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let t = let format = [ Column . create ~ header " : s1 " ~ pad_right : 3 s1 ; Column . create ~ header " : i2 " ~ sortable : false ( fun x -> Int . to_string_hum ( i2 x ) ) ; Column . create ~ header " : s3 " ~ align_right : true s3 ] in create M . major_mode ~ id_... |
let entries = [ { id = " b " ; s1 = " b " ; i2 = 1 ; s3 = " y " } ; { id = " a " ; s1 = " a " ; i2 = 2 ; s3 = " z " } ; { id = " c " ; s1 = " c " ; i2 = 3 ; s3 = " x " } ] ; ; |
let draw_and_print ? sort_by entries = let % bind ( ) = Current_buffer . change_major_mode ( major_mode t ) in draw ? sort_by t entries ; printf " % s " ( Current_buffer . contents ( ) |> Text . to_utf8_bytes ) ; return ( ) ; ; Current_buffer . set_temporarily_to_temp_buff... |
module Tac_config : P2p_tac . S . CONFIG = struct let trust_weight = 1 . let min_trust = 0 . 1 end |
module Node = P2p . Node . Make ( Node_id ) |
module View = P2p . View . Make ( Node_id ) ( Node ) |
module Tac = P2p_tac . Make ( Node_id ) ( Node ) ( View ) ( Tac_config ) |
let blip bf = let bits = Bloomf . bits bf in let e = 13 . in let _m , k = Bloomf . params bf in let p = Blip . p e k in Blip . flip bits p |
let subs subsl = let bf = Bloomf . create 10 in List . iter ( fun sub -> Bloomf . add bf sub ) subsl ; if do_blip then blip bf else Bloomf . bits bf |
let test_gossip _ctx = printf " \ nTAC GOSSIP \ n \ n " ; let me = Node . init ( u64 23L ) ~ trust : 1 . 0 ~ known : true ~ sim : 1 . 0 ~ subs ( : subs [ " A " ; " B " ; " C " ] ) in let my_xview = View . add ( Node . init ( u64 7L ) ~ trust : 0 ... |
let suite = " suite " >::: [ " gossip " >:: test_gossip ; ] |
let ( ) = Nocrypto_entropy_unix . initialize ( ) ; run_test_tt_main suite |
module Tac_config : P2p_tac . S . CONFIG = struct let trust_weight = 1 . let min_trust = 0 . 1 end |
module Node = P2p . Node . Make ( Node_id ) |
module View = P2p . View . Make ( Node_id ) ( Node ) |
module Tac = P2p_tac . Make ( Node_id ) ( Node ) ( View ) ( Tac_config ) |
module Io = struct type t = { node_id : Node_id . t ; xview : View . t ; in_chan : Lwt_io . input_channel ; out_chan : Lwt_io . output_channel ; } let init node_id xview in_chan out_chan = { node_id ; xview ; in_chan ; out_chan } let initiate_gossip t dst xchg = pf out " % a # ... |
module Tac_lwt = P2p_tac_lwt . Make ( Node_id ) ( Node ) ( View ) ( Tac ) ( Io ) |
let rec read_chan ch cy node rnode = let % lwt recvd = Lwt_io . read_value ch in let nid = Node . id node in pf out " % a # READ_CHAN \ n " Node_id . pp nid ; pf out " % a # recvd :\ n % a \ n " Node_id . pp nid View . pp recvd ; flush stdout ; let % lwt view = Tac_lwt . respond ... |
let blip bf = let bits = Bloomf . bits bf in let e = 13 . in let _m , k = Bloomf . params bf in let p = Blip . p e k in Blip . flip bits p |
let subs subsl = let bf = Bloomf . create 10 in List . iter ( fun sub -> Bloomf . add bf sub ) subsl ; if do_blip then blip bf else Bloomf . bits bf |
let _ = Nocrypto_entropy_lwt . initialize ( ) |
let ( ) = let view_len = 8 in let xchg_len = 4 in let period = 0 . 1 in let ( in_ch1 , out_ch2 ) = Lwt_io . pipe ( ) in let ( in_ch2 , out_ch1 ) = Lwt_io . pipe ( ) in let node1 = Node . init ( u64 100L ) ~ trust : 1 . 0 ~ known : true ~ sim : 1 . 0 ~ subs ... |
module Taps_config : P2p_taps . S . CONFIG = struct let min_trust = 0 . 1 let trust_transitivity = 0 . 9 end |
module Node = P2p . Node . Make ( Node_id ) |
module View = P2p . View . Make ( Node_id ) ( Node ) |
module Taps = P2p_taps . Make ( Node_id ) ( Node ) ( View ) ( Taps_config ) |
let me = Node . init ( u64 99L ) ~ trust : 1 . 0 ~ known : true |
let my_view = View . add ( Node . init ( u64 1L ) ~ trust : 0 . 5 ~ known : true ) ( View . add ( Node . init ( u64 2L ) ~ trust : 0 . 9 ~ known : true ) ( View . add ( Node . init ( u64 3L ) ~ trust : 0 . 3 ~ known : true ) ( View . add ( Node .... |
let my_recvd = View . add ( Node . init ( u64 10L ) ~ trust : 0 . 8 ) ( View . add ( Node . init ( u64 20L ) ~ trust : 0 . 6 ) ( View . add ( Node . init ( u64 3L ) ~ trust : 0 . 4 ) View . empty ) ) |
let test_gossip _ctx = printf " \ nTAPS GOSSIP \ n \ n " ; let view = View . empty in let xview = my_view in let ( dst , sent , view ) = Taps . initiate ~ me ~ view ~ xview ~ view_len ~ xchg_len in let recvd = my_recvd in let dst = match dst with | Some dst -> dst | None -> assert_f... |
let suite = " suite " >::: [ " gossip " >:: test_gossip ; ] |
let ( ) = Nocrypto_entropy_unix . initialize ( ) ; run_test_tt_main suite |
module Taps_config : P2p_taps . S . CONFIG = struct let min_trust = 0 . 1 let trust_transitivity = 0 . 9 end |
module Node = P2p . Node . Make ( Node_id ) |
module View = P2p . View . Make ( Node_id ) ( Node ) |
module Taps = P2p_taps . Make ( Node_id ) ( Node ) ( View ) ( Taps_config ) |
module Io = struct type t = { node_id : Node_id . t ; xview : View . t ; in_chan : Lwt_io . input_channel ; out_chan : Lwt_io . output_channel ; } let init node_id xview in_chan out_chan = { node_id ; xview ; in_chan ; out_chan } let initiate_gossip t dst xchg = pf out " % a # ... |
module Taps_lwt = P2p_taps_lwt . Make ( Node_id ) ( Node ) ( View ) ( Taps ) ( Io ) |
let rec read_chan ch cy node rnode = let % lwt recvd = Lwt_io . read_value ch in let nid = Node . id node in pf out " % a # READ_CHAN \ n " Node_id . pp nid ; pf out " % a # recvd :\ n % a \ n " Node_id . pp nid View . pp recvd ; flush stdout ; let % lwt view = Taps_lwt . respond... |
let _ = Nocrypto_entropy_lwt . initialize ( ) |
let ( ) = let view_len = 8 in let xchg_len = 4 in let period = 0 . 1 in let ( in_ch1 , out_ch2 ) = Lwt_io . pipe ( ) in let ( in_ch2 , out_ch1 ) = Lwt_io . pipe ( ) in let node1 = Node . init ( u64 100L ) ~ trust : 1 . 0 ~ known : true in let view1 = View . add... |
let output oc ~ key value = output_string oc ( Printf . sprintf " % s % s \ n " key value ) |
module TestTask = struct type map_init = int ref let map_init _ = ref 0 let map cnt disco in_chan = disco . Task . log ( Printf . sprintf " Mapping % s ( % d bytes ) on % s . . . \ n " disco . Task . input_url disco . Task . input_size disco . Task . hostname ) ; let rec ... |
let _ = Worker . start ( module TestTask : Task . TASK ) |
let to_raw_context ( b : Block . t ) = Raw_context . prepare b . context ~ level : b . header . shell . level ~ predecessor_timestamp : b . header . shell . timestamp ~ timestamp : b . header . shell . timestamp >|= Environment . wrap_tzresult |
let check_no_dangling_temp_big_map b = to_raw_context b >>=? fun ctxt -> Storage . Big_map . fold ctxt ~ init ( ) : ~ order ` : Sorted ~ f ( : fun id ( ) -> assert ( not ( Lazy_storage_kind . Big_map . Id . is_temp id ) ) ; Lwt . return_unit ) >>= fun ( ) -> Storage .... |
let call_the_contract b ~ baker ~ src contract param_left param_right = let fee = Alpha_context . Tez . one in let amount = Alpha_context . Tez . zero in let param = Printf . sprintf " Pair ( % s ) % s " param_left param_right in let parameters = Alpha_context . Script . lazy_expr ( Exp... |
let test_temp_big_maps_contract param_left param_right ( ) = Contract_helpers . init ( ) >>=? fun ( b , baker , src , _src2 ) -> Contract_helpers . originate_contract " contracts / temp_big_maps . tz " " { } " src b baker >>=? fun ( contract , b ) -> check_no_dangling_te... |
let param_left_values = [ " Left True " ; " Left False " ; " Right { } " ] |
let param_right_values = [ " - 1 " ; " 0 " ; " 1 " ; " 2 " ] |
let tests = List . flatten ( List . map ( fun param_left -> List . map ( fun param_right -> Tztest . tztest ( Printf . sprintf " temp_big_maps ( % s , % s ) " param_left param_right ) ` Quick ( test_temp_big_maps_contract param_left param_right ) ) param_right_values ) param... |
module type S = Test . S |
let default_config = Test . default_config Ref . set_temporarily sexp_style To_string_hum ~ f ( : fun ( ) -> print_s [ % sexp ( default_config : Config . t ) ] ) ; [ % expect { | ( ( seed ( Deterministic " an arbitrary but deterministic string " ) ) ( test_count 10000... |
let run_exn = Test . run_exn let module M = struct type t = bool option list [ @@ deriving sexp_of ] let quickcheck_generator = Generator . list ( Generator . option Generator . bool ) let quickcheck_shrinker = Shrinker . list ( Shrinker . option Shrinker . bool ) end in let module M_wit... |
let with_sample_exn = Test . with_sample_exn let generator = Generator . list ( Generator . option Generator . bool ) in with_sample_exn generator ~ config { : Test . default_config with test_count = 20 } ~ f ( : fun sample -> Sequence . iter sample ~ f ( : fun value -> Core_kernel .... |
let fork_testchain chain_store ( blocks , forked_block ) = let open Lwt_result_syntax in let forked_block_hash = Store . Block . hash forked_block in let genesis_hash = Block_hash . hash_bytes [ Block_hash . to_bytes forked_block_hash ] in let testchain_id = Chain_id . of_block_hash genesis_hash... |
let test_simple store = let open Lwt_result_syntax in let chain_store = Store . main_chain_store store in let * ( blocks , head ) = append_blocks ~ should_commit : true ~ should_set_head : true chain_store ~ kind ` : Full 10 in let * _ = fork_testchain chain_store ( blocks , head ) in retu... |
let test_inner store = let open Lwt_result_syntax in let chain_store = Store . main_chain_store store in let * ( blocks , head ) = append_blocks ~ should_commit : true ~ should_set_head : true chain_store ~ kind ` : Full 10 in let * ( testchain , blocks , head ) = fork_testchain chain_sto... |
let test_shutdown store = let open Lwt_result_syntax in let chain_store = Store . main_chain_store store in let * ( blocks , head ) = append_blocks ~ should_commit : true ~ should_set_head : true chain_store ~ kind ` : Full 10 in let * ( testchain , blocks , _head ) = fork_testchain chai... |
let tests = let wrap_test ( s , f ) = let f _ = f in wrap_test ( s , f ) in let test_cases = List . map wrap_test [ ( " forking a test chain " , test_simple ) ; ( " spawning a test chain " , test_inner ) ; ( " shutdown test chain then load it " , test_shutdown ) ; ... |
let f = Ppx_deriving_qcheck . derive_gen ~ loc |
let f ' xs = List . map f xs |> List . concat |
let extract stri = match stri . pstr_desc with Pstr_type ( x , y ) y -> ( x , y ) y | _ -> assert false |
let extract ' xs = List . map extract xs |
let check_eq ~ expected ~ actual name = let f = Ppxlib . Pprintast . string_of_structure in Alcotest ( . check string ) string name ( f expected ) expected ( f actual ) actual |
let test_int ( ) = let expected = [ [ % stri let gen = QCheck . Gen . int ] int ] in let actual = f @@ extract [ % stri type t = int ] int in check_eq ~ expected ~ actual " deriving int " |
let test_float ( ) = let expected = [ [ % stri let gen = QCheck . Gen . float ] float ] in let actual = f @@ extract [ % stri type t = float ] float in check_eq ~ expected ~ actual " deriving float " |
let test_char ( ) = let expected = [ [ % stri let gen = QCheck . Gen . char ] char ] in let actual = f @@ extract [ % stri type t = char ] char in check_eq ~ expected ~ actual " deriving char " |
let test_string ( ) = let expected = [ [ % stri let gen = QCheck . Gen . string ] string ] in let actual = f @@ extract [ % stri type t = string ] string in check_eq ~ expected ~ actual " deriving string " |
let test_unit ( ) = let expected = [ [ % stri let gen = QCheck . Gen . unit ] unit ] in let actual = f @@ extract [ % stri type t = unit ] unit in check_eq ~ expected ~ actual " deriving unit " |
let test_bool ( ) = let expected = [ [ % stri let gen = QCheck . Gen . bool ] bool ] in let actual = f @@ extract [ % stri type t = bool ] bool in check_eq ~ expected ~ actual " deriving bool " |
let test_int32 ( ) = let expected = [ [ % stri let gen = QCheck . Gen . ui32 ] ui32 ] in let actual = f @@ extract [ % stri type t = int32 ] int32 in check_eq ~ expected ~ actual " deriving int32 " |
let test_int32 ' ( ) = let expected = [ [ % stri let gen = QCheck . Gen . ui32 ] ui32 ] in let actual = f @@ extract [ % stri type t = Int32 . t ] t in check_eq ~ expected ~ actual " deriving int32 ' " |
let test_int64 ( ) = let expected = [ [ % stri let gen = QCheck . Gen . ui64 ] ui64 ] in let actual = f @@ extract [ % stri type t = int64 ] int64 in check_eq ~ expected ~ actual " deriving int64 " |
let test_int64 ' ( ) = let expected = [ [ % stri let gen = QCheck . Gen . ui64 ] ui64 ] in let actual = f @@ extract [ % stri type t = Int64 . t ] t in check_eq ~ expected ~ actual " deriving int64 ' " |
let test_tuple ( ) = let actual = f ' @@ extract ' [ [ % stri type t = int * int ] int ; [ % stri type t = int * int * int ] int ; [ % stri type t = int * int * int * int ] int ; [ % stri type t = int * int * int * int * int ] int ; [ % stri type t = int * int... |
let test_option ( ) = let expected = [ [ % stri let gen = QCheck . Gen . option QCheck . Gen . int ] int ] in let actual = f ' @@ extract ' [ [ % stri type t = int option ] option ] in check_eq ~ expected ~ actual " deriving option " |
let test_array ( ) = let expected = [ [ % stri let gen = QCheck . Gen . array QCheck . Gen . int ] int ] in let actual = f ' @@ extract ' [ [ % stri type t = int array ] array ] in check_eq ~ expected ~ actual " deriving option " |
let test_list ( ) = let expected = [ [ % stri let gen = QCheck . Gen . list QCheck . Gen . string ] string ] in let actual = f ' @@ extract ' [ [ % stri type t = string list ] list ] in check_eq ~ expected ~ actual " deriving list " |
let test_alpha ( ) = let expected = [ [ % stri let gen gen_a = gen_a ] gen_a ; [ % stri let gen gen_a = QCheck . Gen . list gen_a ] gen_a ; [ % stri let gen gen_a = QCheck . Gen . map ( fun gen0 -> A gen0 ) gen0 gen_a ] gen_a ; [ % stri let gen gen_a gen_b = QCheck . Gen . map... |
let test_equal ( ) = let expected = [ [ % stri let gen = QCheck . Gen . frequency [ ( 1 , QCheck . Gen . pure A ) A ; ( 1 , QCheck . Gen . pure B ) B ; ( 1 , QCheck . Gen . pure C ) C ; ] ] ; [ % stri let gen_t ' = QCheck . Gen . frequency [ ( 1 , QCheck ... |
let test_dependencies ( ) = let expected = [ [ % stri let gen = QCheck . Gen . frequency [ ( 1 , QCheck . Gen . map ( fun gen0 -> Int gen0 ) gen0 SomeModule . gen ) gen ; ( 1 , QCheck . Gen . map ( fun gen0 -> Float gen0 ) gen0 SomeModule . SomeOtherModule . gen ) ; ] ]... |
let test_konstr ( ) = let expected = [ [ % stri let gen = QCheck . Gen . map ( fun gen0 -> A gen0 ) gen0 QCheck . Gen . int ] int ; [ % stri let gen = QCheck . Gen . frequency [ ( 1 , QCheck . Gen . map ( fun gen0 -> B gen0 ) gen0 QCheck . Gen . int ) int ; ( 1 , ... |
let test_record ( ) = let expected = [ [ % stri let gen = QCheck . Gen . map ( fun ( gen0 , gen1 ) gen1 -> { a = gen0 ; b = gen1 } ) ( QCheck . Gen . pair QCheck . Gen . int QCheck . Gen . string ) string ] string ; [ % stri let gen = QCheck . Gen . map ( fun ( ... |
let test_variant ( ) = let expected = [ [ % stri let gen = ( QCheck . Gen . frequency [ ( 1 , QCheck . Gen . pure ` A ) A ; ( 1 , QCheck . Gen . map ( fun gen0 -> ` B gen0 ) gen0 QCheck . Gen . int ) int ; ( 1 , QCheck . Gen . map ( fun gen0 -> ` C gen0 ) ... |
let test_tree ( ) = let expected = [ [ % stri let rec gen_tree_sized gen_a n = match n with | 0 -> QCheck . Gen . pure Leaf | _ -> QCheck . Gen . frequency [ ( 1 , QCheck . Gen . pure Leaf ) Leaf ; ( 1 , QCheck . Gen . map ( fun ( gen0 , gen1 , gen2 ) gen2 -> Node ( ge... |
let test_expr ( ) = let expected = [ [ % stri let rec gen_expr_sized n = match n with | 0 -> QCheck . Gen . map ( fun gen0 -> Value gen0 ) gen0 QCheck . Gen . int | _ -> QCheck . Gen . frequency [ ( 1 , QCheck . Gen . map ( fun gen0 -> Value gen0 ) gen0 QCheck . Gen . int ) ; ... |
let test_forest ( ) = let expected = [ [ % stri let rec gen_tree_sized gen_a n = QCheck . Gen . map ( fun gen0 -> Node gen0 ) gen0 ( QCheck . Gen . map ( fun ( gen0 , gen1 ) gen1 -> ( gen0 , gen1 ) gen1 ) gen1 ( QCheck . Gen . pair gen_a ( ( gen_forest_sized gen_a ) ... |
let test_fun_primitives ( ) = let expected = [ [ % stri let gen = QCheck . fun_nary QCheck . Tuple ( . QCheck . Observable . int @-> QCheck . Observable . int @-> o_nil ) o_nil ( QCheck . make QCheck . Gen . string ) string |> QCheck . gen ] gen ; [ % stri let gen = QCheck ... |
let test_fun_n ( ) = let expected = [ [ % stri let gen = QCheck . fun_nary QCheck . Tuple ( . QCheck . Observable . bool @-> QCheck . Observable . int @-> QCheck . Observable . float @-> QCheck . Observable . string @-> QCheck . Observable . char @-> o_nil ) o_nil ( QCheck . make QChe... |
let test_fun_option ( ) = let expected = [ [ % stri let gen = QCheck . fun_nary QCheck . Tuple ( . QCheck . Observable . option QCheck . Observable . int @-> o_nil ) o_nil ( QCheck . make QCheck . Gen . unit ) unit |> QCheck . gen ] gen ; ] in let actual = f @@ extract [ ... |
let test_fun_list ( ) = let expected = [ [ % stri let gen = QCheck . fun_nary QCheck . Tuple ( . QCheck . Observable . list QCheck . Observable . int @-> o_nil ) o_nil ( QCheck . make QCheck . Gen . unit ) unit |> QCheck . gen ] gen ; ] in let actual = f @@ extract [ % st... |
let test_fun_array ( ) = let expected = [ [ % stri let gen = QCheck . fun_nary QCheck . Tuple ( . QCheck . Observable . array QCheck . Observable . int @-> o_nil ) o_nil ( QCheck . make QCheck . Gen . unit ) unit |> QCheck . gen ] gen ; ] in let actual = f @@ extract [ % ... |
let test_fun_tuple ( ) = let expected = [ [ % stri let gen = QCheck . fun_nary QCheck . Tuple ( . QCheck . Observable . pair QCheck . Observable . int QCheck . Observable . int @-> o_nil ) o_nil ( QCheck . make QCheck . Gen . unit ) unit |> QCheck . gen ] gen ; [ % stri let ... |
let test_weight_konstrs ( ) = let expected = [ [ % stri let gen = QCheck . Gen . frequency [ ( 5 , QCheck . Gen . pure A ) A ; ( 6 , QCheck . Gen . pure B ) B ; ( 1 , QCheck . Gen . pure C ) C ; ] ] ; ] in let actual = f @@ extract [ % stri type t = A [ @ we... |
let test_recursive_poly_variant ( ) = let expected = [ [ % stri let rec gen_tree_sized gen_a n = ( match n with | 0 -> QCheck . Gen . map ( fun gen0 -> ` Leaf gen0 ) gen0 gen_a | _ -> QCheck . Gen . frequency [ ( 1 , QCheck . Gen . map ( fun gen0 -> ` Leaf gen0 ) gen0 gen_a )... |
let test_unused_variable ( ) = let expected = [ [ % stri let rec gen_c_sized n = match n with | 0 -> QCheck . Gen . pure A | _ -> QCheck . Gen . frequency [ ( 1 , ( QCheck . Gen . pure A ) A ) A ; ( 1 , ( QCheck . Gen . map ( fun gen0 -> B gen0 ) gen0 gen_myint ) ... |
let ( ) = Alcotest ( . run " ppx_deriving_qcheck tests " [ ( " deriving generator good " , [ test_case " deriving int " ` Quick test_int ; test_case " deriving float " ` Quick test_float ; test_case " deriving char " ` Quick test_char ; test_case " deriving string " ` ... |
let ( +? ) t1 t2 = t1 +? t2 |> wrap_tzresult |
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