|code_start|>from __future__ import unicode_literals class PullRequests: def __init__(self, client): self.client = client self.reviewcomments = PullReviewComments(self.client) def list(self, repo, state=None, user=None): query = None if state: query = {'state': state} return self.client.get('repos/%s/%s/pulls' % (self.client.user(user), repo), query=query, msg_type=PullRequestListResponse) def get(self, repo, id, user=None): return self.client.get( 'repos/%s/%s/pulls/%s' % ( <|code_end|> . Use current file imports: from pullreqsreviewcomments import PullReviewComments from ..messages import PullRequest from ..messages import CommitMessage from ..requests import PullRequestResponse from ..requests import PullRequestListResponse and context (classes, functions, or code) from other files: # Path: flask_github/client/messages.py # class PullRequest(msgs.Message): # title = msgs.StringField(1) # base = msgs.StringField(2) # head = msgs.StringField(3) # body = msgs.StringField(4) # issue = msgs.StringField(5) # # Path: flask_github/client/messages.py # class CommitMessage(msgs.Message): # commit_message = msgs.StringField(1) # # Path: flask_github/client/requests.py # class PullRequestResponse(msgs.Message): # response = msgs.MessageField('PullRequest', 1) # # Path: flask_github/client/requests.py # class PullRequestListResponse(msgs.Message): # response = msgs.MessageField('PullRequest', 1, repeated=True) . Output only the next line.
self.client.user(user), repo, id), msg_type=PullRequestResponse)
Given snippet: <|code_start|>from __future__ import unicode_literals class PullRequests: def __init__(self, client): self.client = client self.reviewcomments = PullReviewComments(self.client) def list(self, repo, state=None, user=None): query = None if state: query = {'state': state} return self.client.get('repos/%s/%s/pulls' % (self.client.user(user), <|code_end|> , continue by predicting the next line. Consider current file imports: from pullreqsreviewcomments import PullReviewComments from ..messages import PullRequest from ..messages import CommitMessage from ..requests import PullRequestResponse from ..requests import PullRequestListResponse and context: # Path: flask_github/client/messages.py # class PullRequest(msgs.Message): # title = msgs.StringField(1) # base = msgs.StringField(2) # head = msgs.StringField(3) # body = msgs.StringField(4) # issue = msgs.StringField(5) # # Path: flask_github/client/messages.py # class CommitMessage(msgs.Message): # commit_message = msgs.StringField(1) # # Path: flask_github/client/requests.py # class PullRequestResponse(msgs.Message): # response = msgs.MessageField('PullRequest', 1) # # Path: flask_github/client/requests.py # class PullRequestListResponse(msgs.Message): # response = msgs.MessageField('PullRequest', 1, repeated=True) which might include code, classes, or functions. Output only the next line.
repo), query=query, msg_type=PullRequestListResponse)
Given the following code snippet before the placeholder: <|code_start|>from __future__ import unicode_literals class IssuesMilestones: def __init__(self, client): self.client = client def list(self, repo, state=None, sort=None, direction=None, user=None): query = { 'state': state, 'sort': sort, 'direction': direction} return self.client.get('repos/%s/%s/milestones' % ( self.client.user(user), repo), query=query, msg_type=IssueMilestoneListResponse) def get(self, repo, number, user=None): return self.client.get('repos/%s/%s/milestones/%s' % ( repo, user, number), msg_type=IssueMilestoneResponse) def create(self, repo, title, state=None, description=None, due_on=None, user=None): <|code_end|> , predict the next line using imports from the current file: from ..messages import IssueMilestone from ..requests import IssueMilestoneResponse from ..requests import IssueMilestoneListResponse and context including class names, function names, and sometimes code from other files: # Path: flask_github/client/messages.py # class IssueMilestone(msgs.Message): # title = msgs.StringField(1) # state = msgs.StringField(2) # description = msgs.StringField(3) # due_on = msgs.StringField(4) # # Path: flask_github/client/requests.py # class IssueMilestoneResponse(msgs.Message): # response = msgs.MessageField('IssueMilestone', 1) # # Path: flask_github/client/requests.py # class IssueMilestoneListResponse(msgs.Message): # response = msgs.MessageField('IssueMilestone', 1, repeated=True) . Output only the next line.
msg = IssueMilestone(
Predict the next line for this snippet: <|code_start|>from __future__ import unicode_literals class IssuesMilestones: def __init__(self, client): self.client = client def list(self, repo, state=None, sort=None, direction=None, user=None): query = { 'state': state, 'sort': sort, 'direction': direction} return self.client.get('repos/%s/%s/milestones' % ( self.client.user(user), repo), query=query, msg_type=IssueMilestoneListResponse) def get(self, repo, number, user=None): return self.client.get('repos/%s/%s/milestones/%s' % ( <|code_end|> with the help of current file imports: from ..messages import IssueMilestone from ..requests import IssueMilestoneResponse from ..requests import IssueMilestoneListResponse and context from other files: # Path: flask_github/client/messages.py # class IssueMilestone(msgs.Message): # title = msgs.StringField(1) # state = msgs.StringField(2) # description = msgs.StringField(3) # due_on = msgs.StringField(4) # # Path: flask_github/client/requests.py # class IssueMilestoneResponse(msgs.Message): # response = msgs.MessageField('IssueMilestone', 1) # # Path: flask_github/client/requests.py # class IssueMilestoneListResponse(msgs.Message): # response = msgs.MessageField('IssueMilestone', 1, repeated=True) , which may contain function names, class names, or code. Output only the next line.
repo, user, number), msg_type=IssueMilestoneResponse)
Using the snippet: <|code_start|>from __future__ import unicode_literals class IssuesMilestones: def __init__(self, client): self.client = client def list(self, repo, state=None, sort=None, direction=None, user=None): query = { 'state': state, 'sort': sort, 'direction': direction} return self.client.get('repos/%s/%s/milestones' % ( self.client.user(user), repo), query=query, <|code_end|> , determine the next line of code. You have imports: from ..messages import IssueMilestone from ..requests import IssueMilestoneResponse from ..requests import IssueMilestoneListResponse and context (class names, function names, or code) available: # Path: flask_github/client/messages.py # class IssueMilestone(msgs.Message): # title = msgs.StringField(1) # state = msgs.StringField(2) # description = msgs.StringField(3) # due_on = msgs.StringField(4) # # Path: flask_github/client/requests.py # class IssueMilestoneResponse(msgs.Message): # response = msgs.MessageField('IssueMilestone', 1) # # Path: flask_github/client/requests.py # class IssueMilestoneListResponse(msgs.Message): # response = msgs.MessageField('IssueMilestone', 1, repeated=True) . Output only the next line.
msg_type=IssueMilestoneListResponse)
Predict the next line after this snippet: <|code_start|>""" Kernel which places a prior over periodic functions. """ # future imports from __future__ import division from __future__ import absolute_import from __future__ import print_function # global imports # local imports # exported symbols __all__ = ['Periodic'] @printable <|code_end|> using the current file's imports: import numpy as np from ._real import RealKernel from ._distances import diff, sqdist from ..utils.models import printable and any relevant context from other files: # Path: pygp/kernels/_real.py # class RealKernel(Kernel): # """Kernel whose inputs are real-valued vectors.""" # # def __add__(self, other): # return SumKernel(*combine(SumKernel, self, other)) # # def __mul__(self, other): # return ProductKernel(*combine(ProductKernel, self, other)) # # def transform(self, X): # return np.array(X, ndmin=2, dtype=float, copy=False) # # @abstractmethod # def gradx(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its first argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def grady(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its second argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def gradxy(self, X1, X2=None): # """ # Derivatives of the kernel with respect to both its first and second # arguments. Returns an (m,n,d,d)-array. The (a,b,i,j)th element # corresponds to the derivative with respect to `X1[a,i]` and `X2[b,j]`. # """ # raise NotImplementedError # # @abstractmethod # def sample_spectrum(self, N, rng=None): # """ # Sample N values from the spectral density of the kernel, returning a # set of weights W of size (n,d) and a scalar value representing the # normalizing constant. # """ # raise NotImplementedError # # Path: pygp/kernels/_distances.py # def diff(X1, X2=None): # """ # Return the differences between vectors in `X1` and `X2`. If `X2` is not # given this will return the pairwise differences in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return X1[:, None, :] - X2[None, :, :] # # def sqdist(X1, X2=None): # """ # Return the squared-distance between two sets of vector. If `X2` is not # given this will return the pairwise squared-distances in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return ssd.cdist(X1, X2, 'sqeuclidean') # # Path: pygp/utils/models.py # def printable(cls): # """ # Decorator which marks classes as being able to be pretty-printed as a # function of their hyperparameters. This decorator defines a __repr__ method # for the given class which uses the class's `get_hyper` and `_params` # methods to print it. # """ # def _repr(obj): # """Represent the object as a function of its hyperparameters.""" # hyper = obj.get_hyper() # substrings = [] # for key, block, log in get_params(obj): # val = hyper[block] # val = val[0] if (len(val) == 1) else val # val = np.exp(val) if log else val # substrings += ['%s=%s' % (key, val)] # return obj.__class__.__name__ + '(' + ', '.join(substrings) + ')' # cls.__repr__ = _repr # return cls . Output only the next line.
class Periodic(RealKernel):
Using the snippet: <|code_start|> def grad(self, X1, X2=None): sf2 = np.exp(self._logsf*2) ell = np.exp(self._logell) p = np.exp(self._logp) # get the distance and a few transformations D = np.sqrt(sqdist(X1, X2)) * np.pi / p R = np.sin(D) / ell S = R**2 E = 2 * sf2 * np.exp(-2*S) yield E yield 2*E*S yield 2*E*R*D * np.cos(D) / ell def dget(self, X1): return np.exp(self._logsf*2) * np.ones(len(X1)) def dgrad(self, X): yield 2 * self.dget(X) yield np.zeros(len(X)) yield np.zeros(len(X)) def gradx(self, X1, X2=None): sf2 = np.exp(self._logsf*2) ell = np.exp(self._logell) p = np.exp(self._logp) # get the distance and a few transformations <|code_end|> , determine the next line of code. You have imports: import numpy as np from ._real import RealKernel from ._distances import diff, sqdist from ..utils.models import printable and context (class names, function names, or code) available: # Path: pygp/kernels/_real.py # class RealKernel(Kernel): # """Kernel whose inputs are real-valued vectors.""" # # def __add__(self, other): # return SumKernel(*combine(SumKernel, self, other)) # # def __mul__(self, other): # return ProductKernel(*combine(ProductKernel, self, other)) # # def transform(self, X): # return np.array(X, ndmin=2, dtype=float, copy=False) # # @abstractmethod # def gradx(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its first argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def grady(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its second argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def gradxy(self, X1, X2=None): # """ # Derivatives of the kernel with respect to both its first and second # arguments. Returns an (m,n,d,d)-array. The (a,b,i,j)th element # corresponds to the derivative with respect to `X1[a,i]` and `X2[b,j]`. # """ # raise NotImplementedError # # @abstractmethod # def sample_spectrum(self, N, rng=None): # """ # Sample N values from the spectral density of the kernel, returning a # set of weights W of size (n,d) and a scalar value representing the # normalizing constant. # """ # raise NotImplementedError # # Path: pygp/kernels/_distances.py # def diff(X1, X2=None): # """ # Return the differences between vectors in `X1` and `X2`. If `X2` is not # given this will return the pairwise differences in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return X1[:, None, :] - X2[None, :, :] # # def sqdist(X1, X2=None): # """ # Return the squared-distance between two sets of vector. If `X2` is not # given this will return the pairwise squared-distances in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return ssd.cdist(X1, X2, 'sqeuclidean') # # Path: pygp/utils/models.py # def printable(cls): # """ # Decorator which marks classes as being able to be pretty-printed as a # function of their hyperparameters. This decorator defines a __repr__ method # for the given class which uses the class's `get_hyper` and `_params` # methods to print it. # """ # def _repr(obj): # """Represent the object as a function of its hyperparameters.""" # hyper = obj.get_hyper() # substrings = [] # for key, block, log in get_params(obj): # val = hyper[block] # val = val[0] if (len(val) == 1) else val # val = np.exp(val) if log else val # substrings += ['%s=%s' % (key, val)] # return obj.__class__.__name__ + '(' + ', '.join(substrings) + ')' # cls.__repr__ = _repr # return cls . Output only the next line.
D = diff(X1, X2) * np.pi / p
Using the snippet: <|code_start|> given by:: k(x, y) = sf^2 exp(-2 sin^2( ||x-y|| pi / p ) / ell^2) """ def __init__(self, sf, ell, p): self._logsf = np.log(float(sf)) self._logell = np.log(float(ell)) self._logp = np.log(float(p)) self.ndim = 1 self.nhyper = 3 def _params(self): return [ ('sf', 1, True), ('ell', 1, True), ('p', 1, True), ] def get_hyper(self): return np.r_[self._logsf, self._logell, self._logp] def set_hyper(self, hyper): self._logsf = hyper[0] self._logell = hyper[1] self._logp = hyper[2] def get(self, X1, X2=None): sf2 = np.exp(self._logsf*2) ell = np.exp(self._logell) p = np.exp(self._logp) <|code_end|> , determine the next line of code. You have imports: import numpy as np from ._real import RealKernel from ._distances import diff, sqdist from ..utils.models import printable and context (class names, function names, or code) available: # Path: pygp/kernels/_real.py # class RealKernel(Kernel): # """Kernel whose inputs are real-valued vectors.""" # # def __add__(self, other): # return SumKernel(*combine(SumKernel, self, other)) # # def __mul__(self, other): # return ProductKernel(*combine(ProductKernel, self, other)) # # def transform(self, X): # return np.array(X, ndmin=2, dtype=float, copy=False) # # @abstractmethod # def gradx(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its first argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def grady(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its second argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def gradxy(self, X1, X2=None): # """ # Derivatives of the kernel with respect to both its first and second # arguments. Returns an (m,n,d,d)-array. The (a,b,i,j)th element # corresponds to the derivative with respect to `X1[a,i]` and `X2[b,j]`. # """ # raise NotImplementedError # # @abstractmethod # def sample_spectrum(self, N, rng=None): # """ # Sample N values from the spectral density of the kernel, returning a # set of weights W of size (n,d) and a scalar value representing the # normalizing constant. # """ # raise NotImplementedError # # Path: pygp/kernels/_distances.py # def diff(X1, X2=None): # """ # Return the differences between vectors in `X1` and `X2`. If `X2` is not # given this will return the pairwise differences in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return X1[:, None, :] - X2[None, :, :] # # def sqdist(X1, X2=None): # """ # Return the squared-distance between two sets of vector. If `X2` is not # given this will return the pairwise squared-distances in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return ssd.cdist(X1, X2, 'sqeuclidean') # # Path: pygp/utils/models.py # def printable(cls): # """ # Decorator which marks classes as being able to be pretty-printed as a # function of their hyperparameters. This decorator defines a __repr__ method # for the given class which uses the class's `get_hyper` and `_params` # methods to print it. # """ # def _repr(obj): # """Represent the object as a function of its hyperparameters.""" # hyper = obj.get_hyper() # substrings = [] # for key, block, log in get_params(obj): # val = hyper[block] # val = val[0] if (len(val) == 1) else val # val = np.exp(val) if log else val # substrings += ['%s=%s' % (key, val)] # return obj.__class__.__name__ + '(' + ', '.join(substrings) + ')' # cls.__repr__ = _repr # return cls . Output only the next line.
D = np.sqrt(sqdist(X1, X2)) * np.pi / p
Based on the snippet: <|code_start|>""" Kernel which places a prior over periodic functions. """ # future imports from __future__ import division from __future__ import absolute_import from __future__ import print_function # global imports # local imports # exported symbols __all__ = ['Periodic'] <|code_end|> , predict the immediate next line with the help of imports: import numpy as np from ._real import RealKernel from ._distances import diff, sqdist from ..utils.models import printable and context (classes, functions, sometimes code) from other files: # Path: pygp/kernels/_real.py # class RealKernel(Kernel): # """Kernel whose inputs are real-valued vectors.""" # # def __add__(self, other): # return SumKernel(*combine(SumKernel, self, other)) # # def __mul__(self, other): # return ProductKernel(*combine(ProductKernel, self, other)) # # def transform(self, X): # return np.array(X, ndmin=2, dtype=float, copy=False) # # @abstractmethod # def gradx(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its first argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def grady(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its second argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def gradxy(self, X1, X2=None): # """ # Derivatives of the kernel with respect to both its first and second # arguments. Returns an (m,n,d,d)-array. The (a,b,i,j)th element # corresponds to the derivative with respect to `X1[a,i]` and `X2[b,j]`. # """ # raise NotImplementedError # # @abstractmethod # def sample_spectrum(self, N, rng=None): # """ # Sample N values from the spectral density of the kernel, returning a # set of weights W of size (n,d) and a scalar value representing the # normalizing constant. # """ # raise NotImplementedError # # Path: pygp/kernels/_distances.py # def diff(X1, X2=None): # """ # Return the differences between vectors in `X1` and `X2`. If `X2` is not # given this will return the pairwise differences in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return X1[:, None, :] - X2[None, :, :] # # def sqdist(X1, X2=None): # """ # Return the squared-distance between two sets of vector. If `X2` is not # given this will return the pairwise squared-distances in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return ssd.cdist(X1, X2, 'sqeuclidean') # # Path: pygp/utils/models.py # def printable(cls): # """ # Decorator which marks classes as being able to be pretty-printed as a # function of their hyperparameters. This decorator defines a __repr__ method # for the given class which uses the class's `get_hyper` and `_params` # methods to print it. # """ # def _repr(obj): # """Represent the object as a function of its hyperparameters.""" # hyper = obj.get_hyper() # substrings = [] # for key, block, log in get_params(obj): # val = hyper[block] # val = val[0] if (len(val) == 1) else val # val = np.exp(val) if log else val # substrings += ['%s=%s' % (key, val)] # return obj.__class__.__name__ + '(' + ', '.join(substrings) + ')' # cls.__repr__ = _repr # return cls . Output only the next line.
@printable
Given snippet: <|code_start|>""" Base class for real-valued kernels. """ # future imports from __future__ import division from __future__ import absolute_import from __future__ import print_function # global imports # local imports # import the generic sum/product kernels and change their names. We'll call the # real-valued versions SumKernel and ProductKernel as well since they really # shouldn't be used outside of this module anyway. # exported symbols __all__ = ['RealKernel'] <|code_end|> , continue by predicting the next line. Consider current file imports: import numpy as np from abc import abstractmethod from ._base import Kernel from ._combo import SumKernel as SumKernel_ from ._combo import ProductKernel as ProductKernel_ from ._combo import combine from ._combo import product_but and context: # Path: pygp/kernels/_base.py # class Kernel(Parameterized): # """ # The base Kernel interface. # """ # def __call__(self, x1, x2): # return self.get(x1[None], x2[None])[0] # # @abstractmethod # def get(self, X1, X2=None): # """ # Evaluate the kernel. # # Returns the matrix of covariances between points in `X1` and `X2`. If # `X2` is not given this will return the pairwise covariances between # points in `X1`. # """ # raise NotImplementedError # # @abstractmethod # def dget(self, X): # """Evaluate the self covariances.""" # raise NotImplementedError # # @abstractmethod # def grad(self, X1, X2=None): # """ # Evaluate the gradient of the kernel. # # Returns an iterator over the gradients of the covariances between # points in `X1` and `X2`. If `X2` is not given this will iterate over # the the gradients of the pairwise covariances. # """ # raise NotImplementedError # # @abstractmethod # def dgrad(self, X): # """Evaluate the gradients of the self covariances.""" # raise NotImplementedError # # @abstractmethod # def transform(self, X): # """Format the inputs X as arrays.""" # raise NotImplementedError # # Path: pygp/kernels/_combo.py # class SumKernel(ComboKernel): # """Kernel representing a sum of other kernels.""" # # def get(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # return sum(fiterable) # # def dget(self, X): # fiterable = (p.dget(X) for p in self._parts) # return sum(fiterable) # # def grad(self, X1, X2=None): # giterable = (p.grad(X1, X2) for p in self._parts) # return it.chain.from_iterable(giterable) # # def dgrad(self, X): # giterable = (p.dgrad(X) for p in self._parts) # return it.chain.from_iterable(giterable) # # Path: pygp/kernels/_combo.py # class ProductKernel(ComboKernel): # """Kernel representing a product of other kernels.""" # # def get(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # return product(fiterable) # # def dget(self, X): # fiterable = (p.dget(X) for p in self._parts) # return product(fiterable) # # def grad(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # giterable = (p.grad(X1, X2) for p in self._parts) # for Mi, grads in zip(product_but(fiterable), giterable): # for dM in grads: # yield Mi*dM # # def dgrad(self, X): # fiterable = (p.dget(X) for p in self._parts) # giterable = (p.dgrad(X) for p in self._parts) # for Mi, grads in zip(product_but(fiterable), giterable): # for dM in grads: # yield Mi*dM # # Path: pygp/kernels/_combo.py # def combine(cls, *parts): # """ # Given a list of kernels return another list of kernels where objects of # type cls have been "combined". This applies to ComboKernel objects which # represent associative operations. # """ # combined = [] # for part in parts: # combined += part._parts if isinstance(part, cls) else [part] # return combined # # Path: pygp/kernels/_combo.py # def product_but(fiterable): # """ # Given an iterator over function evaluations return an array such that # `M[i]` is the product of every evaluation except for the ith one. # """ # A = list(fiterable) # # # allocate memory for M and fill everything but the last element with # # the product of A[i+1:]. Note that we're using the cumprod in place. # M = np.empty_like(A) # np.cumprod(A[:0:-1], axis=0, out=M[:-1][::-1]) # # # use an explicit loop to iteratively set M[-1] equal to the product of # # A[:-1]. While doing this we can multiply M[i] by A[:i]. # M[-1] = A[0] # for i in xrange(1, len(A)-1): # M[i] *= M[-1] # M[-1] *= A[i] # # return M which might include code, classes, or functions. Output only the next line.
class RealKernel(Kernel):
Continue the code snippet: <|code_start|> @abstractmethod def gradxy(self, X1, X2=None): """ Derivatives of the kernel with respect to both its first and second arguments. Returns an (m,n,d,d)-array. The (a,b,i,j)th element corresponds to the derivative with respect to `X1[a,i]` and `X2[b,j]`. """ raise NotImplementedError @abstractmethod def sample_spectrum(self, N, rng=None): """ Sample N values from the spectral density of the kernel, returning a set of weights W of size (n,d) and a scalar value representing the normalizing constant. """ raise NotImplementedError def _can_combine(*parts): """ Return whether a set of real-valued kernels can be combined. Here this requires them to all be RealKernel objects and have the same number of input dimensions. """ return (all(isinstance(_, RealKernel) for _ in parts) and all(_.ndim == parts[0].ndim for _ in parts)) <|code_end|> . Use current file imports: import numpy as np from abc import abstractmethod from ._base import Kernel from ._combo import SumKernel as SumKernel_ from ._combo import ProductKernel as ProductKernel_ from ._combo import combine from ._combo import product_but and context (classes, functions, or code) from other files: # Path: pygp/kernels/_base.py # class Kernel(Parameterized): # """ # The base Kernel interface. # """ # def __call__(self, x1, x2): # return self.get(x1[None], x2[None])[0] # # @abstractmethod # def get(self, X1, X2=None): # """ # Evaluate the kernel. # # Returns the matrix of covariances between points in `X1` and `X2`. If # `X2` is not given this will return the pairwise covariances between # points in `X1`. # """ # raise NotImplementedError # # @abstractmethod # def dget(self, X): # """Evaluate the self covariances.""" # raise NotImplementedError # # @abstractmethod # def grad(self, X1, X2=None): # """ # Evaluate the gradient of the kernel. # # Returns an iterator over the gradients of the covariances between # points in `X1` and `X2`. If `X2` is not given this will iterate over # the the gradients of the pairwise covariances. # """ # raise NotImplementedError # # @abstractmethod # def dgrad(self, X): # """Evaluate the gradients of the self covariances.""" # raise NotImplementedError # # @abstractmethod # def transform(self, X): # """Format the inputs X as arrays.""" # raise NotImplementedError # # Path: pygp/kernels/_combo.py # class SumKernel(ComboKernel): # """Kernel representing a sum of other kernels.""" # # def get(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # return sum(fiterable) # # def dget(self, X): # fiterable = (p.dget(X) for p in self._parts) # return sum(fiterable) # # def grad(self, X1, X2=None): # giterable = (p.grad(X1, X2) for p in self._parts) # return it.chain.from_iterable(giterable) # # def dgrad(self, X): # giterable = (p.dgrad(X) for p in self._parts) # return it.chain.from_iterable(giterable) # # Path: pygp/kernels/_combo.py # class ProductKernel(ComboKernel): # """Kernel representing a product of other kernels.""" # # def get(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # return product(fiterable) # # def dget(self, X): # fiterable = (p.dget(X) for p in self._parts) # return product(fiterable) # # def grad(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # giterable = (p.grad(X1, X2) for p in self._parts) # for Mi, grads in zip(product_but(fiterable), giterable): # for dM in grads: # yield Mi*dM # # def dgrad(self, X): # fiterable = (p.dget(X) for p in self._parts) # giterable = (p.dgrad(X) for p in self._parts) # for Mi, grads in zip(product_but(fiterable), giterable): # for dM in grads: # yield Mi*dM # # Path: pygp/kernels/_combo.py # def combine(cls, *parts): # """ # Given a list of kernels return another list of kernels where objects of # type cls have been "combined". This applies to ComboKernel objects which # represent associative operations. # """ # combined = [] # for part in parts: # combined += part._parts if isinstance(part, cls) else [part] # return combined # # Path: pygp/kernels/_combo.py # def product_but(fiterable): # """ # Given an iterator over function evaluations return an array such that # `M[i]` is the product of every evaluation except for the ith one. # """ # A = list(fiterable) # # # allocate memory for M and fill everything but the last element with # # the product of A[i+1:]. Note that we're using the cumprod in place. # M = np.empty_like(A) # np.cumprod(A[:0:-1], axis=0, out=M[:-1][::-1]) # # # use an explicit loop to iteratively set M[-1] equal to the product of # # A[:-1]. While doing this we can multiply M[i] by A[:i]. # M[-1] = A[0] # for i in xrange(1, len(A)-1): # M[i] *= M[-1] # M[-1] *= A[i] # # return M . Output only the next line.
class SumKernel(RealKernel, SumKernel_):
Next line prediction: <|code_start|> requires them to all be RealKernel objects and have the same number of input dimensions. """ return (all(isinstance(_, RealKernel) for _ in parts) and all(_.ndim == parts[0].ndim for _ in parts)) class SumKernel(RealKernel, SumKernel_): """A sum of real-valued kernels.""" def __init__(self, *parts): if not _can_combine(*parts): raise ValueError('cannot add mismatched kernels') super(SumKernel, self).__init__(*parts) self.ndim = self._parts[0].ndim def gradx(self, X1, X2=None): return sum(p.gradx(X1, X2) for p in self._parts) def grady(self, X1, X2=None): return sum(p.grady(X1, X2) for p in self._parts) def gradxy(self, X1, X2=None): return sum(p.gradxy(X1, X2) for p in self._parts) def sample_spectrum(self, N, rng=None): raise NotImplementedError <|code_end|> . Use current file imports: (import numpy as np from abc import abstractmethod from ._base import Kernel from ._combo import SumKernel as SumKernel_ from ._combo import ProductKernel as ProductKernel_ from ._combo import combine from ._combo import product_but) and context including class names, function names, or small code snippets from other files: # Path: pygp/kernels/_base.py # class Kernel(Parameterized): # """ # The base Kernel interface. # """ # def __call__(self, x1, x2): # return self.get(x1[None], x2[None])[0] # # @abstractmethod # def get(self, X1, X2=None): # """ # Evaluate the kernel. # # Returns the matrix of covariances between points in `X1` and `X2`. If # `X2` is not given this will return the pairwise covariances between # points in `X1`. # """ # raise NotImplementedError # # @abstractmethod # def dget(self, X): # """Evaluate the self covariances.""" # raise NotImplementedError # # @abstractmethod # def grad(self, X1, X2=None): # """ # Evaluate the gradient of the kernel. # # Returns an iterator over the gradients of the covariances between # points in `X1` and `X2`. If `X2` is not given this will iterate over # the the gradients of the pairwise covariances. # """ # raise NotImplementedError # # @abstractmethod # def dgrad(self, X): # """Evaluate the gradients of the self covariances.""" # raise NotImplementedError # # @abstractmethod # def transform(self, X): # """Format the inputs X as arrays.""" # raise NotImplementedError # # Path: pygp/kernels/_combo.py # class SumKernel(ComboKernel): # """Kernel representing a sum of other kernels.""" # # def get(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # return sum(fiterable) # # def dget(self, X): # fiterable = (p.dget(X) for p in self._parts) # return sum(fiterable) # # def grad(self, X1, X2=None): # giterable = (p.grad(X1, X2) for p in self._parts) # return it.chain.from_iterable(giterable) # # def dgrad(self, X): # giterable = (p.dgrad(X) for p in self._parts) # return it.chain.from_iterable(giterable) # # Path: pygp/kernels/_combo.py # class ProductKernel(ComboKernel): # """Kernel representing a product of other kernels.""" # # def get(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # return product(fiterable) # # def dget(self, X): # fiterable = (p.dget(X) for p in self._parts) # return product(fiterable) # # def grad(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # giterable = (p.grad(X1, X2) for p in self._parts) # for Mi, grads in zip(product_but(fiterable), giterable): # for dM in grads: # yield Mi*dM # # def dgrad(self, X): # fiterable = (p.dget(X) for p in self._parts) # giterable = (p.dgrad(X) for p in self._parts) # for Mi, grads in zip(product_but(fiterable), giterable): # for dM in grads: # yield Mi*dM # # Path: pygp/kernels/_combo.py # def combine(cls, *parts): # """ # Given a list of kernels return another list of kernels where objects of # type cls have been "combined". This applies to ComboKernel objects which # represent associative operations. # """ # combined = [] # for part in parts: # combined += part._parts if isinstance(part, cls) else [part] # return combined # # Path: pygp/kernels/_combo.py # def product_but(fiterable): # """ # Given an iterator over function evaluations return an array such that # `M[i]` is the product of every evaluation except for the ith one. # """ # A = list(fiterable) # # # allocate memory for M and fill everything but the last element with # # the product of A[i+1:]. Note that we're using the cumprod in place. # M = np.empty_like(A) # np.cumprod(A[:0:-1], axis=0, out=M[:-1][::-1]) # # # use an explicit loop to iteratively set M[-1] equal to the product of # # A[:-1]. While doing this we can multiply M[i] by A[:i]. # M[-1] = A[0] # for i in xrange(1, len(A)-1): # M[i] *= M[-1] # M[-1] *= A[i] # # return M . Output only the next line.
class ProductKernel(RealKernel, ProductKernel_):
Based on the snippet: <|code_start|>""" Base class for real-valued kernels. """ # future imports from __future__ import division from __future__ import absolute_import from __future__ import print_function # global imports # local imports # import the generic sum/product kernels and change their names. We'll call the # real-valued versions SumKernel and ProductKernel as well since they really # shouldn't be used outside of this module anyway. # exported symbols __all__ = ['RealKernel'] class RealKernel(Kernel): """Kernel whose inputs are real-valued vectors.""" def __add__(self, other): <|code_end|> , predict the immediate next line with the help of imports: import numpy as np from abc import abstractmethod from ._base import Kernel from ._combo import SumKernel as SumKernel_ from ._combo import ProductKernel as ProductKernel_ from ._combo import combine from ._combo import product_but and context (classes, functions, sometimes code) from other files: # Path: pygp/kernels/_base.py # class Kernel(Parameterized): # """ # The base Kernel interface. # """ # def __call__(self, x1, x2): # return self.get(x1[None], x2[None])[0] # # @abstractmethod # def get(self, X1, X2=None): # """ # Evaluate the kernel. # # Returns the matrix of covariances between points in `X1` and `X2`. If # `X2` is not given this will return the pairwise covariances between # points in `X1`. # """ # raise NotImplementedError # # @abstractmethod # def dget(self, X): # """Evaluate the self covariances.""" # raise NotImplementedError # # @abstractmethod # def grad(self, X1, X2=None): # """ # Evaluate the gradient of the kernel. # # Returns an iterator over the gradients of the covariances between # points in `X1` and `X2`. If `X2` is not given this will iterate over # the the gradients of the pairwise covariances. # """ # raise NotImplementedError # # @abstractmethod # def dgrad(self, X): # """Evaluate the gradients of the self covariances.""" # raise NotImplementedError # # @abstractmethod # def transform(self, X): # """Format the inputs X as arrays.""" # raise NotImplementedError # # Path: pygp/kernels/_combo.py # class SumKernel(ComboKernel): # """Kernel representing a sum of other kernels.""" # # def get(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # return sum(fiterable) # # def dget(self, X): # fiterable = (p.dget(X) for p in self._parts) # return sum(fiterable) # # def grad(self, X1, X2=None): # giterable = (p.grad(X1, X2) for p in self._parts) # return it.chain.from_iterable(giterable) # # def dgrad(self, X): # giterable = (p.dgrad(X) for p in self._parts) # return it.chain.from_iterable(giterable) # # Path: pygp/kernels/_combo.py # class ProductKernel(ComboKernel): # """Kernel representing a product of other kernels.""" # # def get(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # return product(fiterable) # # def dget(self, X): # fiterable = (p.dget(X) for p in self._parts) # return product(fiterable) # # def grad(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # giterable = (p.grad(X1, X2) for p in self._parts) # for Mi, grads in zip(product_but(fiterable), giterable): # for dM in grads: # yield Mi*dM # # def dgrad(self, X): # fiterable = (p.dget(X) for p in self._parts) # giterable = (p.dgrad(X) for p in self._parts) # for Mi, grads in zip(product_but(fiterable), giterable): # for dM in grads: # yield Mi*dM # # Path: pygp/kernels/_combo.py # def combine(cls, *parts): # """ # Given a list of kernels return another list of kernels where objects of # type cls have been "combined". This applies to ComboKernel objects which # represent associative operations. # """ # combined = [] # for part in parts: # combined += part._parts if isinstance(part, cls) else [part] # return combined # # Path: pygp/kernels/_combo.py # def product_but(fiterable): # """ # Given an iterator over function evaluations return an array such that # `M[i]` is the product of every evaluation except for the ith one. # """ # A = list(fiterable) # # # allocate memory for M and fill everything but the last element with # # the product of A[i+1:]. Note that we're using the cumprod in place. # M = np.empty_like(A) # np.cumprod(A[:0:-1], axis=0, out=M[:-1][::-1]) # # # use an explicit loop to iteratively set M[-1] equal to the product of # # A[:-1]. While doing this we can multiply M[i] by A[:i]. # M[-1] = A[0] # for i in xrange(1, len(A)-1): # M[i] *= M[-1] # M[-1] *= A[i] # # return M . Output only the next line.
return SumKernel(*combine(SumKernel, self, other))
Predict the next line after this snippet: <|code_start|> super(SumKernel, self).__init__(*parts) self.ndim = self._parts[0].ndim def gradx(self, X1, X2=None): return sum(p.gradx(X1, X2) for p in self._parts) def grady(self, X1, X2=None): return sum(p.grady(X1, X2) for p in self._parts) def gradxy(self, X1, X2=None): return sum(p.gradxy(X1, X2) for p in self._parts) def sample_spectrum(self, N, rng=None): raise NotImplementedError class ProductKernel(RealKernel, ProductKernel_): """A product of real-valued kernels.""" def __init__(self, *parts): if not _can_combine(*parts): raise ValueError('cannot multiply mismatched kernels') super(ProductKernel, self).__init__(*parts) self.ndim = self._parts[0].ndim def gradx(self, X1, X2=None): fiterable = (p.get(X1, X2)[:, :, None] for p in self._parts) giterable = (p.gradx(X1, X2) for p in self._parts) <|code_end|> using the current file's imports: import numpy as np from abc import abstractmethod from ._base import Kernel from ._combo import SumKernel as SumKernel_ from ._combo import ProductKernel as ProductKernel_ from ._combo import combine from ._combo import product_but and any relevant context from other files: # Path: pygp/kernels/_base.py # class Kernel(Parameterized): # """ # The base Kernel interface. # """ # def __call__(self, x1, x2): # return self.get(x1[None], x2[None])[0] # # @abstractmethod # def get(self, X1, X2=None): # """ # Evaluate the kernel. # # Returns the matrix of covariances between points in `X1` and `X2`. If # `X2` is not given this will return the pairwise covariances between # points in `X1`. # """ # raise NotImplementedError # # @abstractmethod # def dget(self, X): # """Evaluate the self covariances.""" # raise NotImplementedError # # @abstractmethod # def grad(self, X1, X2=None): # """ # Evaluate the gradient of the kernel. # # Returns an iterator over the gradients of the covariances between # points in `X1` and `X2`. If `X2` is not given this will iterate over # the the gradients of the pairwise covariances. # """ # raise NotImplementedError # # @abstractmethod # def dgrad(self, X): # """Evaluate the gradients of the self covariances.""" # raise NotImplementedError # # @abstractmethod # def transform(self, X): # """Format the inputs X as arrays.""" # raise NotImplementedError # # Path: pygp/kernels/_combo.py # class SumKernel(ComboKernel): # """Kernel representing a sum of other kernels.""" # # def get(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # return sum(fiterable) # # def dget(self, X): # fiterable = (p.dget(X) for p in self._parts) # return sum(fiterable) # # def grad(self, X1, X2=None): # giterable = (p.grad(X1, X2) for p in self._parts) # return it.chain.from_iterable(giterable) # # def dgrad(self, X): # giterable = (p.dgrad(X) for p in self._parts) # return it.chain.from_iterable(giterable) # # Path: pygp/kernels/_combo.py # class ProductKernel(ComboKernel): # """Kernel representing a product of other kernels.""" # # def get(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # return product(fiterable) # # def dget(self, X): # fiterable = (p.dget(X) for p in self._parts) # return product(fiterable) # # def grad(self, X1, X2=None): # fiterable = (p.get(X1, X2) for p in self._parts) # giterable = (p.grad(X1, X2) for p in self._parts) # for Mi, grads in zip(product_but(fiterable), giterable): # for dM in grads: # yield Mi*dM # # def dgrad(self, X): # fiterable = (p.dget(X) for p in self._parts) # giterable = (p.dgrad(X) for p in self._parts) # for Mi, grads in zip(product_but(fiterable), giterable): # for dM in grads: # yield Mi*dM # # Path: pygp/kernels/_combo.py # def combine(cls, *parts): # """ # Given a list of kernels return another list of kernels where objects of # type cls have been "combined". This applies to ComboKernel objects which # represent associative operations. # """ # combined = [] # for part in parts: # combined += part._parts if isinstance(part, cls) else [part] # return combined # # Path: pygp/kernels/_combo.py # def product_but(fiterable): # """ # Given an iterator over function evaluations return an array such that # `M[i]` is the product of every evaluation except for the ith one. # """ # A = list(fiterable) # # # allocate memory for M and fill everything but the last element with # # the product of A[i+1:]. Note that we're using the cumprod in place. # M = np.empty_like(A) # np.cumprod(A[:0:-1], axis=0, out=M[:-1][::-1]) # # # use an explicit loop to iteratively set M[-1] equal to the product of # # A[:-1]. While doing this we can multiply M[i] by A[:i]. # M[-1] = A[0] # for i in xrange(1, len(A)-1): # M[i] *= M[-1] # M[-1] *= A[i] # # return M . Output only the next line.
return sum(f*g for f, g in zip(product_but(fiterable), giterable))
Given the following code snippet before the placeholder: <|code_start|>""" Kernel which places a prior over periodic functions. """ # future imports from __future__ import division from __future__ import absolute_import from __future__ import print_function # global imports # local imports # exported symbols __all__ = ['RQ'] @printable <|code_end|> , predict the next line using imports from the current file: import numpy as np from ._real import RealKernel from ..utils.models import printable from ._distances import rescale, diff, sqdist, sqdist_foreach and context including class names, function names, and sometimes code from other files: # Path: pygp/kernels/_real.py # class RealKernel(Kernel): # """Kernel whose inputs are real-valued vectors.""" # # def __add__(self, other): # return SumKernel(*combine(SumKernel, self, other)) # # def __mul__(self, other): # return ProductKernel(*combine(ProductKernel, self, other)) # # def transform(self, X): # return np.array(X, ndmin=2, dtype=float, copy=False) # # @abstractmethod # def gradx(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its first argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def grady(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its second argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def gradxy(self, X1, X2=None): # """ # Derivatives of the kernel with respect to both its first and second # arguments. Returns an (m,n,d,d)-array. The (a,b,i,j)th element # corresponds to the derivative with respect to `X1[a,i]` and `X2[b,j]`. # """ # raise NotImplementedError # # @abstractmethod # def sample_spectrum(self, N, rng=None): # """ # Sample N values from the spectral density of the kernel, returning a # set of weights W of size (n,d) and a scalar value representing the # normalizing constant. # """ # raise NotImplementedError # # Path: pygp/utils/models.py # def printable(cls): # """ # Decorator which marks classes as being able to be pretty-printed as a # function of their hyperparameters. This decorator defines a __repr__ method # for the given class which uses the class's `get_hyper` and `_params` # methods to print it. # """ # def _repr(obj): # """Represent the object as a function of its hyperparameters.""" # hyper = obj.get_hyper() # substrings = [] # for key, block, log in get_params(obj): # val = hyper[block] # val = val[0] if (len(val) == 1) else val # val = np.exp(val) if log else val # substrings += ['%s=%s' % (key, val)] # return obj.__class__.__name__ + '(' + ', '.join(substrings) + ')' # cls.__repr__ = _repr # return cls # # Path: pygp/kernels/_distances.py # def rescale(ell, X1, X2): # """ # Rescale the two sets of vectors by `ell`. # """ # X1 = X1 / ell # X2 = X2 / ell if (X2 is not None) else None # return X1, X2 # # def diff(X1, X2=None): # """ # Return the differences between vectors in `X1` and `X2`. If `X2` is not # given this will return the pairwise differences in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return X1[:, None, :] - X2[None, :, :] # # def sqdist(X1, X2=None): # """ # Return the squared-distance between two sets of vector. If `X2` is not # given this will return the pairwise squared-distances in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return ssd.cdist(X1, X2, 'sqeuclidean') # # def sqdist_foreach(X1, X2=None): # """ # Return an iterator over each dimension returning the squared-distance # between two sets of vector. If `X2` is not given this will iterate over the # pairwise squared-distances in `X1` in each dimension. # """ # X2 = X1 if (X2 is None) else X2 # for i in xrange(X1.shape[1]): # yield ssd.cdist(X1[:, i, None], X2[:, i, None], 'sqeuclidean') . Output only the next line.
class RQ(RealKernel):
Given the code snippet: <|code_start|>""" Kernel which places a prior over periodic functions. """ # future imports from __future__ import division from __future__ import absolute_import from __future__ import print_function # global imports # local imports # exported symbols __all__ = ['RQ'] <|code_end|> , generate the next line using the imports in this file: import numpy as np from ._real import RealKernel from ..utils.models import printable from ._distances import rescale, diff, sqdist, sqdist_foreach and context (functions, classes, or occasionally code) from other files: # Path: pygp/kernels/_real.py # class RealKernel(Kernel): # """Kernel whose inputs are real-valued vectors.""" # # def __add__(self, other): # return SumKernel(*combine(SumKernel, self, other)) # # def __mul__(self, other): # return ProductKernel(*combine(ProductKernel, self, other)) # # def transform(self, X): # return np.array(X, ndmin=2, dtype=float, copy=False) # # @abstractmethod # def gradx(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its first argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def grady(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its second argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def gradxy(self, X1, X2=None): # """ # Derivatives of the kernel with respect to both its first and second # arguments. Returns an (m,n,d,d)-array. The (a,b,i,j)th element # corresponds to the derivative with respect to `X1[a,i]` and `X2[b,j]`. # """ # raise NotImplementedError # # @abstractmethod # def sample_spectrum(self, N, rng=None): # """ # Sample N values from the spectral density of the kernel, returning a # set of weights W of size (n,d) and a scalar value representing the # normalizing constant. # """ # raise NotImplementedError # # Path: pygp/utils/models.py # def printable(cls): # """ # Decorator which marks classes as being able to be pretty-printed as a # function of their hyperparameters. This decorator defines a __repr__ method # for the given class which uses the class's `get_hyper` and `_params` # methods to print it. # """ # def _repr(obj): # """Represent the object as a function of its hyperparameters.""" # hyper = obj.get_hyper() # substrings = [] # for key, block, log in get_params(obj): # val = hyper[block] # val = val[0] if (len(val) == 1) else val # val = np.exp(val) if log else val # substrings += ['%s=%s' % (key, val)] # return obj.__class__.__name__ + '(' + ', '.join(substrings) + ')' # cls.__repr__ = _repr # return cls # # Path: pygp/kernels/_distances.py # def rescale(ell, X1, X2): # """ # Rescale the two sets of vectors by `ell`. # """ # X1 = X1 / ell # X2 = X2 / ell if (X2 is not None) else None # return X1, X2 # # def diff(X1, X2=None): # """ # Return the differences between vectors in `X1` and `X2`. If `X2` is not # given this will return the pairwise differences in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return X1[:, None, :] - X2[None, :, :] # # def sqdist(X1, X2=None): # """ # Return the squared-distance between two sets of vector. If `X2` is not # given this will return the pairwise squared-distances in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return ssd.cdist(X1, X2, 'sqeuclidean') # # def sqdist_foreach(X1, X2=None): # """ # Return an iterator over each dimension returning the squared-distance # between two sets of vector. If `X2` is not given this will iterate over the # pairwise squared-distances in `X1` in each dimension. # """ # X2 = X1 if (X2 is None) else X2 # for i in xrange(X1.shape[1]): # yield ssd.cdist(X1[:, i, None], X2[:, i, None], 'sqeuclidean') . Output only the next line.
@printable
Using the snippet: <|code_start|> self.nhyper = 2 + np.size(self._logell) if ndim is not None: if np.size(self._logell) == 1: self._logell = float(self._logell) self._iso = True self.ndim = ndim else: raise ValueError('ndim only usable with scalar lengthscales') def _params(self): return [ ('sf', 1, True), ('ell', self.nhyper-2, True), ('alpha', 1, True), ] def get_hyper(self): return np.r_[self._logsf, self._logell, self._logalpha] def set_hyper(self, hyper): self._logsf = hyper[0] self._logell = hyper[1] if self._iso else hyper[1:-1] self._logalpha = hyper[-1] def get(self, X1, X2=None): sf2 = np.exp(self._logsf*2) ell = np.exp(self._logell) alpha = np.exp(self._logalpha) <|code_end|> , determine the next line of code. You have imports: import numpy as np from ._real import RealKernel from ..utils.models import printable from ._distances import rescale, diff, sqdist, sqdist_foreach and context (class names, function names, or code) available: # Path: pygp/kernels/_real.py # class RealKernel(Kernel): # """Kernel whose inputs are real-valued vectors.""" # # def __add__(self, other): # return SumKernel(*combine(SumKernel, self, other)) # # def __mul__(self, other): # return ProductKernel(*combine(ProductKernel, self, other)) # # def transform(self, X): # return np.array(X, ndmin=2, dtype=float, copy=False) # # @abstractmethod # def gradx(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its first argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def grady(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its second argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def gradxy(self, X1, X2=None): # """ # Derivatives of the kernel with respect to both its first and second # arguments. Returns an (m,n,d,d)-array. The (a,b,i,j)th element # corresponds to the derivative with respect to `X1[a,i]` and `X2[b,j]`. # """ # raise NotImplementedError # # @abstractmethod # def sample_spectrum(self, N, rng=None): # """ # Sample N values from the spectral density of the kernel, returning a # set of weights W of size (n,d) and a scalar value representing the # normalizing constant. # """ # raise NotImplementedError # # Path: pygp/utils/models.py # def printable(cls): # """ # Decorator which marks classes as being able to be pretty-printed as a # function of their hyperparameters. This decorator defines a __repr__ method # for the given class which uses the class's `get_hyper` and `_params` # methods to print it. # """ # def _repr(obj): # """Represent the object as a function of its hyperparameters.""" # hyper = obj.get_hyper() # substrings = [] # for key, block, log in get_params(obj): # val = hyper[block] # val = val[0] if (len(val) == 1) else val # val = np.exp(val) if log else val # substrings += ['%s=%s' % (key, val)] # return obj.__class__.__name__ + '(' + ', '.join(substrings) + ')' # cls.__repr__ = _repr # return cls # # Path: pygp/kernels/_distances.py # def rescale(ell, X1, X2): # """ # Rescale the two sets of vectors by `ell`. # """ # X1 = X1 / ell # X2 = X2 / ell if (X2 is not None) else None # return X1, X2 # # def diff(X1, X2=None): # """ # Return the differences between vectors in `X1` and `X2`. If `X2` is not # given this will return the pairwise differences in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return X1[:, None, :] - X2[None, :, :] # # def sqdist(X1, X2=None): # """ # Return the squared-distance between two sets of vector. If `X2` is not # given this will return the pairwise squared-distances in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return ssd.cdist(X1, X2, 'sqeuclidean') # # def sqdist_foreach(X1, X2=None): # """ # Return an iterator over each dimension returning the squared-distance # between two sets of vector. If `X2` is not given this will iterate over the # pairwise squared-distances in `X1` in each dimension. # """ # X2 = X1 if (X2 is None) else X2 # for i in xrange(X1.shape[1]): # yield ssd.cdist(X1[:, i, None], X2[:, i, None], 'sqeuclidean') . Output only the next line.
X1, X2 = rescale(ell, X1, X2)
Predict the next line for this snippet: <|code_start|> D = sqdist(X1, X2) E = 1 + 0.5*D/alpha K = sf2 * E**(-alpha) M = K*D/E yield 2*K # derivative wrt logsf if self._iso: yield M # derivative wrt logell (iso) else: for D in sqdist_foreach(X1, X2): yield K*D/E # derivative wrt logell (ard) yield 0.5*M - alpha*K*np.log(E) # derivative wrt alpha def dget(self, X1): return np.exp(self._logsf*2) * np.ones(len(X1)) def dgrad(self, X): yield 2 * self.dget(X) for _ in xrange(self.nhyper-2): yield np.zeros(len(X)) yield np.zeros(len(X)) def gradx(self, X1, X2=None): # hypers sf2 = np.exp(self._logsf*2) ell = np.exp(self._logell) alpha = np.exp(self._logalpha) # precomputations X1, X2 = rescale(ell, X1, X2) <|code_end|> with the help of current file imports: import numpy as np from ._real import RealKernel from ..utils.models import printable from ._distances import rescale, diff, sqdist, sqdist_foreach and context from other files: # Path: pygp/kernels/_real.py # class RealKernel(Kernel): # """Kernel whose inputs are real-valued vectors.""" # # def __add__(self, other): # return SumKernel(*combine(SumKernel, self, other)) # # def __mul__(self, other): # return ProductKernel(*combine(ProductKernel, self, other)) # # def transform(self, X): # return np.array(X, ndmin=2, dtype=float, copy=False) # # @abstractmethod # def gradx(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its first argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def grady(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its second argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def gradxy(self, X1, X2=None): # """ # Derivatives of the kernel with respect to both its first and second # arguments. Returns an (m,n,d,d)-array. The (a,b,i,j)th element # corresponds to the derivative with respect to `X1[a,i]` and `X2[b,j]`. # """ # raise NotImplementedError # # @abstractmethod # def sample_spectrum(self, N, rng=None): # """ # Sample N values from the spectral density of the kernel, returning a # set of weights W of size (n,d) and a scalar value representing the # normalizing constant. # """ # raise NotImplementedError # # Path: pygp/utils/models.py # def printable(cls): # """ # Decorator which marks classes as being able to be pretty-printed as a # function of their hyperparameters. This decorator defines a __repr__ method # for the given class which uses the class's `get_hyper` and `_params` # methods to print it. # """ # def _repr(obj): # """Represent the object as a function of its hyperparameters.""" # hyper = obj.get_hyper() # substrings = [] # for key, block, log in get_params(obj): # val = hyper[block] # val = val[0] if (len(val) == 1) else val # val = np.exp(val) if log else val # substrings += ['%s=%s' % (key, val)] # return obj.__class__.__name__ + '(' + ', '.join(substrings) + ')' # cls.__repr__ = _repr # return cls # # Path: pygp/kernels/_distances.py # def rescale(ell, X1, X2): # """ # Rescale the two sets of vectors by `ell`. # """ # X1 = X1 / ell # X2 = X2 / ell if (X2 is not None) else None # return X1, X2 # # def diff(X1, X2=None): # """ # Return the differences between vectors in `X1` and `X2`. If `X2` is not # given this will return the pairwise differences in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return X1[:, None, :] - X2[None, :, :] # # def sqdist(X1, X2=None): # """ # Return the squared-distance between two sets of vector. If `X2` is not # given this will return the pairwise squared-distances in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return ssd.cdist(X1, X2, 'sqeuclidean') # # def sqdist_foreach(X1, X2=None): # """ # Return an iterator over each dimension returning the squared-distance # between two sets of vector. If `X2` is not given this will iterate over the # pairwise squared-distances in `X1` in each dimension. # """ # X2 = X1 if (X2 is None) else X2 # for i in xrange(X1.shape[1]): # yield ssd.cdist(X1[:, i, None], X2[:, i, None], 'sqeuclidean') , which may contain function names, class names, or code. Output only the next line.
D = diff(X1, X2)
Based on the snippet: <|code_start|> if ndim is not None: if np.size(self._logell) == 1: self._logell = float(self._logell) self._iso = True self.ndim = ndim else: raise ValueError('ndim only usable with scalar lengthscales') def _params(self): return [ ('sf', 1, True), ('ell', self.nhyper-2, True), ('alpha', 1, True), ] def get_hyper(self): return np.r_[self._logsf, self._logell, self._logalpha] def set_hyper(self, hyper): self._logsf = hyper[0] self._logell = hyper[1] if self._iso else hyper[1:-1] self._logalpha = hyper[-1] def get(self, X1, X2=None): sf2 = np.exp(self._logsf*2) ell = np.exp(self._logell) alpha = np.exp(self._logalpha) X1, X2 = rescale(ell, X1, X2) <|code_end|> , predict the immediate next line with the help of imports: import numpy as np from ._real import RealKernel from ..utils.models import printable from ._distances import rescale, diff, sqdist, sqdist_foreach and context (classes, functions, sometimes code) from other files: # Path: pygp/kernels/_real.py # class RealKernel(Kernel): # """Kernel whose inputs are real-valued vectors.""" # # def __add__(self, other): # return SumKernel(*combine(SumKernel, self, other)) # # def __mul__(self, other): # return ProductKernel(*combine(ProductKernel, self, other)) # # def transform(self, X): # return np.array(X, ndmin=2, dtype=float, copy=False) # # @abstractmethod # def gradx(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its first argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def grady(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its second argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def gradxy(self, X1, X2=None): # """ # Derivatives of the kernel with respect to both its first and second # arguments. Returns an (m,n,d,d)-array. The (a,b,i,j)th element # corresponds to the derivative with respect to `X1[a,i]` and `X2[b,j]`. # """ # raise NotImplementedError # # @abstractmethod # def sample_spectrum(self, N, rng=None): # """ # Sample N values from the spectral density of the kernel, returning a # set of weights W of size (n,d) and a scalar value representing the # normalizing constant. # """ # raise NotImplementedError # # Path: pygp/utils/models.py # def printable(cls): # """ # Decorator which marks classes as being able to be pretty-printed as a # function of their hyperparameters. This decorator defines a __repr__ method # for the given class which uses the class's `get_hyper` and `_params` # methods to print it. # """ # def _repr(obj): # """Represent the object as a function of its hyperparameters.""" # hyper = obj.get_hyper() # substrings = [] # for key, block, log in get_params(obj): # val = hyper[block] # val = val[0] if (len(val) == 1) else val # val = np.exp(val) if log else val # substrings += ['%s=%s' % (key, val)] # return obj.__class__.__name__ + '(' + ', '.join(substrings) + ')' # cls.__repr__ = _repr # return cls # # Path: pygp/kernels/_distances.py # def rescale(ell, X1, X2): # """ # Rescale the two sets of vectors by `ell`. # """ # X1 = X1 / ell # X2 = X2 / ell if (X2 is not None) else None # return X1, X2 # # def diff(X1, X2=None): # """ # Return the differences between vectors in `X1` and `X2`. If `X2` is not # given this will return the pairwise differences in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return X1[:, None, :] - X2[None, :, :] # # def sqdist(X1, X2=None): # """ # Return the squared-distance between two sets of vector. If `X2` is not # given this will return the pairwise squared-distances in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return ssd.cdist(X1, X2, 'sqeuclidean') # # def sqdist_foreach(X1, X2=None): # """ # Return an iterator over each dimension returning the squared-distance # between two sets of vector. If `X2` is not given this will iterate over the # pairwise squared-distances in `X1` in each dimension. # """ # X2 = X1 if (X2 is None) else X2 # for i in xrange(X1.shape[1]): # yield ssd.cdist(X1[:, i, None], X2[:, i, None], 'sqeuclidean') . Output only the next line.
K = sf2 * (1 + 0.5*sqdist(X1, X2)/alpha) ** (-alpha)
Here is a snippet: <|code_start|> self._logsf = hyper[0] self._logell = hyper[1] if self._iso else hyper[1:-1] self._logalpha = hyper[-1] def get(self, X1, X2=None): sf2 = np.exp(self._logsf*2) ell = np.exp(self._logell) alpha = np.exp(self._logalpha) X1, X2 = rescale(ell, X1, X2) K = sf2 * (1 + 0.5*sqdist(X1, X2)/alpha) ** (-alpha) return K def grad(self, X1, X2=None): # hypers sf2 = np.exp(self._logsf*2) ell = np.exp(self._logell) alpha = np.exp(self._logalpha) # precomputations X1, X2 = rescale(ell, X1, X2) D = sqdist(X1, X2) E = 1 + 0.5*D/alpha K = sf2 * E**(-alpha) M = K*D/E yield 2*K # derivative wrt logsf if self._iso: yield M # derivative wrt logell (iso) else: <|code_end|> . Write the next line using the current file imports: import numpy as np from ._real import RealKernel from ..utils.models import printable from ._distances import rescale, diff, sqdist, sqdist_foreach and context from other files: # Path: pygp/kernels/_real.py # class RealKernel(Kernel): # """Kernel whose inputs are real-valued vectors.""" # # def __add__(self, other): # return SumKernel(*combine(SumKernel, self, other)) # # def __mul__(self, other): # return ProductKernel(*combine(ProductKernel, self, other)) # # def transform(self, X): # return np.array(X, ndmin=2, dtype=float, copy=False) # # @abstractmethod # def gradx(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its first argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def grady(self, X1, X2=None): # """ # Derivatives of the kernel with respect to its second argument. Returns # an (m,n,d)-array. # """ # raise NotImplementedError # # @abstractmethod # def gradxy(self, X1, X2=None): # """ # Derivatives of the kernel with respect to both its first and second # arguments. Returns an (m,n,d,d)-array. The (a,b,i,j)th element # corresponds to the derivative with respect to `X1[a,i]` and `X2[b,j]`. # """ # raise NotImplementedError # # @abstractmethod # def sample_spectrum(self, N, rng=None): # """ # Sample N values from the spectral density of the kernel, returning a # set of weights W of size (n,d) and a scalar value representing the # normalizing constant. # """ # raise NotImplementedError # # Path: pygp/utils/models.py # def printable(cls): # """ # Decorator which marks classes as being able to be pretty-printed as a # function of their hyperparameters. This decorator defines a __repr__ method # for the given class which uses the class's `get_hyper` and `_params` # methods to print it. # """ # def _repr(obj): # """Represent the object as a function of its hyperparameters.""" # hyper = obj.get_hyper() # substrings = [] # for key, block, log in get_params(obj): # val = hyper[block] # val = val[0] if (len(val) == 1) else val # val = np.exp(val) if log else val # substrings += ['%s=%s' % (key, val)] # return obj.__class__.__name__ + '(' + ', '.join(substrings) + ')' # cls.__repr__ = _repr # return cls # # Path: pygp/kernels/_distances.py # def rescale(ell, X1, X2): # """ # Rescale the two sets of vectors by `ell`. # """ # X1 = X1 / ell # X2 = X2 / ell if (X2 is not None) else None # return X1, X2 # # def diff(X1, X2=None): # """ # Return the differences between vectors in `X1` and `X2`. If `X2` is not # given this will return the pairwise differences in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return X1[:, None, :] - X2[None, :, :] # # def sqdist(X1, X2=None): # """ # Return the squared-distance between two sets of vector. If `X2` is not # given this will return the pairwise squared-distances in `X1`. # """ # X2 = X1 if (X2 is None) else X2 # return ssd.cdist(X1, X2, 'sqeuclidean') # # def sqdist_foreach(X1, X2=None): # """ # Return an iterator over each dimension returning the squared-distance # between two sets of vector. If `X2` is not given this will iterate over the # pairwise squared-distances in `X1` in each dimension. # """ # X2 = X1 if (X2 is None) else X2 # for i in xrange(X1.shape[1]): # yield ssd.cdist(X1[:, i, None], X2[:, i, None], 'sqeuclidean') , which may include functions, classes, or code. Output only the next line.
for D in sqdist_foreach(X1, X2):
Using the snippet: <|code_start|>""" Implementation of the Gaussian likelihood model. """ # future imports from __future__ import division from __future__ import absolute_import from __future__ import print_function # global imports # local imports # exported symbols __all__ = ['Gaussian'] @printable <|code_end|> , determine the next line of code. You have imports: import numpy as np from mwhutils.random import rstate from ._base import RealLikelihood from ..utils.models import printable and context (class names, function names, or code) available: # Path: pygp/likelihoods/_base.py # class RealLikelihood(Likelihood): # """ # Likelihood model with real-valued outputs. # """ # def transform(self, y): # return np.array(y, ndmin=1, dtype=float, copy=False) # # Path: pygp/utils/models.py # def printable(cls): # """ # Decorator which marks classes as being able to be pretty-printed as a # function of their hyperparameters. This decorator defines a __repr__ method # for the given class which uses the class's `get_hyper` and `_params` # methods to print it. # """ # def _repr(obj): # """Represent the object as a function of its hyperparameters.""" # hyper = obj.get_hyper() # substrings = [] # for key, block, log in get_params(obj): # val = hyper[block] # val = val[0] if (len(val) == 1) else val # val = np.exp(val) if log else val # substrings += ['%s=%s' % (key, val)] # return obj.__class__.__name__ + '(' + ', '.join(substrings) + ')' # cls.__repr__ = _repr # return cls . Output only the next line.
class Gaussian(RealLikelihood):
Next line prediction: <|code_start|>""" Implementation of the Gaussian likelihood model. """ # future imports from __future__ import division from __future__ import absolute_import from __future__ import print_function # global imports # local imports # exported symbols __all__ = ['Gaussian'] <|code_end|> . Use current file imports: (import numpy as np from mwhutils.random import rstate from ._base import RealLikelihood from ..utils.models import printable) and context including class names, function names, or small code snippets from other files: # Path: pygp/likelihoods/_base.py # class RealLikelihood(Likelihood): # """ # Likelihood model with real-valued outputs. # """ # def transform(self, y): # return np.array(y, ndmin=1, dtype=float, copy=False) # # Path: pygp/utils/models.py # def printable(cls): # """ # Decorator which marks classes as being able to be pretty-printed as a # function of their hyperparameters. This decorator defines a __repr__ method # for the given class which uses the class's `get_hyper` and `_params` # methods to print it. # """ # def _repr(obj): # """Represent the object as a function of its hyperparameters.""" # hyper = obj.get_hyper() # substrings = [] # for key, block, log in get_params(obj): # val = hyper[block] # val = val[0] if (len(val) == 1) else val # val = np.exp(val) if log else val # substrings += ['%s=%s' % (key, val)] # return obj.__class__.__name__ + '(' + ', '.join(substrings) + ')' # cls.__repr__ = _repr # return cls . Output only the next line.
@printable
Predict the next line after this snippet: <|code_start|> # future imports from __future__ import division from __future__ import absolute_import from __future__ import print_function # global imports # local imports # exported symbols __all__ = ['optimize'] def optimize(gp, priors=None): """ Perform type-II maximum likelihood to fit GP hyperparameters. If given the priors object should be a dictionary mapping named parameters to an object which implements `prior.loglikelihood(hyper, grad)`. If a parameter is mapped to the `None` value then this will be assumed fixed. Note: nothing is returned by this function. Instead it will modify the hyperparameters of the given GP object in place. """ hyper0 = gp.get_hyper() active = np.ones(gp.nhyper, dtype=bool) # this just manipulates a few lists so that we transform priors into a list # of tuples of the form (block, log, prior) for each named prior. <|code_end|> using the current file's imports: import numpy as np import scipy.optimize as so from ..utils.models import get_params and any relevant context from other files: # Path: pygp/utils/models.py # def get_params(obj): # """ # Helper function which translates the values returned by _params() into # something more meaningful. # """ # offset = 0 # for param in obj._params(): # key, size, log = param # block = slice(offset, offset+size) # offset += size # yield key, block, log . Output only the next line.
params = dict((key, (block, log)) for (key, block, log) in get_params(gp))
Given snippet: <|code_start|> # local imports # exported symbols __all__ = ['SMC'] def _sample_prior(model, priors, n, rng=None): rng = rstate(rng) # unpack priors # TODO -- Bobak: This snippet is copied from learning/sampling.py # and should probably be put into a Prior base class. priors = dict(priors) active = np.ones(model.nhyper, dtype=bool) logged = np.ones(model.nhyper, dtype=bool) for (key, block, log) in get_params(model): inactive = (key in priors) and (priors[key] is None) logged[block] = log active[block] = not inactive if inactive: del priors[key] else: priors[key] = (block, log, priors[key]) priors = priors.values() # sample hyperparameters from prior hypers = np.tile(model.get_hyper(), (n, 1)) for (block, log, prior) in priors: <|code_end|> , continue by predicting the next line. Consider current file imports: import numpy as np from scipy.misc import logsumexp from mwhutils.random import rstate from ..learning.sampling import sample from ..utils.models import get_params and context: # Path: pygp/learning/sampling.py # def sample(gp, priors, n, raw=True, rng=None): # rng = rstate(rng) # priors = dict(priors) # active = np.ones(gp.nhyper, dtype=bool) # logged = np.ones(gp.nhyper, dtype=bool) # # for (key, block, log) in get_params(gp): # inactive = (key in priors) and (priors[key] is None) # logged[block] = log # active[block] = not inactive # if inactive: # del priors[key] # else: # priors[key] = (block, log, priors[key]) # # # priors is now just a list of the form (block, log, prior). # priors = priors.values() # # # get the initial hyperparameters and transform into the non-log space. # hyper0 = gp.get_hyper() # hyper0[logged] = np.exp(hyper0[logged]) # # def logprob(x): # # copy the initial hyperparameters and then assign the "active" # # parameters that come from x. # hyper = hyper0.copy() # hyper[active] = x # logprob = 0 # # # compute the prior probabilities. we do this first so that if there # # are any infs they'll be caught in the least expensive computations # # first. # for block, log, prior in priors: # logprob += prior.logprior(hyper[block]) # if np.isinf(logprob): # break # # # now compute the likelihood term. note that we'll have to take the log # # of any logspace parameters before calling set_hyper. # if not np.isinf(logprob): # hyper[logged] = np.log(hyper[logged]) # gp.set_hyper(hyper) # logprob += gp.loglikelihood() # # return logprob # # # create a big list of the hyperparameters so that we can just assign to # # the components that are active. also get an initial sample x # # corresponding only to the active parts of hyper0. # hypers = np.tile(hyper0, (n, 1)) # x = hyper0.copy()[active] # # # do the sampling. # for i in xrange(n): # x = _slice_sample(logprob, x, rng=rng) # hypers[i][active] = x # # # change the logspace components back into logspace. # hypers[:, logged] = np.log(hypers[:, logged]) # # # make sure the gp gets updated to the last sampled hyperparameter. # gp.set_hyper(hypers[-1]) # # if raw: # return hypers # else: # return [gp.copy(h) for h in hypers] # # Path: pygp/utils/models.py # def get_params(obj): # """ # Helper function which translates the values returned by _params() into # something more meaningful. # """ # offset = 0 # for param in obj._params(): # key, size, log = param # block = slice(offset, offset+size) # offset += size # yield key, block, log which might include code, classes, or functions. Output only the next line.
hypers[:, block] = (np.log(prior.sample(n, rng=rng)) if log else
Given the code snippet: <|code_start|>""" Meta models which take care of hyperparameter marginalization whenever data is added. """ # future imports from __future__ import division from __future__ import absolute_import from __future__ import print_function # global imports # local imports # exported symbols __all__ = ['SMC'] def _sample_prior(model, priors, n, rng=None): rng = rstate(rng) # unpack priors # TODO -- Bobak: This snippet is copied from learning/sampling.py # and should probably be put into a Prior base class. priors = dict(priors) active = np.ones(model.nhyper, dtype=bool) logged = np.ones(model.nhyper, dtype=bool) <|code_end|> , generate the next line using the imports in this file: import numpy as np from scipy.misc import logsumexp from mwhutils.random import rstate from ..learning.sampling import sample from ..utils.models import get_params and context (functions, classes, or occasionally code) from other files: # Path: pygp/learning/sampling.py # def sample(gp, priors, n, raw=True, rng=None): # rng = rstate(rng) # priors = dict(priors) # active = np.ones(gp.nhyper, dtype=bool) # logged = np.ones(gp.nhyper, dtype=bool) # # for (key, block, log) in get_params(gp): # inactive = (key in priors) and (priors[key] is None) # logged[block] = log # active[block] = not inactive # if inactive: # del priors[key] # else: # priors[key] = (block, log, priors[key]) # # # priors is now just a list of the form (block, log, prior). # priors = priors.values() # # # get the initial hyperparameters and transform into the non-log space. # hyper0 = gp.get_hyper() # hyper0[logged] = np.exp(hyper0[logged]) # # def logprob(x): # # copy the initial hyperparameters and then assign the "active" # # parameters that come from x. # hyper = hyper0.copy() # hyper[active] = x # logprob = 0 # # # compute the prior probabilities. we do this first so that if there # # are any infs they'll be caught in the least expensive computations # # first. # for block, log, prior in priors: # logprob += prior.logprior(hyper[block]) # if np.isinf(logprob): # break # # # now compute the likelihood term. note that we'll have to take the log # # of any logspace parameters before calling set_hyper. # if not np.isinf(logprob): # hyper[logged] = np.log(hyper[logged]) # gp.set_hyper(hyper) # logprob += gp.loglikelihood() # # return logprob # # # create a big list of the hyperparameters so that we can just assign to # # the components that are active. also get an initial sample x # # corresponding only to the active parts of hyper0. # hypers = np.tile(hyper0, (n, 1)) # x = hyper0.copy()[active] # # # do the sampling. # for i in xrange(n): # x = _slice_sample(logprob, x, rng=rng) # hypers[i][active] = x # # # change the logspace components back into logspace. # hypers[:, logged] = np.log(hypers[:, logged]) # # # make sure the gp gets updated to the last sampled hyperparameter. # gp.set_hyper(hypers[-1]) # # if raw: # return hypers # else: # return [gp.copy(h) for h in hypers] # # Path: pygp/utils/models.py # def get_params(obj): # """ # Helper function which translates the values returned by _params() into # something more meaningful. # """ # offset = 0 # for param in obj._params(): # key, size, log = param # block = slice(offset, offset+size) # offset += size # yield key, block, log . Output only the next line.
for (key, block, log) in get_params(model):
Here is a snippet: <|code_start|>""" Meta models which take care of hyperparameter marginalization whenever data is added. """ # future imports from __future__ import division from __future__ import absolute_import from __future__ import print_function # global imports # local imports # exported symbols __all__ = ['MCMC'] class MCMC(object): def __init__(self, model, prior, n=100, burn=100, rng=None): self._model = model.copy() self._prior = prior self._samples = [] self._n = n self._burn = burn self._rng = rstate(rng) if self._model.ndata > 0: if self._burn > 0: <|code_end|> . Write the next line using the current file imports: import numpy as np from mwhutils.random import rstate from ..learning.sampling import sample and context from other files: # Path: pygp/learning/sampling.py # def sample(gp, priors, n, raw=True, rng=None): # rng = rstate(rng) # priors = dict(priors) # active = np.ones(gp.nhyper, dtype=bool) # logged = np.ones(gp.nhyper, dtype=bool) # # for (key, block, log) in get_params(gp): # inactive = (key in priors) and (priors[key] is None) # logged[block] = log # active[block] = not inactive # if inactive: # del priors[key] # else: # priors[key] = (block, log, priors[key]) # # # priors is now just a list of the form (block, log, prior). # priors = priors.values() # # # get the initial hyperparameters and transform into the non-log space. # hyper0 = gp.get_hyper() # hyper0[logged] = np.exp(hyper0[logged]) # # def logprob(x): # # copy the initial hyperparameters and then assign the "active" # # parameters that come from x. # hyper = hyper0.copy() # hyper[active] = x # logprob = 0 # # # compute the prior probabilities. we do this first so that if there # # are any infs they'll be caught in the least expensive computations # # first. # for block, log, prior in priors: # logprob += prior.logprior(hyper[block]) # if np.isinf(logprob): # break # # # now compute the likelihood term. note that we'll have to take the log # # of any logspace parameters before calling set_hyper. # if not np.isinf(logprob): # hyper[logged] = np.log(hyper[logged]) # gp.set_hyper(hyper) # logprob += gp.loglikelihood() # # return logprob # # # create a big list of the hyperparameters so that we can just assign to # # the components that are active. also get an initial sample x # # corresponding only to the active parts of hyper0. # hypers = np.tile(hyper0, (n, 1)) # x = hyper0.copy()[active] # # # do the sampling. # for i in xrange(n): # x = _slice_sample(logprob, x, rng=rng) # hypers[i][active] = x # # # change the logspace components back into logspace. # hypers[:, logged] = np.log(hypers[:, logged]) # # # make sure the gp gets updated to the last sampled hyperparameter. # gp.set_hyper(hypers[-1]) # # if raw: # return hypers # else: # return [gp.copy(h) for h in hypers] , which may include functions, classes, or code. Output only the next line.
sample(self._model, self._prior, self._burn, rng=self._rng)
Given snippet: <|code_start|>""" Interface for latent function inference in Gaussian process models. These models will assume that the hyperparameters are fixed and any optimization and/or sampling of these parameters will be left to a higher-level wrapper. """ # future imports from __future__ import division from __future__ import absolute_import from __future__ import print_function # global imports # local imports # exported symbols __all__ = ['GP'] <|code_end|> , continue by predicting the next line. Consider current file imports: import numpy as np import scipy.linalg as sla from mwhutils.abc import abstractmethod, abstractclassmethod from mwhutils.random import rstate from ..utils.models import Parameterized from ._fourier import FourierSample and context: # Path: pygp/utils/models.py # class Parameterized(object): # """ # Interface for objects that are parameterized by some set of # hyperparameters. # """ # __metaclass__ = ABCMeta # # @abstractmethod # def _params(self): # """ # Define the set of parameters for the model. This should return a list # of tuples of the form `(name, size, islog)`. If only a 2-tuple is given # then islog will be assumed to be `True`. # """ # raise NotImplementedError # # @abstractmethod # def get_hyper(self): # """Return a vector of model hyperparameters.""" # raise NotImplementedError # # @abstractmethod # def set_hyper(self, hyper): # """Set the model hyperparameters to the given vector.""" # raise NotImplementedError # # def copy(self, hyper=None): # """ # Copy the model. If `hyper` is given use this vector to immediately set # the copied model's hyperparameters. # """ # model = copy.deepcopy(self) # if hyper is not None: # model.set_hyper(hyper) # return model # # Path: pygp/inference/_fourier.py # class FourierSample(object): # """ # Approximate sample from a Gaussian process, approximated using random # Fourier features. # """ # def __init__(self, N, likelihood, kernel, mean, X, y, rng=None): # # if given a seed or an instantiated RandomState make sure that we use # # it here, but also within the sample_spectrum code. # rng = rstate(rng) # # if not isinstance(likelihood, Gaussian): # raise ValueError('Fourier samples only defined for Gaussian' # 'likelihoods') # # # this randomizes the feature. # W, alpha = kernel.sample_spectrum(N, rng) # # self._W = W # self._b = rng.rand(N) * 2 * np.pi # self._a = np.sqrt(2 * alpha / N) # self._mean = mean # self._theta = None # # if X is not None: # # evaluate the features # Z = np.dot(X, self._W.T) + self._b # Phi = np.cos(Z) * self._a # # # get the components for regression # A = np.dot(Phi.T, Phi) + likelihood.s2 * np.eye(Phi.shape[1]) # R = sla.cholesky(A) # r = y - mean # p = np.sqrt(likelihood.s2) * rng.randn(N) # # # FIXME: we can do a smarter update here when the number of points # # is less than the number of features. # # self._theta = sla.cho_solve((R, False), np.dot(Phi.T, r)) # self._theta += sla.solve_triangular(R, p) # # else: # self._theta = rng.randn(N) # # def get(self, X, grad=False): # """ # Evaluate the function at a collection of points. # """ # X = np.array(X, ndmin=2, copy=False) # Z = np.dot(X, self._W.T) + self._b # # # evaluate the sample # F = np.dot(self._a * np.cos(Z), self._theta) + self._mean # # if not grad: # return F # # # evaluate the gradient # dPhi = (-self._a * np.sin(Z))[:, :, None] * self._W[None] # G = np.einsum('ijk,j', dPhi, self._theta) # # return F, G # # def __call__(self, x, grad=False): # if grad: # F, G = self.get(x, True) # return F[0], G[0] # else: # return self.get(x)[0] which might include code, classes, or functions. Output only the next line.
class GP(Parameterized):
Using the snippet: <|code_start|> # if a seed or instantiated RandomState is given use that, otherwise # use the global object. rng = rstate(rng) # add a tiny amount to the diagonal to make the cholesky of Sigma # stable and then add this correlated noise onto mu to get the sample. mu, Sigma = self._full_posterior(X) Sigma += 1e-10 * np.eye(n) f = mu[None] + np.dot(rng.normal(size=(m, n)), sla.cholesky(Sigma)) if not latent: f = self._likelihood.sample(f.ravel(), rng).reshape(m, n) return f.ravel() if flatten else f def posterior(self, X, grad=False): """ Return the marginal posterior. This should return the mean and variance of the given points, and if `grad == True` should return their derivatives with respect to the input location as well (i.e. a 4-tuple). """ return self._marg_posterior(self._kernel.transform(X), grad) def sample_fourier(self, N, rng=None): """ Approximately sample a function from the GP using a fourier-basis expansion with N bases. See the documentation on `FourierSample` for details on the returned function object. """ <|code_end|> , determine the next line of code. You have imports: import numpy as np import scipy.linalg as sla from mwhutils.abc import abstractmethod, abstractclassmethod from mwhutils.random import rstate from ..utils.models import Parameterized from ._fourier import FourierSample and context (class names, function names, or code) available: # Path: pygp/utils/models.py # class Parameterized(object): # """ # Interface for objects that are parameterized by some set of # hyperparameters. # """ # __metaclass__ = ABCMeta # # @abstractmethod # def _params(self): # """ # Define the set of parameters for the model. This should return a list # of tuples of the form `(name, size, islog)`. If only a 2-tuple is given # then islog will be assumed to be `True`. # """ # raise NotImplementedError # # @abstractmethod # def get_hyper(self): # """Return a vector of model hyperparameters.""" # raise NotImplementedError # # @abstractmethod # def set_hyper(self, hyper): # """Set the model hyperparameters to the given vector.""" # raise NotImplementedError # # def copy(self, hyper=None): # """ # Copy the model. If `hyper` is given use this vector to immediately set # the copied model's hyperparameters. # """ # model = copy.deepcopy(self) # if hyper is not None: # model.set_hyper(hyper) # return model # # Path: pygp/inference/_fourier.py # class FourierSample(object): # """ # Approximate sample from a Gaussian process, approximated using random # Fourier features. # """ # def __init__(self, N, likelihood, kernel, mean, X, y, rng=None): # # if given a seed or an instantiated RandomState make sure that we use # # it here, but also within the sample_spectrum code. # rng = rstate(rng) # # if not isinstance(likelihood, Gaussian): # raise ValueError('Fourier samples only defined for Gaussian' # 'likelihoods') # # # this randomizes the feature. # W, alpha = kernel.sample_spectrum(N, rng) # # self._W = W # self._b = rng.rand(N) * 2 * np.pi # self._a = np.sqrt(2 * alpha / N) # self._mean = mean # self._theta = None # # if X is not None: # # evaluate the features # Z = np.dot(X, self._W.T) + self._b # Phi = np.cos(Z) * self._a # # # get the components for regression # A = np.dot(Phi.T, Phi) + likelihood.s2 * np.eye(Phi.shape[1]) # R = sla.cholesky(A) # r = y - mean # p = np.sqrt(likelihood.s2) * rng.randn(N) # # # FIXME: we can do a smarter update here when the number of points # # is less than the number of features. # # self._theta = sla.cho_solve((R, False), np.dot(Phi.T, r)) # self._theta += sla.solve_triangular(R, p) # # else: # self._theta = rng.randn(N) # # def get(self, X, grad=False): # """ # Evaluate the function at a collection of points. # """ # X = np.array(X, ndmin=2, copy=False) # Z = np.dot(X, self._W.T) + self._b # # # evaluate the sample # F = np.dot(self._a * np.cos(Z), self._theta) + self._mean # # if not grad: # return F # # # evaluate the gradient # dPhi = (-self._a * np.sin(Z))[:, :, None] * self._W[None] # G = np.einsum('ijk,j', dPhi, self._theta) # # return F, G # # def __call__(self, x, grad=False): # if grad: # F, G = self.get(x, True) # return F[0], G[0] # else: # return self.get(x)[0] . Output only the next line.
return FourierSample(N,
Next line prediction: <|code_start|>""" Definition of the kernel interface. """ # future imports from __future__ import division from __future__ import absolute_import from __future__ import print_function # global imports # local imports # exported symbols __all__ = ['Kernel'] ### BASE KERNEL INTERFACE ##################################################### <|code_end|> . Use current file imports: (from abc import abstractmethod from ..utils.models import Parameterized) and context including class names, function names, or small code snippets from other files: # Path: pygp/utils/models.py # class Parameterized(object): # """ # Interface for objects that are parameterized by some set of # hyperparameters. # """ # __metaclass__ = ABCMeta # # @abstractmethod # def _params(self): # """ # Define the set of parameters for the model. This should return a list # of tuples of the form `(name, size, islog)`. If only a 2-tuple is given # then islog will be assumed to be `True`. # """ # raise NotImplementedError # # @abstractmethod # def get_hyper(self): # """Return a vector of model hyperparameters.""" # raise NotImplementedError # # @abstractmethod # def set_hyper(self, hyper): # """Set the model hyperparameters to the given vector.""" # raise NotImplementedError # # def copy(self, hyper=None): # """ # Copy the model. If `hyper` is given use this vector to immediately set # the copied model's hyperparameters. # """ # model = copy.deepcopy(self) # if hyper is not None: # model.set_hyper(hyper) # return model . Output only the next line.
class Kernel(Parameterized):