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import asyncio import datetime from typing import Dict, List, TypedDict import reflex as rx from futuristic_dashboard.states.data import ( performance_chart_data, quick_actions_data, resource_allocation_data, stat_card_data, system_status_data, ) class StatCardData(TypedDict): title: str value: str sub_detail: str icon: str color: str chart_data: List[Dict[str, int]] class SystemStatusData(TypedDict): name: str value: int color: str class ResourceAllocationData(TypedDict): name: str value: int color: str class QuickActionData(TypedDict): name: str icon: str
class DashboardState(rx.State): """Holds the state for the dashboard.""" current_time: str = datetime.datetime.now().strftime("%H:%M:%S") current_date: str = datetime.datetime.now().strftime("%b %d, %Y") uptime: str = "14d 06:42:18" time_zone: str = "UTC-08:00" active_nav: str = "Dashboard" active_performance_tab: str = "Performance" mobile_sidebar_open: bool = False stat_cards: List[StatCardData] = stat_card_data system_status: List[SystemStatusData] = system_status_data resource_allocation: List[ResourceAllocationData] = resource_allocation_data quick_actions: List[QuickActionData] = quick_actions_data performance_chart_data: List[PerformanceChartData] = performance_chart_data system_load: int = 35 @rx.event(background=True) async def update_time(self): while True: async with self: self.current_time = datetime.datetime.now().strftime("%H:%M:%S") self.current_date =
class PerformanceChartData(TypedDict): time: str CPU: int Memory: int Network: int
QuickActionData(TypedDict): name: str icon: str class PerformanceChartData(TypedDict): time: str CPU: int Memory: int Network: int class DashboardState(rx.State): """Holds the state for the dashboard.""" current_time: str = datetime.datetime.now().strftime("%H:%M:%S") current_date: str = datetime.datetime.now().strftime("%b %d, %Y") uptime: str = "14d 06:42:18" time_zone: str = "UTC-08:00" active_nav: str = "Dashboard" active_performance_tab: str = "Performance" mobile_sidebar_open: bool = False stat_cards: List[StatCardData] = stat_card_data system_status: List[SystemStatusData] = system_status_data resource_allocation: List[ResourceAllocationData] = resource_allocation_data quick_actions: List[QuickActionData] = quick_actions_data performance_chart_data: List[PerformanceChartData] = performance_chart_data system_load: int = 35 @rx.event(background=True) async def update_time(self):
@rx.event def set_active_nav(self, nav_item: str): self.active_nav = nav_item if self.mobile_sidebar_open: self.mobile_sidebar_open = False @rx.event def set_active_performance_tab(self, tab_name: str): self.active_performance_tab = tab_name @rx.event def toggle_mobile_sidebar(self): self.mobile_sidebar_open = not self.mobile_sidebar_open @rx.var def nav_items(self) -> List[Dict[str, str]]: return [ { "name": "Dashboard", "icon": "layout-dashboard", }, {"name": "Diagnostics", "icon": "activity"}, {"name": "Data Center", "icon": "database"}, {"name": "Network", "icon": "wifi"}, {"name": "Security", "icon": "shield"}, {"name": "Console", "icon": "terminal"}, { "name": "Communications", "icon": "message-circle", }, {"nam
while True: async with self: self.current_time = datetime.datetime.now().strftime("%H:%M:%S") self.current_date = datetime.datetime.now().strftime("%b %d, %Y") await asyncio.sleep(1)
class PerformanceChartData(TypedDict): time: str CPU: int Memory: int Network: int class DashboardState(rx.State): """Holds the state for the dashboard.""" current_time: str = datetime.datetime.now().strftime("%H:%M:%S") current_date: str = datetime.datetime.now().strftime("%b %d, %Y") uptime: str = "14d 06:42:18" time_zone: str = "UTC-08:00" active_nav: str = "Dashboard" active_performance_tab: str = "Performance" mobile_sidebar_open: bool = False stat_cards: List[StatCardData] = stat_card_data system_status: List[SystemStatusData] = system_status_data resource_allocation: List[ResourceAllocationData] = resource_allocation_data quick_actions: List[QuickActionData] = quick_actions_data performance_chart_data: List[PerformanceChartData] = performance_chart_data system_load: int = 35 @rx.event(background=True) async def update_time(self): while True: async with self:
self.current_date = datetime.datetime.now().strftime("%b %d, %Y") await asyncio.sleep(1) @rx.event def set_active_nav(self, nav_item: str): self.active_nav = nav_item if self.mobile_sidebar_open: self.mobile_sidebar_open = False @rx.event def set_active_performance_tab(self, tab_name: str): self.active_performance_tab = tab_name @rx.event def toggle_mobile_sidebar(self): self.mobile_sidebar_open = not self.mobile_sidebar_open @rx.var def nav_items(self) -> List[Dict[str, str]]: return [ { "name": "Dashboard", "icon": "layout-dashboard", }, {"name": "Diagnostics", "icon": "activity"}, {"name": "Data Center", "icon": "database"}, {"name": "Network", "icon": "wifi"}, {"name": "Security", "icon": "shield"}, {"name": "Console", "icon": "terminal"}, {
self.current_time = datetime.datetime.now().strftime("%H:%M:%S")
nt Network: int class DashboardState(rx.State): """Holds the state for the dashboard.""" current_time: str = datetime.datetime.now().strftime("%H:%M:%S") current_date: str = datetime.datetime.now().strftime("%b %d, %Y") uptime: str = "14d 06:42:18" time_zone: str = "UTC-08:00" active_nav: str = "Dashboard" active_performance_tab: str = "Performance" mobile_sidebar_open: bool = False stat_cards: List[StatCardData] = stat_card_data system_status: List[SystemStatusData] = system_status_data resource_allocation: List[ResourceAllocationData] = resource_allocation_data quick_actions: List[QuickActionData] = quick_actions_data performance_chart_data: List[PerformanceChartData] = performance_chart_data system_load: int = 35 @rx.event(background=True) async def update_time(self): while True: async with self: self.current_time = datetime.datetime.now().strftime("%H:%M:%S")
await asyncio.sleep(1) @rx.event def set_active_nav(self, nav_item: str): self.active_nav = nav_item if self.mobile_sidebar_open: self.mobile_sidebar_open = False @rx.event def set_active_performance_tab(self, tab_name: str): self.active_performance_tab = tab_name @rx.event def toggle_mobile_sidebar(self): self.mobile_sidebar_open = not self.mobile_sidebar_open @rx.var def nav_items(self) -> List[Dict[str, str]]: return [ { "name": "Dashboard", "icon": "layout-dashboard", }, {"name": "Diagnostics", "icon": "activity"}, {"name": "Data Center", "icon": "database"}, {"name": "Network", "icon": "wifi"}, {"name": "Security", "icon": "shield"}, {"name": "Console", "icon": "terminal"}, { "name": "Communications", "icon": "message-circle
self.current_date = datetime.datetime.now().strftime("%b %d, %Y")
r = datetime.datetime.now().strftime("%H:%M:%S") current_date: str = datetime.datetime.now().strftime("%b %d, %Y") uptime: str = "14d 06:42:18" time_zone: str = "UTC-08:00" active_nav: str = "Dashboard" active_performance_tab: str = "Performance" mobile_sidebar_open: bool = False stat_cards: List[StatCardData] = stat_card_data system_status: List[SystemStatusData] = system_status_data resource_allocation: List[ResourceAllocationData] = resource_allocation_data quick_actions: List[QuickActionData] = quick_actions_data performance_chart_data: List[PerformanceChartData] = performance_chart_data system_load: int = 35 @rx.event(background=True) async def update_time(self): while True: async with self: self.current_time = datetime.datetime.now().strftime("%H:%M:%S") self.current_date = datetime.datetime.now().strftime("%b %d, %Y") await asyncio.sleep(1) @rx.event
@rx.event def set_active_performance_tab(self, tab_name: str): self.active_performance_tab = tab_name @rx.event def toggle_mobile_sidebar(self): self.mobile_sidebar_open = not self.mobile_sidebar_open @rx.var def nav_items(self) -> List[Dict[str, str]]: return [ { "name": "Dashboard", "icon": "layout-dashboard", }, {"name": "Diagnostics", "icon": "activity"}, {"name": "Data Center", "icon": "database"}, {"name": "Network", "icon": "wifi"}, {"name": "Security", "icon": "shield"}, {"name": "Console", "icon": "terminal"}, { "name": "Communications", "icon": "message-circle", }, {"name": "Settings", "icon": "settings"}, ]
def set_active_nav(self, nav_item: str): self.active_nav = nav_item if self.mobile_sidebar_open: self.mobile_sidebar_open = False
current_date: str = datetime.datetime.now().strftime("%b %d, %Y") uptime: str = "14d 06:42:18" time_zone: str = "UTC-08:00" active_nav: str = "Dashboard" active_performance_tab: str = "Performance" mobile_sidebar_open: bool = False stat_cards: List[StatCardData] = stat_card_data system_status: List[SystemStatusData] = system_status_data resource_allocation: List[ResourceAllocationData] = resource_allocation_data quick_actions: List[QuickActionData] = quick_actions_data performance_chart_data: List[PerformanceChartData] = performance_chart_data system_load: int = 35 @rx.event(background=True) async def update_time(self): while True: async with self: self.current_time = datetime.datetime.now().strftime("%H:%M:%S") self.current_date = datetime.datetime.now().strftime("%b %d, %Y") await asyncio.sleep(1) @rx.event def set_active_nav(self, nav_item: str):
if self.mobile_sidebar_open: self.mobile_sidebar_open = False @rx.event def set_active_performance_tab(self, tab_name: str): self.active_performance_tab = tab_name @rx.event def toggle_mobile_sidebar(self): self.mobile_sidebar_open = not self.mobile_sidebar_open @rx.var def nav_items(self) -> List[Dict[str, str]]: return [ { "name": "Dashboard", "icon": "layout-dashboard", }, {"name": "Diagnostics", "icon": "activity"}, {"name": "Data Center", "icon": "database"}, {"name": "Network", "icon": "wifi"}, {"name": "Security", "icon": "shield"}, {"name": "Console", "icon": "terminal"}, { "name": "Communications", "icon": "message-circle", }, {"name": "Settings", "icon": "settings"}, ]
self.active_nav = nav_item
tetime.now().strftime("%b %d, %Y") uptime: str = "14d 06:42:18" time_zone: str = "UTC-08:00" active_nav: str = "Dashboard" active_performance_tab: str = "Performance" mobile_sidebar_open: bool = False stat_cards: List[StatCardData] = stat_card_data system_status: List[SystemStatusData] = system_status_data resource_allocation: List[ResourceAllocationData] = resource_allocation_data quick_actions: List[QuickActionData] = quick_actions_data performance_chart_data: List[PerformanceChartData] = performance_chart_data system_load: int = 35 @rx.event(background=True) async def update_time(self): while True: async with self: self.current_time = datetime.datetime.now().strftime("%H:%M:%S") self.current_date = datetime.datetime.now().strftime("%b %d, %Y") await asyncio.sleep(1) @rx.event def set_active_nav(self, nav_item: str): self.active_nav = nav_item
@rx.event def set_active_performance_tab(self, tab_name: str): self.active_performance_tab = tab_name @rx.event def toggle_mobile_sidebar(self): self.mobile_sidebar_open = not self.mobile_sidebar_open @rx.var def nav_items(self) -> List[Dict[str, str]]: return [ { "name": "Dashboard", "icon": "layout-dashboard", }, {"name": "Diagnostics", "icon": "activity"}, {"name": "Data Center", "icon": "database"}, {"name": "Network", "icon": "wifi"}, {"name": "Security", "icon": "shield"}, {"name": "Console", "icon": "terminal"}, { "name": "Communications", "icon": "message-circle", }, {"name": "Settings", "icon": "settings"}, ]
if self.mobile_sidebar_open: self.mobile_sidebar_open = False
time: str = "14d 06:42:18" time_zone: str = "UTC-08:00" active_nav: str = "Dashboard" active_performance_tab: str = "Performance" mobile_sidebar_open: bool = False stat_cards: List[StatCardData] = stat_card_data system_status: List[SystemStatusData] = system_status_data resource_allocation: List[ResourceAllocationData] = resource_allocation_data quick_actions: List[QuickActionData] = quick_actions_data performance_chart_data: List[PerformanceChartData] = performance_chart_data system_load: int = 35 @rx.event(background=True) async def update_time(self): while True: async with self: self.current_time = datetime.datetime.now().strftime("%H:%M:%S") self.current_date = datetime.datetime.now().strftime("%b %d, %Y") await asyncio.sleep(1) @rx.event def set_active_nav(self, nav_item: str): self.active_nav = nav_item if self.mobile_sidebar_open:
@rx.event def set_active_performance_tab(self, tab_name: str): self.active_performance_tab = tab_name @rx.event def toggle_mobile_sidebar(self): self.mobile_sidebar_open = not self.mobile_sidebar_open @rx.var def nav_items(self) -> List[Dict[str, str]]: return [ { "name": "Dashboard", "icon": "layout-dashboard", }, {"name": "Diagnostics", "icon": "activity"}, {"name": "Data Center", "icon": "database"}, {"name": "Network", "icon": "wifi"}, {"name": "Security", "icon": "shield"}, {"name": "Console", "icon": "terminal"}, { "name": "Communications", "icon": "message-circle", }, {"name": "Settings", "icon": "settings"}, ]
self.mobile_sidebar_open = False
-08:00" active_nav: str = "Dashboard" active_performance_tab: str = "Performance" mobile_sidebar_open: bool = False stat_cards: List[StatCardData] = stat_card_data system_status: List[SystemStatusData] = system_status_data resource_allocation: List[ResourceAllocationData] = resource_allocation_data quick_actions: List[QuickActionData] = quick_actions_data performance_chart_data: List[PerformanceChartData] = performance_chart_data system_load: int = 35 @rx.event(background=True) async def update_time(self): while True: async with self: self.current_time = datetime.datetime.now().strftime("%H:%M:%S") self.current_date = datetime.datetime.now().strftime("%b %d, %Y") await asyncio.sleep(1) @rx.event def set_active_nav(self, nav_item: str): self.active_nav = nav_item if self.mobile_sidebar_open: self.mobile_sidebar_open = False @rx.event
@rx.event def toggle_mobile_sidebar(self): self.mobile_sidebar_open = not self.mobile_sidebar_open @rx.var def nav_items(self) -> List[Dict[str, str]]: return [ { "name": "Dashboard", "icon": "layout-dashboard", }, {"name": "Diagnostics", "icon": "activity"}, {"name": "Data Center", "icon": "database"}, {"name": "Network", "icon": "wifi"}, {"name": "Security", "icon": "shield"}, {"name": "Console", "icon": "terminal"}, { "name": "Communications", "icon": "message-circle", }, {"name": "Settings", "icon": "settings"}, ]
def set_active_performance_tab(self, tab_name: str): self.active_performance_tab = tab_name
nce_tab: str = "Performance" mobile_sidebar_open: bool = False stat_cards: List[StatCardData] = stat_card_data system_status: List[SystemStatusData] = system_status_data resource_allocation: List[ResourceAllocationData] = resource_allocation_data quick_actions: List[QuickActionData] = quick_actions_data performance_chart_data: List[PerformanceChartData] = performance_chart_data system_load: int = 35 @rx.event(background=True) async def update_time(self): while True: async with self: self.current_time = datetime.datetime.now().strftime("%H:%M:%S") self.current_date = datetime.datetime.now().strftime("%b %d, %Y") await asyncio.sleep(1) @rx.event def set_active_nav(self, nav_item: str): self.active_nav = nav_item if self.mobile_sidebar_open: self.mobile_sidebar_open = False @rx.event def set_active_performance_tab(self, tab_name: str):
@rx.event def toggle_mobile_sidebar(self): self.mobile_sidebar_open = not self.mobile_sidebar_open @rx.var def nav_items(self) -> List[Dict[str, str]]: return [ { "name": "Dashboard", "icon": "layout-dashboard", }, {"name": "Diagnostics", "icon": "activity"}, {"name": "Data Center", "icon": "database"}, {"name": "Network", "icon": "wifi"}, {"name": "Security", "icon": "shield"}, {"name": "Console", "icon": "terminal"}, { "name": "Communications", "icon": "message-circle", }, {"name": "Settings", "icon": "settings"}, ]
self.active_performance_tab = tab_name
= False stat_cards: List[StatCardData] = stat_card_data system_status: List[SystemStatusData] = system_status_data resource_allocation: List[ResourceAllocationData] = resource_allocation_data quick_actions: List[QuickActionData] = quick_actions_data performance_chart_data: List[PerformanceChartData] = performance_chart_data system_load: int = 35 @rx.event(background=True) async def update_time(self): while True: async with self: self.current_time = datetime.datetime.now().strftime("%H:%M:%S") self.current_date = datetime.datetime.now().strftime("%b %d, %Y") await asyncio.sleep(1) @rx.event def set_active_nav(self, nav_item: str): self.active_nav = nav_item if self.mobile_sidebar_open: self.mobile_sidebar_open = False @rx.event def set_active_performance_tab(self, tab_name: str): self.active_performance_tab = tab_name @rx.event
@rx.var def nav_items(self) -> List[Dict[str, str]]: return [ { "name": "Dashboard", "icon": "layout-dashboard", }, {"name": "Diagnostics", "icon": "activity"}, {"name": "Data Center", "icon": "database"}, {"name": "Network", "icon": "wifi"}, {"name": "Security", "icon": "shield"}, {"name": "Console", "icon": "terminal"}, { "name": "Communications", "icon": "message-circle", }, {"name": "Settings", "icon": "settings"}, ]
def toggle_mobile_sidebar(self): self.mobile_sidebar_open = not self.mobile_sidebar_open
a] = stat_card_data system_status: List[SystemStatusData] = system_status_data resource_allocation: List[ResourceAllocationData] = resource_allocation_data quick_actions: List[QuickActionData] = quick_actions_data performance_chart_data: List[PerformanceChartData] = performance_chart_data system_load: int = 35 @rx.event(background=True) async def update_time(self): while True: async with self: self.current_time = datetime.datetime.now().strftime("%H:%M:%S") self.current_date = datetime.datetime.now().strftime("%b %d, %Y") await asyncio.sleep(1) @rx.event def set_active_nav(self, nav_item: str): self.active_nav = nav_item if self.mobile_sidebar_open: self.mobile_sidebar_open = False @rx.event def set_active_performance_tab(self, tab_name: str): self.active_performance_tab = tab_name @rx.event def toggle_mobile_sidebar(self):
@rx.var def nav_items(self) -> List[Dict[str, str]]: return [ { "name": "Dashboard", "icon": "layout-dashboard", }, {"name": "Diagnostics", "icon": "activity"}, {"name": "Data Center", "icon": "database"}, {"name": "Network", "icon": "wifi"}, {"name": "Security", "icon": "shield"}, {"name": "Console", "icon": "terminal"}, { "name": "Communications", "icon": "message-circle", }, {"name": "Settings", "icon": "settings"}, ]
self.mobile_sidebar_open = not self.mobile_sidebar_open
{"v": 18}, {"v": 25}, {"v": 22}, {"v": 30}, {"v": 28}, {"v": 37}, ], }, { "title": "Memory", "value": "74%", "sub_detail": "16.4 GB / 24 GB", "icon": "memory-stick", "color": "purple", "chart_data": [ {"v": 60}, {"v": 65}, {"v": 62}, {"v": 70}, {"v": 68}, {"v": 75}, {"v": 72}, {"v": 80}, {"v": 78}, {"v": 74}, ], }, { "title": "Network", "value": "86%", "sub_detail": "1.2 GB/s | 42ms", "icon": "wifi", "color": "teal", "chart_data": [ {"v": 70}, {"v": 75}, {"v": 72}, {"v": 80}, {"v": 78}, {"v": 85}, {"v": 82}, {"v": 90}, {"v": 88}, {"v": 86}, ], }, ]
resource_allocation_data = [ { "name": "Processing Power", "value": 42, "color": "cyan", }, { "name": "Memory Allocation", "value": 68, "color": "pink", }, { "name": "Network Bandwidth", "value": 35, "color": "blue", }, ] quick_actions_data = [ {"name": "Security Scan", "icon": "shield-check"}, {"name": "Sync Data", "icon": "refresh-cw"}, {"name": "Backup", "icon": "database"}, {"name": "Console", "icon": "terminal"}, ] performance_chart_data = [ { "time": "00:00", "CPU": 28, "Memory": 25, "Network": 15, }, { "time": "03:00", "CPU": 32, "Memory": 30, "Network": 20, }, { "time": "06:00", "CPU": 30, "Memory": 35, "Network": 25, }, { "time": "09:00", "CPU": 35, "Memory": 40, "Network": 30, }, { "time":
system_status_data = [ { "name": "Core Systems", "value": 89, "color": "green", }, {"name": "Security", "value": 75, "color": "cyan"}, {"name": "Network", "value": 86, "color": "blue"}, ]
": 74}, ], }, { "title": "Network", "value": "86%", "sub_detail": "1.2 GB/s | 42ms", "icon": "wifi", "color": "teal", "chart_data": [ {"v": 70}, {"v": 75}, {"v": 72}, {"v": 80}, {"v": 78}, {"v": 85}, {"v": 82}, {"v": 90}, {"v": 88}, {"v": 86}, ], }, ] system_status_data = [ { "name": "Core Systems", "value": 89, "color": "green", }, {"name": "Security", "value": 75, "color": "cyan"}, {"name": "Network", "value": 86, "color": "blue"}, ] resource_allocation_data = [ { "name": "Processing Power", "value": 42, "color": "cyan", }, { "name": "Memory Allocation", "value": 68, "color": "pink", }, { "name": "Network Bandwidth", "value": 35, "color": "blue", }, ]
performance_chart_data = [ { "time": "00:00", "CPU": 28, "Memory": 25, "Network": 15, }, { "time": "03:00", "CPU": 32, "Memory": 30, "Network": 20, }, { "time": "06:00", "CPU": 30, "Memory": 35, "Network": 25, }, { "time": "09:00", "CPU": 35, "Memory": 40, "Network": 30, }, { "time": "12:00", "CPU": 38, "Memory": 42, "Network": 35, }, { "time": "15:00", "CPU": 36, "Memory": 40, "Network": 32, }, { "time": "18:00", "CPU": 34, "Memory": 38, "Network": 30, }, { "time": "21:00", "CPU": 32, "Memory": 35, "Network": 28, }, { "time": "24:00", "CPU": 30, "Memory": 33, "Network": 25, }, ]
quick_actions_data = [ {"name": "Security Scan", "icon": "shield-check"}, {"name": "Sync Data", "icon": "refresh-cw"}, {"name": "Backup", "icon": "database"}, {"name": "Console", "icon": "terminal"}, ]
from manufacturing_dashboard.components.dashboard_header import dashboard_header from manufacturing_dashboard.components.metrics_summary import metrics_summary from manufacturing_dashboard.components.pie_chart import ooc_pie_chart from manufacturing_dashboard.components.sidebar import sidebar from manufacturing_dashboard.components.spc_chart import spc_chart def index() -> rx.Component: """The main dashboard page.""" return rx.el.div( sidebar(), rx.el.main( dashboard_header(), metrics_summary(), spc_chart(), rx.el.div( ooc_pie_chart(), class_name="mt-6 grid grid-cols-1 gap-6", ), class_name="w-full p-8 overflow-y-auto bg-slate-900 text-slate-100 min-h-screen lg:ml-64", ), class_name="flex max-h-screen w-full", ) app = rx.App( theme=rx.theme(appearance="light"), style={ "font_family": "'Inter', sans-serif", "hei
import reflex as rx
import reflex as rx
from manufacturing_dashboard.components.metrics_summary import metrics_summary from manufacturing_dashboard.components.pie_chart import ooc_pie_chart from manufacturing_dashboard.components.sidebar import sidebar from manufacturing_dashboard.components.spc_chart import spc_chart def index() -> rx.Component: """The main dashboard page.""" return rx.el.div( sidebar(), rx.el.main( dashboard_header(), metrics_summary(), spc_chart(), rx.el.div( ooc_pie_chart(), class_name="mt-6 grid grid-cols-1 gap-6", ), class_name="w-full p-8 overflow-y-auto bg-slate-900 text-slate-100 min-h-screen lg:ml-64", ), class_name="flex max-h-screen w-full", ) app = rx.App( theme=rx.theme(appearance="light"), style={ "font_family": "'Inter', sans-serif", "height": "100%", "background_color": "#0f172a", "::selection": {
from manufacturing_dashboard.components.dashboard_header import dashboard_header
import reflex as rx from manufacturing_dashboard.components.dashboard_header import dashboard_header
from manufacturing_dashboard.components.pie_chart import ooc_pie_chart from manufacturing_dashboard.components.sidebar import sidebar from manufacturing_dashboard.components.spc_chart import spc_chart def index() -> rx.Component: """The main dashboard page.""" return rx.el.div( sidebar(), rx.el.main( dashboard_header(), metrics_summary(), spc_chart(), rx.el.div( ooc_pie_chart(), class_name="mt-6 grid grid-cols-1 gap-6", ), class_name="w-full p-8 overflow-y-auto bg-slate-900 text-slate-100 min-h-screen lg:ml-64", ), class_name="flex max-h-screen w-full", ) app = rx.App( theme=rx.theme(appearance="light"), style={ "font_family": "'Inter', sans-serif", "height": "100%", "background_color": "#0f172a", "::selection": { "background_color": "#06b6d4", "color": "#ffffff",
from manufacturing_dashboard.components.metrics_summary import metrics_summary
import reflex as rx from manufacturing_dashboard.components.dashboard_header import dashboard_header from manufacturing_dashboard.components.metrics_summary import metrics_summary
from manufacturing_dashboard.components.sidebar import sidebar from manufacturing_dashboard.components.spc_chart import spc_chart def index() -> rx.Component: """The main dashboard page.""" return rx.el.div( sidebar(), rx.el.main( dashboard_header(), metrics_summary(), spc_chart(), rx.el.div( ooc_pie_chart(), class_name="mt-6 grid grid-cols-1 gap-6", ), class_name="w-full p-8 overflow-y-auto bg-slate-900 text-slate-100 min-h-screen lg:ml-64", ), class_name="flex max-h-screen w-full", ) app = rx.App( theme=rx.theme(appearance="light"), style={ "font_family": "'Inter', sans-serif", "height": "100%", "background_color": "#0f172a", "::selection": { "background_color": "#06b6d4", "color": "#ffffff", }, "body": {"height": "100%", "margin": 0}, "#__next":
from manufacturing_dashboard.components.pie_chart import ooc_pie_chart
import reflex as rx from manufacturing_dashboard.components.dashboard_header import dashboard_header from manufacturing_dashboard.components.metrics_summary import metrics_summary from manufacturing_dashboard.components.pie_chart import ooc_pie_chart
from manufacturing_dashboard.components.spc_chart import spc_chart def index() -> rx.Component: """The main dashboard page.""" return rx.el.div( sidebar(), rx.el.main( dashboard_header(), metrics_summary(), spc_chart(), rx.el.div( ooc_pie_chart(), class_name="mt-6 grid grid-cols-1 gap-6", ), class_name="w-full p-8 overflow-y-auto bg-slate-900 text-slate-100 min-h-screen lg:ml-64", ), class_name="flex max-h-screen w-full", ) app = rx.App( theme=rx.theme(appearance="light"), style={ "font_family": "'Inter', sans-serif", "height": "100%", "background_color": "#0f172a", "::selection": { "background_color": "#06b6d4", "color": "#ffffff", }, "body": {"height": "100%", "margin": 0}, "#__next": {"height": "100%"}, }, ) app.add_page(index)
from manufacturing_dashboard.components.sidebar import sidebar
import reflex as rx from manufacturing_dashboard.components.dashboard_header import dashboard_header from manufacturing_dashboard.components.metrics_summary import metrics_summary from manufacturing_dashboard.components.pie_chart import ooc_pie_chart from manufacturing_dashboard.components.sidebar import sidebar
def index() -> rx.Component: """The main dashboard page.""" return rx.el.div( sidebar(), rx.el.main( dashboard_header(), metrics_summary(), spc_chart(), rx.el.div( ooc_pie_chart(), class_name="mt-6 grid grid-cols-1 gap-6", ), class_name="w-full p-8 overflow-y-auto bg-slate-900 text-slate-100 min-h-screen lg:ml-64", ), class_name="flex max-h-screen w-full", ) app = rx.App( theme=rx.theme(appearance="light"), style={ "font_family": "'Inter', sans-serif", "height": "100%", "background_color": "#0f172a", "::selection": { "background_color": "#06b6d4", "color": "#ffffff", }, "body": {"height": "100%", "margin": 0}, "#__next": {"height": "100%"}, }, ) app.add_page(index)
from manufacturing_dashboard.components.spc_chart import spc_chart
from manufacturing_dashboard.states.dashboard_state import DashboardState def dashboard_header() -> rx.Component: """Renders the header section of the dashboard.""" return rx.el.div( rx.el.div( rx.el.h1( "CONTROL CHARTS DASHBOARD", class_name="text-xs font-semibold text-slate-400 tracking-wider uppercase mr-4", ), rx.el.button( rx.cond( DashboardState.is_running, "Running...", "Start Process", ), on_click=DashboardState.start_process, disabled=DashboardState.is_running, class_name=rx.cond( DashboardState.is_running, "px-4 py-1.5 text-sm font-medium text-slate-300 bg-slate-700 rounded-md opacity-50 cursor-not-allowed", "px-4 py-1.5 text-sm font-medium text-white bg-cyan-600 rounded-md hover:bg-cyan-700 t
import reflex as rx
import reflex as rx
def dashboard_header() -> rx.Component: """Renders the header section of the dashboard.""" return rx.el.div( rx.el.div( rx.el.h1( "CONTROL CHARTS DASHBOARD", class_name="text-xs font-semibold text-slate-400 tracking-wider uppercase mr-4", ), rx.el.button( rx.cond( DashboardState.is_running, "Running...", "Start Process", ), on_click=DashboardState.start_process, disabled=DashboardState.is_running, class_name=rx.cond( DashboardState.is_running, "px-4 py-1.5 text-sm font-medium text-slate-300 bg-slate-700 rounded-md opacity-50 cursor-not-allowed", "px-4 py-1.5 text-sm font-medium text-white bg-cyan-600 rounded-md hover:bg-cyan-700 transition-colors duration-150", ), ),
from manufacturing_dashboard.states.dashboard_state import DashboardState
from manufacturing_dashboard.states.dashboard_state import DashboardState def distribution_chart() -> rx.Component: """Renders the vertical bar chart for distribution data.""" return rx.el.div( rx.el.h2( "Diameter Distribution", class_name="text-xl font-semibold text-slate-200 mb-2 text-center px-4 pt-4", ), rx.recharts.bar_chart( rx.recharts.cartesian_grid( stroke_dasharray="3 3", stroke="#475569", horizontal=True, vertical=False, ), rx.recharts.x_axis(data_key="name", type_="category", hide=True), rx.recharts.y_axis( type_="number", allow_decimals=False, axis_line=False, tick_line=False, width=30, stroke="#94a3b8", font_size="10px", ), rx.recharts.bar( data_key="val
import reflex as rx
import reflex as rx
def distribution_chart() -> rx.Component: """Renders the vertical bar chart for distribution data.""" return rx.el.div( rx.el.h2( "Diameter Distribution", class_name="text-xl font-semibold text-slate-200 mb-2 text-center px-4 pt-4", ), rx.recharts.bar_chart( rx.recharts.cartesian_grid( stroke_dasharray="3 3", stroke="#475569", horizontal=True, vertical=False, ), rx.recharts.x_axis(data_key="name", type_="category", hide=True), rx.recharts.y_axis( type_="number", allow_decimals=False, axis_line=False, tick_line=False, width=30, stroke="#94a3b8", font_size="10px", ), rx.recharts.bar( data_key="value", fill="#fbbf24", radius=[4, 4, 0, 0],
from manufacturing_dashboard.states.dashboard_state import DashboardState
import reflex as rx from manufacturing_dashboard.states.dashboard_state import ( DashboardState, ) def sparkline_chart( data: rx.Var[List[Dict[str, int]]], ) -> rx.Component: """Renders a small sparkline chart for the metrics table.""" return rx.recharts.line_chart( rx.recharts.line( data_key="uv", stroke="#fbbf24", stroke_width=2, dot=False, is_animation_active=False, ), data=data, width=120, height=40, margin={ "top": 5, "right": 0, "left": 0, "bottom": 5, }, ) def ooc_progress_bar( percentage: rx.Var[float], ) -> rx.Component: """Renders a segmented progress bar for OOC percentage. Teal: 0-3%, Amber: 3-7%, Red: 7-10% """ teal_width = rx.cond(percentage <= 3, percentage * 100 / 3, 100).to_string() + "%" yellow_width = ( rx.cond( percentage > 3,
from typing import Dict, List
from typing import Dict, List
from manufacturing_dashboard.states.dashboard_state import ( DashboardState, ) def sparkline_chart( data: rx.Var[List[Dict[str, int]]], ) -> rx.Component: """Renders a small sparkline chart for the metrics table.""" return rx.recharts.line_chart( rx.recharts.line( data_key="uv", stroke="#fbbf24", stroke_width=2, dot=False, is_animation_active=False, ), data=data, width=120, height=40, margin={ "top": 5, "right": 0, "left": 0, "bottom": 5, }, ) def ooc_progress_bar( percentage: rx.Var[float], ) -> rx.Component: """Renders a segmented progress bar for OOC percentage. Teal: 0-3%, Amber: 3-7%, Red: 7-10% """ teal_width = rx.cond(percentage <= 3, percentage * 100 / 3, 100).to_string() + "%" yellow_width = ( rx.cond( percentage > 3, rx.cond(
import reflex as rx
from typing import Dict, List import reflex as rx
def sparkline_chart( data: rx.Var[List[Dict[str, int]]], ) -> rx.Component: """Renders a small sparkline chart for the metrics table.""" return rx.recharts.line_chart( rx.recharts.line( data_key="uv", stroke="#fbbf24", stroke_width=2, dot=False, is_animation_active=False, ), data=data, width=120, height=40, margin={ "top": 5, "right": 0, "left": 0, "bottom": 5, }, ) def ooc_progress_bar( percentage: rx.Var[float], ) -> rx.Component: """Renders a segmented progress bar for OOC percentage. Teal: 0-3%, Amber: 3-7%, Red: 7-10% """ teal_width = rx.cond(percentage <= 3, percentage * 100 / 3, 100).to_string() + "%" yellow_width = ( rx.cond( percentage > 3, rx.cond( percentage <= 7, (percentage - 3) * 100 / 4,
from manufacturing_dashboard.states.dashboard_state import ( DashboardState, )
from typing import Dict, List import reflex as rx from manufacturing_dashboard.states.dashboard_state import ( DashboardState, )
def ooc_progress_bar( percentage: rx.Var[float], ) -> rx.Component: """Renders a segmented progress bar for OOC percentage. Teal: 0-3%, Amber: 3-7%, Red: 7-10% """ teal_width = rx.cond(percentage <= 3, percentage * 100 / 3, 100).to_string() + "%" yellow_width = ( rx.cond( percentage > 3, rx.cond( percentage <= 7, (percentage - 3) * 100 / 4, 100, ), 0, ).to_string() + "%" ) red_width = ( rx.cond( percentage > 7, rx.cond( percentage <= 10, (percentage - 7) * 100 / 3, 100, ), 0, ).to_string() + "%" ) return rx.el.div( rx.el.div( rx.el.div( style={"width": teal_width}, class_name="h-full bg-teal-500 rounded-l", ), class_name="w-1/3 h-ful
def sparkline_chart( data: rx.Var[List[Dict[str, int]]], ) -> rx.Component: """Renders a small sparkline chart for the metrics table.""" return rx.recharts.line_chart( rx.recharts.line( data_key="uv", stroke="#fbbf24", stroke_width=2, dot=False, is_animation_active=False, ), data=data, width=120, height=40, margin={ "top": 5, "right": 0, "left": 0, "bottom": 5, }, )
from typing import Dict, List import reflex as rx from manufacturing_dashboard.states.dashboard_state import ( DashboardState, ) def sparkline_chart( data: rx.Var[List[Dict[str, int]]], ) -> rx.Component: """Renders a small sparkline chart for the metrics table.""" return rx.recharts.line_chart( rx.recharts.line( data_key="uv", stroke="#fbbf24", stroke_width=2, dot=False, is_animation_active=False, ), data=data, width=120, height=40, margin={ "top": 5, "right": 0, "left": 0, "bottom": 5, }, ) def ooc_progress_bar( percentage: rx.Var[float], ) -> rx.Component: """Renders a segmented progress bar for OOC percentage. Teal: 0-3%, Amber: 3-7%, Red: 7-10% """
yellow_width = ( rx.cond( percentage > 3, rx.cond( percentage <= 7, (percentage - 3) * 100 / 4, 100, ), 0, ).to_string() + "%" ) red_width = ( rx.cond( percentage > 7, rx.cond( percentage <= 10, (percentage - 7) * 100 / 3, 100, ), 0, ).to_string() + "%" ) return rx.el.div( rx.el.div( rx.el.div( style={"width": teal_width}, class_name="h-full bg-teal-500 rounded-l", ), class_name="w-1/3 h-full", ), rx.el.div( rx.el.div( style={"width": yellow_width}, class_name="h-full bg-amber-400", ), class_name="w-1/3 h-full", ), rx.el.div( rx.el.div(
teal_width = rx.cond(percentage <= 3, percentage * 100 / 3, 100).to_string() + "%"
from typing import Dict, List import reflex as rx from manufacturing_dashboard.states.dashboard_state import ( DashboardState, ) def sparkline_chart( data: rx.Var[List[Dict[str, int]]], ) -> rx.Component: """Renders a small sparkline chart for the metrics table.""" return rx.recharts.line_chart( rx.recharts.line( data_key="uv", stroke="#fbbf24", stroke_width=2, dot=False, is_animation_active=False, ), data=data, width=120, height=40, margin={ "top": 5, "right": 0, "left": 0, "bottom": 5, }, ) def ooc_progress_bar( percentage: rx.Var[float], ) -> rx.Component: """Renders a segmented progress bar for OOC percentage. Teal: 0-3%, Amber: 3-7%, Red: 7-10% """ teal_width = rx.cond(percentage <= 3, percentage * 100 / 3, 100).to_string() + "%"
red_width = ( rx.cond( percentage > 7, rx.cond( percentage <= 10, (percentage - 7) * 100 / 3, 100, ), 0, ).to_string() + "%" ) return rx.el.div( rx.el.div( rx.el.div( style={"width": teal_width}, class_name="h-full bg-teal-500 rounded-l", ), class_name="w-1/3 h-full", ), rx.el.div( rx.el.div( style={"width": yellow_width}, class_name="h-full bg-amber-400", ), class_name="w-1/3 h-full", ), rx.el.div( rx.el.div( style={"width": red_width}, class_name="h-full bg-red-500 rounded-r", ), class_name="w-1/3 h-full", ), class_name="w-24 h-3 bg-slate-600 rounded flex overflow-hidden shadow-inner", ) def
yellow_width = ( rx.cond( percentage > 3, rx.cond( percentage <= 7, (percentage - 3) * 100 / 4, 100, ), 0, ).to_string() + "%" )
"""Renders a small sparkline chart for the metrics table.""" return rx.recharts.line_chart( rx.recharts.line( data_key="uv", stroke="#fbbf24", stroke_width=2, dot=False, is_animation_active=False, ), data=data, width=120, height=40, margin={ "top": 5, "right": 0, "left": 0, "bottom": 5, }, ) def ooc_progress_bar( percentage: rx.Var[float], ) -> rx.Component: """Renders a segmented progress bar for OOC percentage. Teal: 0-3%, Amber: 3-7%, Red: 7-10% """ teal_width = rx.cond(percentage <= 3, percentage * 100 / 3, 100).to_string() + "%" yellow_width = ( rx.cond( percentage > 3, rx.cond( percentage <= 7, (percentage - 3) * 100 / 4, 100, ), 0, ).to_string() + "%" )
return rx.el.div( rx.el.div( rx.el.div( style={"width": teal_width}, class_name="h-full bg-teal-500 rounded-l", ), class_name="w-1/3 h-full", ), rx.el.div( rx.el.div( style={"width": yellow_width}, class_name="h-full bg-amber-400", ), class_name="w-1/3 h-full", ), rx.el.div( rx.el.div( style={"width": red_width}, class_name="h-full bg-red-500 rounded-r", ), class_name="w-1/3 h-full", ), class_name="w-24 h-3 bg-slate-600 rounded flex overflow-hidden shadow-inner", ) def pass_fail_indicator( status: rx.Var[bool], ) -> rx.Component: """Renders a small colored dot indicating pass (amber) or fail (red).""" return rx.el.div( class_name=rx.cond( status, "w-3 h-3 rounded-full bg-amber
red_width = ( rx.cond( percentage > 7, rx.cond( percentage <= 10, (percentage - 7) * 100 / 3, 100, ), 0, ).to_string() + "%" )
) red_width = ( rx.cond( percentage > 7, rx.cond( percentage <= 10, (percentage - 7) * 100 / 3, 100, ), 0, ).to_string() + "%" ) return rx.el.div( rx.el.div( rx.el.div( style={"width": teal_width}, class_name="h-full bg-teal-500 rounded-l", ), class_name="w-1/3 h-full", ), rx.el.div( rx.el.div( style={"width": yellow_width}, class_name="h-full bg-amber-400", ), class_name="w-1/3 h-full", ), rx.el.div( rx.el.div( style={"width": red_width}, class_name="h-full bg-red-500 rounded-r", ), class_name="w-1/3 h-full", ), class_name="w-24 h-3 bg-slate-600 rounded flex overflow-hidden shadow-inner", )
def metrics_summary() -> rx.Component: """Renders the main table for process control metrics.""" headers = [ "Parameter", "Count", "Trend", "OOC %", "% OOC Bar", "Status", ] return rx.el.div( rx.el.h2( "Process Control Metrics Summary", class_name="text-xl font-semibold text-slate-200 mb-4", ), rx.el.div( rx.el.table( rx.el.thead( rx.el.tr( rx.foreach( headers, lambda header: rx.el.th( header, class_name="px-5 py-3 text-left text-xs font-medium text-slate-400 uppercase tracking-wider border-b border-slate-700 bg-slate-800", ), ) ) ), rx.el.tbody( rx.foreach(
def pass_fail_indicator( status: rx.Var[bool], ) -> rx.Component: """Renders a small colored dot indicating pass (amber) or fail (red).""" return rx.el.div( class_name=rx.cond( status, "w-3 h-3 rounded-full bg-amber-400 shadow-md", "w-3 h-3 rounded-full bg-red-500 shadow-md", ) )
lass_name="w-1/3 h-full", ), rx.el.div( rx.el.div( style={"width": yellow_width}, class_name="h-full bg-amber-400", ), class_name="w-1/3 h-full", ), rx.el.div( rx.el.div( style={"width": red_width}, class_name="h-full bg-red-500 rounded-r", ), class_name="w-1/3 h-full", ), class_name="w-24 h-3 bg-slate-600 rounded flex overflow-hidden shadow-inner", ) def pass_fail_indicator( status: rx.Var[bool], ) -> rx.Component: """Renders a small colored dot indicating pass (amber) or fail (red).""" return rx.el.div( class_name=rx.cond( status, "w-3 h-3 rounded-full bg-amber-400 shadow-md", "w-3 h-3 rounded-full bg-red-500 shadow-md", ) ) def metrics_summary() -> rx.Component: """Renders the main table for process control metrics."""
return rx.el.div( rx.el.h2( "Process Control Metrics Summary", class_name="text-xl font-semibold text-slate-200 mb-4", ), rx.el.div( rx.el.table( rx.el.thead( rx.el.tr( rx.foreach( headers, lambda header: rx.el.th( header, class_name="px-5 py-3 text-left text-xs font-medium text-slate-400 uppercase tracking-wider border-b border-slate-700 bg-slate-800", ), ) ) ), rx.el.tbody( rx.foreach( DashboardState.process_metrics, lambda metric: rx.el.tr( rx.el.td( metric["parameter"], class_name="
headers = [ "Parameter", "Count", "Trend", "OOC %", "% OOC Bar", "Status", ]
from manufacturing_dashboard.states.dashboard_state import DashboardState def ooc_pie_chart() -> rx.Component: """Renders the Pie chart showing % OOC per Parameter.""" return rx.el.div( rx.el.h2( "% OOC per Parameter", class_name="text-xl font-semibold text-slate-200 mb-4 text-center", ), rx.recharts.pie_chart( rx.recharts.pie( rx.foreach( DashboardState.pie_data, lambda item, index: rx.recharts.cell(fill=item["fill"]), ), data=DashboardState.pie_data, data_key="value", name_key="name", cx="50%", cy="50%", outer_radius="80%", inner_radius="40%", padding_angle=2, label_line=False, label=False, is_animation_active=False, ), rx.recharts.legend(
import reflex as rx
import reflex as rx
def ooc_pie_chart() -> rx.Component: """Renders the Pie chart showing % OOC per Parameter.""" return rx.el.div( rx.el.h2( "% OOC per Parameter", class_name="text-xl font-semibold text-slate-200 mb-4 text-center", ), rx.recharts.pie_chart( rx.recharts.pie( rx.foreach( DashboardState.pie_data, lambda item, index: rx.recharts.cell(fill=item["fill"]), ), data=DashboardState.pie_data, data_key="value", name_key="name", cx="50%", cy="50%", outer_radius="80%", inner_radius="40%", padding_angle=2, label_line=False, label=False, is_animation_active=False, ), rx.recharts.legend( layout="vertical", vertical_align="middle",
from manufacturing_dashboard.states.dashboard_state import DashboardState
from manufacturing_dashboard.states.dashboard_state import DashboardState def time_completion_circle() -> rx.Component: """Renders the circular progress indicator for time to completion.""" radius = 40 return rx.el.svg( rx.el.circle( cx="50", cy="50", r=str(radius), stroke="#334155", stroke_width="8", fill="none", class_name="text-slate-700", ), rx.el.circle( cx="50", cy="50", r=str(radius), stroke="#06b6d4", stroke_width="8", fill="none", stroke_dasharray=DashboardState.get_time_stroke_dasharray, stroke_linecap="round", transform="rotate(-90 50 50)", class_name="transition-all duration-300 ease-linear", ), rx.el.text( DashboardState.time_to_completion.to(int).to_string() + "%", x="50", y="50",
import reflex as rx
import reflex as rx
def time_completion_circle() -> rx.Component: """Renders the circular progress indicator for time to completion.""" radius = 40 return rx.el.svg( rx.el.circle( cx="50", cy="50", r=str(radius), stroke="#334155", stroke_width="8", fill="none", class_name="text-slate-700", ), rx.el.circle( cx="50", cy="50", r=str(radius), stroke="#06b6d4", stroke_width="8", fill="none", stroke_dasharray=DashboardState.get_time_stroke_dasharray, stroke_linecap="round", transform="rotate(-90 50 50)", class_name="transition-all duration-300 ease-linear", ), rx.el.text( DashboardState.time_to_completion.to(int).to_string() + "%", x="50", y="50", text_anchor="middle", dominant_baseline="middle",
from manufacturing_dashboard.states.dashboard_state import DashboardState
cle( cx="50", cy="50", r=str(radius), stroke="#334155", stroke_width="8", fill="none", class_name="text-slate-700", ), rx.el.circle( cx="50", cy="50", r=str(radius), stroke="#06b6d4", stroke_width="8", fill="none", stroke_dasharray=DashboardState.get_time_stroke_dasharray, stroke_linecap="round", transform="rotate(-90 50 50)", class_name="transition-all duration-300 ease-linear", ), rx.el.text( DashboardState.time_to_completion.to(int).to_string() + "%", x="50", y="50", text_anchor="middle", dominant_baseline="middle", font_size="18", font_weight="bold", fill="#cbd5e1", ), view_box="0 0 100 100", class_name="w-28 h-28 mx-auto", )
def sidebar() -> rx.Component: """Renders the sidebar component.""" return rx.el.aside( rx.el.div( rx.el.div( rx.el.img( src="/favicon.ico", alt="Company Logo", class_name="h-8 w-auto mr-3", ), rx.el.span( "Process Monitor", class_name="text-xl font-bold text-white whitespace-nowrap", ), class_name="flex items-center justify-center h-16 border-b border-slate-700", ), rx.el.div( rx.el.h3( "Operator Info", class_name="text-xs font-semibold text-slate-500 uppercase tracking-wider mb-3 px-4", ), rx.el.div( rx.el.span( "Operator ID:", class_name="text-slate-400", ), r
def specification_item(label: str, value: rx.Var[str | float]) -> rx.Component: """Renders a single specification item row.""" return rx.el.div( rx.el.span(label, class_name="text-slate-400 text-sm"), rx.el.span( value.to_string(), class_name="text-slate-200 text-sm font-mono", ), class_name="flex justify-between items-center py-1.5 px-3 rounded bg-slate-700/50", )
from manufacturing_dashboard.states.dashboard_state import ( DashboardState, SpcDataPoint, ) def render_ooc_dot( point: rx.Var[SpcDataPoint], ) -> rx.Component: """Renders a ReferenceDot for an out-of-control point.""" return rx.recharts.reference_dot( x=point["name"], y=point["value"].to(str), r=5, fill="#ef4444", stroke="none", is_front=True, if_overflow="discard", ) def spc_chart() -> rx.Component: """Renders the Live SPC (Statistical Process Control) chart.""" return rx.el.div( rx.el.div( rx.el.h2( "Live SPC Chart: Diameter", class_name="text-xl font-semibold text-slate-200", ), rx.el.div( rx.el.div( rx.el.div(class_name="w-3 h-0.5 bg-amber-400 mr-1.5"), rx.el.span( "Measurement", class_name="text-xs text-slate-4
import reflex as rx
import reflex as rx
def render_ooc_dot( point: rx.Var[SpcDataPoint], ) -> rx.Component: """Renders a ReferenceDot for an out-of-control point.""" return rx.recharts.reference_dot( x=point["name"], y=point["value"].to(str), r=5, fill="#ef4444", stroke="none", is_front=True, if_overflow="discard", ) def spc_chart() -> rx.Component: """Renders the Live SPC (Statistical Process Control) chart.""" return rx.el.div( rx.el.div( rx.el.h2( "Live SPC Chart: Diameter", class_name="text-xl font-semibold text-slate-200", ), rx.el.div( rx.el.div( rx.el.div(class_name="w-3 h-0.5 bg-amber-400 mr-1.5"), rx.el.span( "Measurement", class_name="text-xs text-slate-400 mr-4", ), class_name="flex items-center", )
from manufacturing_dashboard.states.dashboard_state import ( DashboardState, SpcDataPoint, )
import reflex as rx from manufacturing_dashboard.states.dashboard_state import ( DashboardState, SpcDataPoint, )
def spc_chart() -> rx.Component: """Renders the Live SPC (Statistical Process Control) chart.""" return rx.el.div( rx.el.div( rx.el.h2( "Live SPC Chart: Diameter", class_name="text-xl font-semibold text-slate-200", ), rx.el.div( rx.el.div( rx.el.div(class_name="w-3 h-0.5 bg-amber-400 mr-1.5"), rx.el.span( "Measurement", class_name="text-xs text-slate-400 mr-4", ), class_name="flex items-center", ), rx.el.div( rx.el.div(class_name="w-2.5 h-2.5 bg-red-500 rounded-full mr-1.5"), rx.el.span( "Out of Control", class_name="text-xs text-slate-400 mr-4", ), class_name="flex items-center", ),
def render_ooc_dot( point: rx.Var[SpcDataPoint], ) -> rx.Component: """Renders a ReferenceDot for an out-of-control point.""" return rx.recharts.reference_dot( x=point["name"], y=point["value"].to(str), r=5, fill="#ef4444", stroke="none", is_front=True, if_overflow="discard", )
import random from typing import Dict, List, TypedDict import reflex as rx from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)]
import asyncio
import asyncio
from typing import Dict, List, TypedDict import reflex as rx from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = f
import random
import asyncio import random
import reflex as rx from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1,
from typing import Dict, List, TypedDict
import asyncio import random from typing import Dict, List, TypedDict
from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digi
import reflex as rx
import asyncio import random from typing import Dict, List, TypedDict import reflex as rx
fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positi
from faker import Faker
import asyncio import random from typing import Dict, List, TypedDict import reflex as rx from faker import Faker
class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True,
fake = Faker()
import asyncio import random from typing import Dict, List, TypedDict import reflex as rx from faker import Faker fake = Faker()
class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40,
class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool
import asyncio import random from typing import Dict, List, TypedDict import reflex as rx from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool
class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data
class SpcDataPoint(TypedDict): name: int value: float
import asyncio import random from typing import Dict, List, TypedDict import reflex as rx from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float
class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail":
class PieChartData(TypedDict): name: str value: float fill: str
import asyncio import random from typing import Dict, List, TypedDict import reflex as rx from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str
def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } ) return metrics def _gene
class DistributionPoint(TypedDict): name: str value: int
import asyncio import random from typing import Dict, List, TypedDict import reflex as rx from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int
def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } ) return metrics def _generate_spc_data( num_points: int = 30, base_min: float = 0.415, base_max: float = 0.428, ooc_freq_up: int = 5, ooc_amount_up: float
def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)]
import asyncio import random from typing import Dict, List, TypedDict import reflex as rx from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)]
def _generate_spc_data( num_points: int = 30, base_min: float = 0.415, base_max: float = 0.428, ooc_freq_up: int = 5, ooc_amount_up: float = 0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = [] for i in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min, max_value=base_max, ) if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5) data.append({
def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } ) return metrics
import asyncio import random from typing import Dict, List, TypedDict import reflex as rx from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]:
random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } ) return metrics def _generate_spc_data( num_points: int = 30, base_min: float = 0.415, base_max: float = 0.428, ooc_freq_up: int = 5, ooc_amount_up: float = 0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = [] for i in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4,
parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ]
import asyncio import random from typing import Dict, List, TypedDict import reflex as rx from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters)
for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } ) return metrics def _generate_spc_data( num_points: int = 30, base_min: float = 0.415, base_max: float = 0.428, ooc_freq_up: int = 5, ooc_amount_up: float = 0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = [] for i in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min,
metrics = []
import asyncio import random from typing import Dict, List, TypedDict import reflex as rx from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = []
return metrics def _generate_spc_data( num_points: int = 30, base_min: float = 0.415, base_max: float = 0.428, ooc_freq_up: int = 5, ooc_amount_up: float = 0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = [] for i in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min, max_value=base_max, ) if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5)
for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } )
import asyncio import random from typing import Dict, List, TypedDict import reflex as rx from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics):
ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } ) return metrics def _generate_spc_data( num_points: int = 30, base_min: float = 0.415, base_max: float = 0.428, ooc_freq_up: int = 5, ooc_amount_up: float = 0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = [] for i in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min, max_value=base_max, ) if random.random() < 0.1:
param = parameters[i % len(parameters)]
random from typing import Dict, List, TypedDict import reflex as rx from faker import Faker fake = Faker() class MetricData(TypedDict): parameter: str count: int sparkline_data: List[Dict[str, int]] ooc_percent: float pass_fail: bool class SpcDataPoint(TypedDict): name: int value: float class PieChartData(TypedDict): name: str value: float fill: str class DistributionPoint(TypedDict): name: str value: int def _generate_sparkline_data( count: int = 20, ) -> List[Dict[str, int]]: return [{"uv": fake.random_int(300, 500)} for _ in range(count)] def _generate_process_metrics( num_metrics: int = 4, ) -> List[MetricData]: parameters = [ "DIAMETER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)]
metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } ) return metrics def _generate_spc_data( num_points: int = 30, base_min: float = 0.415, base_max: float = 0.428, ooc_freq_up: int = 5, ooc_amount_up: float = 0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = [] for i in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min, max_value=base_max, ) if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.u
ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, )
ER", "ETCH1", "FILM-THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } ) return metrics def _generate_spc_data( num_points: int = 30, base_min: float = 0.415, base_max: float = 0.428, ooc_freq_up: int = 5, ooc_amount_up: float = 0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = []
return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color,
for i in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min, max_value=base_max, ) if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5) data.append({"name": i, "value": round(base_value, 4)})
THICKNESS", "ETCH2", "LINE-WIDTH", "OVERLAY", "VOLUME", ] random.shuffle(parameters) metrics = [] for i in range(num_metrics): param = parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } ) return metrics def _generate_spc_data( num_points: int = 30, base_min: float = 0.415, base_max: float = 0.428, ooc_freq_up: int = 5, ooc_amount_up: float = 0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = [] for i in range(num_points):
if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5) data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for
base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min, max_value=base_max, )
parameters[i % len(parameters)] ooc = fake.pyfloat( left_digits=1, right_digits=1, positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } ) return metrics def _generate_spc_data( num_points: int = 30, base_min: float = 0.415, base_max: float = 0.428, ooc_freq_up: int = 5, ooc_amount_up: float = 0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = [] for i in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min, max_value=base_max, )
data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric[
if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5)
positive=True, max_value=10.0, ) metrics.append( { "parameter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } ) return metrics def _generate_spc_data( num_points: int = 30, base_min: float = 0.415, base_max: float = 0.428, ooc_freq_up: int = 5, ooc_amount_up: float = 0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = [] for i in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min, max_value=base_max, ) if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5)
data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric[
elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5)
eter": param, "count": fake.random_int(40, 60), "sparkline_data": _generate_sparkline_data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } ) return metrics def _generate_spc_data( num_points: int = 30, base_min: float = 0.415, base_max: float = 0.428, ooc_freq_up: int = 5, ooc_amount_up: float = 0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = [] for i in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min, max_value=base_max, ) if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5)
data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric[
elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5)
data(), "ooc_percent": round(ooc, 1), "pass_fail": ooc <= 7.0, } ) return metrics def _generate_spc_data( num_points: int = 30, base_min: float = 0.415, base_max: float = 0.428, ooc_freq_up: int = 5, ooc_amount_up: float = 0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = [] for i in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min, max_value=base_max, ) if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5)
data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric[
elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5)
amount_up: float = 0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = [] for i in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min, max_value=base_max, ) if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5) data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]:
colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5),
pie_data = []
0.005, ooc_freq_down: int = 7, ooc_amount_down: float = 0.008, ) -> List[SpcDataPoint]: data = [] for i in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min, max_value=base_max, ) if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5) data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = []
colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( {
colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ]
in range(num_points): base_value = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=base_min, max_value=base_max, ) if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5) data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ]
color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)],
colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ]
e=base_min, max_value=base_max, ) if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5) data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ]
color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } )
color_index_fail = 0
ax_value=base_max, ) if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5) data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0
for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1
color_index_pass = 0
) if random.random() < 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5) data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0
if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins
for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } )
< 0.1: base_value += random.uniform(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5) data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics:
if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins
if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } )
orm(ooc_amount_up * 1.5, ooc_amount_up * 2.5) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5) data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1:
pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: r
if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1
) elif random.random() < 0.1: base_value -= random.uniform(ooc_amount_down * 1.5, ooc_amount_down * 2.5) elif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5) data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]:
color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points."
fill_color = colors_fail[color_index_fail % len(colors_fail)]
lif i % ooc_freq_up == 0: base_value += random.uniform(ooc_amount_up * 0.5, ooc_amount_up * 1.5) elif i % ooc_freq_down == 0: base_value -= random.uniform(ooc_amount_down * 0.5, ooc_amount_down * 1.5) data.append({"name": i, "value": round(base_value, 4)}) return data def _generate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else:
color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)
fill_color = colors_pass[color_index_pass % len(colors_pass)]
rate_pie_data( metrics: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } )
return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415,
if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1
s: List[MetricData], ) -> List[PieChartData]: pie_data = [] colors_fail = [ "#f87171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data:
for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = []
default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ]
171", "#ef4444", "#dc2626", "#fb923c", "#f97316", ] colors_pass = [ "#2dd4bf", "#14b8a6", "#0d9488", "#60a5fa", "#3b82f6", "#a78bfa", "#93c5fd", ] color_index_fail = 0 color_index_pass = 0 for metric in metrics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ]
return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415,
for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1
ics: if metric["ooc_percent"] > 0.1: if not metric["pass_fail"]: fill_color = colors_fail[color_index_fail % len(colors_fail)] color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data
initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data: List[DistributionPoint] = initial_distribution_data def _reset_to_initial(self): """Resets data to a new initial state.""" self.process_metrics = _generate_process_metrics()
def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data
color_index_fail += 1 else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points."""
values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for
if not spc_data: return []
else: fill_color = colors_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return []
min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_
values = [p["value"] for p in spc_data]
rs_pass[color_index_pass % len(colors_pass)] color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data]
if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to
min_val, max_val = (min(values), max(values))
color_index_pass += 1 pie_data.append( { "name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values))
bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float =
if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}]
"name": metric["parameter"], "value": metric["ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}]
bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: f
bin_width = (max_val - min_val) / num_bins
ooc_percent"], "fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins
dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data
for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1
"fill": fill_color, } ) if not pie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values:
if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: L
bin_index = min(int((val - min_val) / bin_width), num_bins - 1)
ie_data: default_low_ooc = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1)
bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChart
if val == max_val: bin_index = num_bins - 1
c = [ ("Diameter", 0.5), ("Etch1", 0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val:
bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChart
bin_index = num_bins - 1
0.3), ] for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1
for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data:
dist_data = []
for name, value in default_low_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = []
return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data: List[DistributionPoint] = initial_distribution_data def _reset_to_initial(self): """Resets data to a new initial state.""" self.process_metrics = _generat
for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]})
ow_ooc: pie_data.append( { "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins):
bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data: List[DistributionPoint] = initial_distribution_data def _reset_to_ini
bin_start = min_val + i * bin_width
{ "name": name, "value": value, "fill": colors_pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width
dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data: List[DistributionPoint] = initial_distribution_data def _reset_to_initial(self): """Resets data to
bin_name = f"{bin_start:.3f}"
pass[color_index_pass % len(colors_pass)], } ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data
initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data: List[DistributionPoint] = initial_distribution_data def _reset_to_initial(self): """Resets data to a new initial state.""" self.process_metrics = _generate_process_metrics() self.spc_chart_data = _generate_spc_data(base_min
initial_process_metrics = _generate_process_metrics()
} ) color_index_pass += 1 return pie_data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics()
initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data: List[DistributionPoint] = initial_distribution_data def _reset_to_initial(self): """Resets data to a new initial state.""" self.process_metrics = _generate_process_metrics() self.spc_chart_data = _generate_spc_data(base_min=self.lsl, base_max=self.usl) self.pie_data = _generate_pie_da
initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424)
data def _generate_distribution_data( spc_data: List[SpcDataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424)
initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data: List[DistributionPoint] = initial_distribution_data def _reset_to_initial(self): """Resets data to a new initial state.""" self.process_metrics = _generate_process_metrics() self.spc_chart_data = _generate_spc_data(base_min=self.lsl, base_max=self.usl) self.pie_data = _generate_pie_data(self.process_metrics) self.distribution_data = _gene
initial_pie_data = _generate_pie_data(initial_process_metrics)
ataPoint], num_bins=8 ) -> List[DistributionPoint]: """Generates histogram-like data from SPC points.""" if not spc_data: return [] values = [p["value"] for p in spc_data] min_val, max_val = (min(values), max(values)) if min_val == max_val: return [{"name": f"{min_val:.3f}", "value": len(values)}] bin_width = (max_val - min_val) / num_bins bins = [0] * num_bins for val in values: bin_index = min(int((val - min_val) / bin_width), num_bins - 1) if val == max_val: bin_index = num_bins - 1 bins[bin_index] += 1 dist_data = [] for i in range(num_bins): bin_start = min_val + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics)
class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data: List[DistributionPoint] = initial_distribution_data def _reset_to_initial(self): """Resets data to a new initial state.""" self.process_metrics = _generate_process_metrics() self.spc_chart_data = _generate_spc_data(base_min=self.lsl, base_max=self.usl) self.pie_data = _generate_pie_data(self.process_metrics) self.distribution_data = _generate_distribution_data(self.spc_chart_data) @rx.event(background=True
initial_distribution_data = _generate_distribution_data(initial_spc_data)
l + i * bin_width bin_name = f"{bin_start:.3f}" dist_data.append({"name": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data: List[DistributionPoint] = initial_distribution_data
@rx.event(background=True) async def start_process(self): """Simulates starting a process and updating data over time using Faker.""" async with self: if self.is_running: return self.is_running = True self.time_to_completion = 0.0 update_interval = 0.1 data_gen_interval = 10 metrics_update_interval = 30 for i in range(101): async with self: self.time_to_completion = float(i) if i > 0 and i % data_gen_interval == 0: last_name = ( self.spc_chart_data[-1]["name"] if self.spc_chart_data else -1 ) new_name = last_name + 1 new_value_base = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=self.lsl - 0.002,
def _reset_to_initial(self): """Resets data to a new initial state.""" self.process_metrics = _generate_process_metrics() self.spc_chart_data = _generate_spc_data(base_min=self.lsl, base_max=self.usl) self.pie_data = _generate_pie_data(self.process_metrics) self.distribution_data = _generate_distribution_data(self.spc_chart_data)
": bin_name, "value": bins[i]}) return dist_data initial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data: List[DistributionPoint] = initial_distribution_data def _reset_to_initial(self): """Resets data to a new initial state."""
self.spc_chart_data = _generate_spc_data(base_min=self.lsl, base_max=self.usl) self.pie_data = _generate_pie_data(self.process_metrics) self.distribution_data = _generate_distribution_data(self.spc_chart_data) @rx.event(background=True) async def start_process(self): """Simulates starting a process and updating data over time using Faker.""" async with self: if self.is_running: return self.is_running = True self.time_to_completion = 0.0 update_interval = 0.1 data_gen_interval = 10 metrics_update_interval = 30 for i in range(101): async with self: self.time_to_completion = float(i) if i > 0 and i % data_gen_interval == 0: last_name = ( self.spc_chart_data[-1]["name"] if self.spc_chart_data else -1 ) new_name = last_name + 1
self.process_metrics = _generate_process_metrics()
ial_process_metrics = _generate_process_metrics() initial_spc_data = _generate_spc_data(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data: List[DistributionPoint] = initial_distribution_data def _reset_to_initial(self): """Resets data to a new initial state.""" self.process_metrics = _generate_process_metrics()
self.pie_data = _generate_pie_data(self.process_metrics) self.distribution_data = _generate_distribution_data(self.spc_chart_data) @rx.event(background=True) async def start_process(self): """Simulates starting a process and updating data over time using Faker.""" async with self: if self.is_running: return self.is_running = True self.time_to_completion = 0.0 update_interval = 0.1 data_gen_interval = 10 metrics_update_interval = 30 for i in range(101): async with self: self.time_to_completion = float(i) if i > 0 and i % data_gen_interval == 0: last_name = ( self.spc_chart_data[-1]["name"] if self.spc_chart_data else -1 ) new_name = last_name + 1 new_value_base = fake.pyfloat( left_digits=0,
self.spc_chart_data = _generate_spc_data(base_min=self.lsl, base_max=self.usl)
(base_min=0.415, base_max=0.424) initial_pie_data = _generate_pie_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data: List[DistributionPoint] = initial_distribution_data def _reset_to_initial(self): """Resets data to a new initial state.""" self.process_metrics = _generate_process_metrics() self.spc_chart_data = _generate_spc_data(base_min=self.lsl, base_max=self.usl)
self.distribution_data = _generate_distribution_data(self.spc_chart_data) @rx.event(background=True) async def start_process(self): """Simulates starting a process and updating data over time using Faker.""" async with self: if self.is_running: return self.is_running = True self.time_to_completion = 0.0 update_interval = 0.1 data_gen_interval = 10 metrics_update_interval = 30 for i in range(101): async with self: self.time_to_completion = float(i) if i > 0 and i % data_gen_interval == 0: last_name = ( self.spc_chart_data[-1]["name"] if self.spc_chart_data else -1 ) new_name = last_name + 1 new_value_base = fake.pyfloat( left_digits=0, right_digits=4, pos
self.pie_data = _generate_pie_data(self.process_metrics)
_data(initial_process_metrics) initial_distribution_data = _generate_distribution_data(initial_spc_data) class DashboardState(rx.State): """Handles the state and logic for the dashboard application.""" operator_id: str = fake.bothify(text="OP-####") time_to_completion: float = 0.0 is_running: bool = False ucl: float = 0.432 lcl: float = 0.407 target_mean: float = 0.42 usl: float = 0.424 lsl: float = 0.415 process_metrics: List[MetricData] = initial_process_metrics spc_chart_data: List[SpcDataPoint] = initial_spc_data pie_data: List[PieChartData] = initial_pie_data distribution_data: List[DistributionPoint] = initial_distribution_data def _reset_to_initial(self): """Resets data to a new initial state.""" self.process_metrics = _generate_process_metrics() self.spc_chart_data = _generate_spc_data(base_min=self.lsl, base_max=self.usl) self.pie_data = _generate_pie_data(self.process_metrics)
@rx.event(background=True) async def start_process(self): """Simulates starting a process and updating data over time using Faker.""" async with self: if self.is_running: return self.is_running = True self.time_to_completion = 0.0 update_interval = 0.1 data_gen_interval = 10 metrics_update_interval = 30 for i in range(101): async with self: self.time_to_completion = float(i) if i > 0 and i % data_gen_interval == 0: last_name = ( self.spc_chart_data[-1]["name"] if self.spc_chart_data else -1 ) new_name = last_name + 1 new_value_base = fake.pyfloat( left_digits=0, right_digits=4, positive=True, min_value=self.lsl - 0.002,
self.distribution_data = _generate_distribution_data(self.spc_chart_data)