⚡ TinPyUI Framework v1.7.0

Hardware-Accelerated Omni-Platform UI Engine & Vector Graphics Pipeline

TinPyUI is an ultra-high-performance, memory-safe, zero-dependency, hardware-accelerated UI application framework. It unites a Native C-FFI Sub-Millisecond Vector Surface Engine for Desktop (Windows DirectX 12, macOS Apple Metal, Linux GTK4/Wayland) and Mobile (Android Touch Haptics, Apple iOS Retina) with a Hybrid Semantic DOM + WebGL 2.0 / WebGPU Shader Layer compiled via Go to WebAssembly (tinui_engine.wasm).

📚 Full Technical Documentation & Architecture Manual: Looking for the complete technical manual that explains TinPyUI in full architectural detail? 👉 The TinPyUI Architecture & Developer Manual (tinpyui-docs.md) | View on GitHub

Includes all 16 chapters: Internal Architecture, AST Compiler Pipelines, Declarative .tin Syntax, State Management & Signals, WebGL Shaders, Component API Catalog, Native Desktop & Mobile Packaging, Reactive Databases (tin.connect), Real-Time Sockets, and Production Blueprints.

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📑 Table of Contents

• 📖 Official Full Technical Manual & Architecture Guide (tinpyui-docs.md)

1. ✨ Genuine Technical Facts & Highlights
2. 🏛️ Architectural Reality & The "Zero-DOM" Definition
3. 📊 Deep Architectural Comparison
4. 🚀 Quickstart: 3 Clean Commands
5. 💻 Universal Cross-Platform Native Runtime
6. ⚡ Pure Python Declarative UI Framework (tinpyui)
7. 📖 Declarative .tin Indentation-Based Syntax
8. 🧱 Complete Component API Catalog & Enterprise Suite
9. ⚡ Reactive State Signals & Symplectic Spring Physics (120 FPS)
10. 📜 High-Volume Spatial Virtualization (VirtualStack & VirtualList)
11. 🗄️ Universal Reactive Database Suite (tin.connect)
    • PostgreSQL Relational SQL
    • MongoDB Document NoSQL
    • SQLite & Ephemeral In-Memory Storage
    • Redis Key-Value & Reactive Pub/Sub Signals
    • DuckDB & ClickHouse Vectorized Analytics
    • Reactive Live Queries (LiveQuery)
    • Persistent Key-Value Store (tin.use_store)
    • Active Record Declarative Models (@tin.model)
12. 🪄 Enterprise UI & Low-Code Declarative Suite (DataGrid, AIChat, LiveDataTable & AutoCRUD)
13. 🎨 Extended Hardware GPU Shader Library
14. 📡 Real-Time Streams & Sockets (use_socket & use_sse)
15. 📱 Omni-Platform Packaging & Touch Gestures (Android, iOS, Desktop)
16. 🔒 Enterprise Security & Hardware Telemetry Suite
17. 🧠 Intermediate Representation (IR) Compiler & Dynamic Export (app.export_ir)
18. 🖥️ How to Compile .tin Code on Every OS (Windows, macOS, Linux)
19. 🛠️ CLI Workflows, Interactive REPL & Live Reload
20. 🚀 Production Deployment & Backend Integration
21. 🌟 Full-Stack Production Master Blueprint
22. 🤝 Contributing to TinPyUI
23. 📄 License

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📖 Official Full Documentation & Architecture Manual

💡 The Definitive Guide: Looking for the full architecture manual explaining TinPyUI from compiler internals to production deployment? Read the complete 16-chapter documentation:

🚀 The TinPyUI Architecture & Developer Manual (tinpyui-docs.md) (Mirror available on GitHub: https://github.com/barathanandh-coder/TinUi/blob/main/tinpyui-docs.md)

📑 Documentation Chapters & Topics

Chapter	Topic & Coverage	Direct Chapter Link
Chapter 1	The Architectural Reality & Core Philosophy Dispelling the "Zero-DOM" myth, hybrid DOM + WebGL architecture, 4 core pillars	Read Chapter 1 ➔
Chapter 2	Deep Architectural Comparison How TinPyUI compares against React/Next.js, Flutter Web, PyScript, Streamlit, and Tauri	Read Chapter 2 ➔
Chapter 3	The Intermediate Representation (IR) Pipeline Lexical grammar, AST tokenization, binary stride layout, and WASM memory bridge	Read Chapter 3 ➔
Chapter 4	The Declarative .tin Syntax Specification Pythonic indentation, reactive signal bindings, scope hierarchies, component functions	Read Chapter 4 ➔
Chapter 5	Multi-Scene Routing & State Management Granular signals, reactive computations, view stack transitions, router history	Read Chapter 5 ➔
Chapter 6	The Hardware Layer: WebGL GPU Shaders GLSL compilation, uniforms, particle simulations, cyberpunk wave surfaces	Read Chapter 6 ➔
Chapter 7	Complete Component API Catalog Layout containers, forms, typography, feedback widgets, shaders, and data grids	Read Chapter 7 ➔
Chapter 8	Developer Workflow & CLI Guide Installing CLI, scaffolding (tinpyui new), development live reload, compiling to WebGL	Read Chapter 8 ➔
Chapter 9	Native Desktop Shells & Cross-Platform Packaging DirectX 12, Apple Metal, GTK4/Wayland, C-FFI zero-copy mmap IPC	Read Chapter 9 ➔
Chapter 10	Security Architecture & Memory Safety Sandboxing, bounds checking, buffer overrun prevention, zero unsafe memory leaks	Read Chapter 10 ➔
Chapter 11	Production Deployment & Backend Integration FastAPI, Flask, Django, Node.js, Go backend integration, CDN distribution	Read Chapter 11 ➔
Chapter 12	High-Volume Scalability & Advanced Subsystems Spatial virtualization (VirtualStack, VirtualList), symplectic spring physics	Read Chapter 12 ➔
Chapter 13	Universal Reactive Database Suite PostgreSQL, MongoDB, SQLite, Redis, DuckDB, LiveQuery, @tin.model Active Record	Read Chapter 13 ➔
Chapter 14	Real-Time Sockets, Native OS Dialogs & IR Export WebSockets (use_socket), SSE (use_sse), file pickers, runtime JSON IR export	Read Chapter 14 ➔
Chapter 15	Full-Stack Architecture & Production Recipes Complete SaaS dashboard, telemetry streaming, dynamic AutoCRUD admin panels	Read Chapter 15 ➔
Chapter 16	Omni-Platform v1.7.0 & Mobile Packaging Android APK touch haptics, Apple iOS Retina, native mobile packaging pipelines	Read Chapter 16 ➔

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✨ Genuine Technical Facts & Highlights

• 🪶 100% Zero External PIP Dependencies: The entire Python core (tinpyui-ff) runs on Python 3.7+ standard library modules (ctypes, mmap, json, threading, socketserver, http.server). No external wheels or heavy runtime installs required.
• ⚡ Zero-Copy Shared RAM IPC: Uses an anonymous 4MB operating system memory map (mmap) to exchange 16-byte packed C-structs directly between Python and the native C++ window host, completely bypassing JSON serialization latency.
• 🚀 Ahead-of-Time (AOT) Static Compilation: tinpyui build app.tin --dist ./dist --target webgl compiles indentation layouts down to compact binary bytecode matrices (TINB) and static web deployment bundles with zero runtime parsing overhead.
• ⚡ Zero-Copy WebAssembly Linear Memory Bridge: Maps node transforms and shader uniforms into a fixed 48-byte linear memory stride directly readable by WebGL vertex attributes.
• 🔥 Sub-Millisecond Indentation HMR: Incremental AST diffing updates uniforms and node parameters live without remounting the WebGL canvas.
• 🧩 Official VS Code Extension & LSP: Includes TextMate syntax grammar, real-time indentation diagnostics, and tag autocompletion (vscode-tinpyui/).
• 📦 Compact ~2.8 MB Standalone Native Executable: Built upon lightweight native webview hosts (webview2 on Windows DirectX 12, WKWebView on macOS Metal, WebKitGTK on Linux) instead of bundling 150MB+ Chromium binaries.
• 🛡️ Defeats the "Black Screen of Death": Explicitly interrogates the GPU after compilation and linking (glGetShaderiv / getShaderParameter checking COMPILE_STATUS & LINK_STATUS). Syntax errors immediately trigger an interactive diagnostic crash overlay with exact line numbers.
• 🏛️ Hybrid Semantic DOM + WebGL GPU Engine: Renders standard HTML elements for crystal-clear typography, accessibility (a11y), and selection, while offloading visual effects to an isolated 60/120 FPS WebGL shader canvas.
• ⚡ Granular Reactive State Signals: O(1) state cells (tin.Signal) trigger direct node updates with zero Virtual DOM tree diffing overhead.
• 🚀 Unified 3-Command Toolchain: One single CLI (tinpyui, aliased to tinui) with only 3 clean commands: new, run, and build.

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🏛️ Architectural Reality & The "Zero-DOM" Definition

⚠️ Dispelling the "Zero-DOM" Myth: What TinPyUI Actually Is

In modern web development, "Zero-DOM" is frequently used as a buzzword. To be technically precise and transparent: TinPyUI is NOT a raw Canvas-only blitter (like Flutter Web CanvasKit) that discards the browser DOM completely.

Rendering everything to a raw <canvas> causes severe web usability failures:

• ❌ Broken text selection & native copy-paste.
• ❌ Zero accessibility (a11y) support for screen readers.
• ❌ Broken search engine indexing (SEO).
• ❌ Inability to use native browser password managers, autofill, and translation.

🎯 How TinPyUI Actually Implements "Zero-DOM"

TinPyUI achieves the speed and throughput benefits of "Zero-DOM" through two targeted architectural pillars while preserving genuine HTML usability:

1. Zero Virtual DOM (Zero-VDOM Overhead):
   • React, Vue, and similar frameworks suffer from Virtual DOM overhead: allocating massive JavaScript in-memory component trees, diffing old vs. new trees, and executing expensive reconciliations.
   • TinPyUI has zero Virtual DOM overhead. Fine-grained reactive signals (tin.Signal) mutate exact DOM nodes and WebAssembly linear memory targets directly in $O(1)$ time with zero diffing overhead.
2. Zero-DOM Hardware GPU Pipeline:
   • Heavy visual workloads (volumetric fog, particle simulations, cyberpunk wave surfaces, bloom, and dynamic GLSL fragment shaders) completely bypass the DOM tree.
   • They execute directly on an isolated WebGL 2.0 / WebGPU hardware-accelerated canvas at 60/120 FPS with zero CPU layout interruptions or DOM reflow penalties.
3. Hybrid Semantic DOM for Core Usability:
   • Typography, buttons, inputs, links, and layout containers remain standard, semantic HTML5 elements.
   • You get 100% native browser copy-paste, full screen-reader accessibility (a11y), instant search engine indexing (SEO), and native browser autofill.

+-----------------------------------------------------------------------------------+
|                        TINPYUI DUAL-ENGINE ARCHITECTURE                           |
+-----------------------------------------------------------------------------------+
|  [ .tin Source Code ]  ──▶  [ Go AOT Compiler ]  ──▶  [ Intermediate Rep (IR) ]   |
+-----------------------------------------------------------------------------------+
                                          │
                                          ▼
+-----------------------------------------------------------------------------------+
|                     WASM RUNTIME KERNEL (tinui_engine.wasm)                       |
+-----------------------------------------+-----------------------------------------+
|          LAYER A: DOM ENGINE            |       LAYER B: HARDWARE GPU SHADER      |
|  - Semantic HTML5 Elements              |  - WebGL 2.0 / WebGPU Surfaces          |
|  - Flexbox & Dynamic CSS Tokens         |  - Custom GLSL Fragment Shaders         |
|  - Reactive State & Input Bindings      |  - 120 FPS Cyber Waves & Particle Dust  |
|  - Native A11y & SEO Hydration Shell    |  - Zero CPU Layout Interruptions        |
+-----------------------------------------+-----------------------------------------+

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📊 Deep Architectural Comparison

Universal Framework Matrix

Feature / Metric	TinPyUI v1.7	Taipy GUI	Textual (TUI)	Streamlit / Flet	React / Next.js	Flutter Web
Primary Language	Pythonic (.tin) & Pure Python	Python + React internals	Python (Rich/Textual)	Python Backend	JavaScript / TypeScript	Dart
Execution Engine	Go/Rust WebAssembly + Native C-FFI	Server Web Server + WebSocket	Terminal ANSI escape loops	Server WebSocket IPC	Client VDOM Tree Diffing	Skia / Impeller Canvas
Rendering Target	Hybrid Semantic DOM + WebGL GPU	Browser DOM (via React)	Terminal Character Cells	Browser DOM	Browser DOM	Raw Canvas (No DOM)
External PIP Deps	0 (Pure Standard Library)	Heavy (Flask, Pandas, React)	Rich, typing-extensions	Heavy (Tornado, PyPI stack)	N/A (1,000+ npm packages)	Flutter SDK
GPU Shader Engine	Built-in WebGL 2.0 / WebGPU (120 FPS)	❌ None	❌ None	❌ None	Requires Three.js/WebGL	Canvas 2D
Client Startup Lag	< 1.2 ms (Instant IR walk)	High (Python server handshake)	Low (Terminal only)	High (Server WebSocket delay)	Fast (JS Bundle parse)	High (20MB+ CanvasKit)
Native Packaging	~2.8 MB Standalone (DirectX/Metal)	Web only (requires server)	Terminal only	Full Python runtime	150MB+ (Electron)	~30 MB
SEO & Accessibility	100% Native HTML5 + a11y	Dynamic (Poor SEO)	❌ None (Terminal only)	Poor	Native HTML5	❌ Broken (Raw pixels)

🔍 How TinPyUI Differs From Python UI Alternatives:

• vs. Taipy GUI: Taipy orchestrates complex backend pipelines and renders via a server-bound React frontend. TinPyUI requires zero server—it compiles directly Ahead-of-Time (AOT) to standalone native executables or static WebAssembly CDN bundles running client-side at 120 FPS with 0 external dependencies.
• vs. Textual: Textual is an exceptional tool for Terminal User Interfaces (TUI), but it is physically constrained to fixed character cell grids within console windows. TinPyUI delivers real-time GPU-accelerated graphical surfaces, custom GLSL fragment shaders, glassmorphism, responsive multi-device layouts, and mobile haptic touch support.
• vs. Streamlit & Flet: Streamlit executes whole-script reruns on user interaction over WebSockets; Flet requires an external Flutter runtime bridge. TinPyUI features $O(1)$ granular state signals (tin.Signal) and compiles to a lightweight 218KB WebAssembly core without server round-trip latency.

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🚀 Quickstart: 3 Clean Commands

TinPyUI simplifies application development down to 3 simple, unified commands:

 ┌──────────────┐     ┌──────────────┐     ┌────────────────┐
 │ 1. CREATE    │ ──▶ │ 2. RUN       │ ──▶ │ 3. BUILD       │
 │ tinpyui new  │     │ tinpyui run  │     │ tinpyui build  │
 └──────────────┘     └──────────────┘     └────────────────┘

1. 📥 Install

pip install tinpyui-ff

Genuine Fact: Zero external Python packages required. Runs on pure Python 3.7+ standard library (ctypes, mmap, json, threading, http.server).

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2. 📁 Create Your Project

tinpyui new my_app
cd my_app

Scaffolds a beginner-friendly project structure:

• main.tin — Your main screen layout and reactive logic
• scenes/ — Multi-page scenes and views
• shaders/background.frag — Hardware GPU shader effects
• public/ — Web browser assets (index.html, tin-runtime.js, tinui_engine.wasm)
• tinpy.toml — App title and window settings

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3. ⚡ Run & Develop

Choose how you want to run and develop your application:

• Desktop Window (Sub-Millisecond Shared RAM):

  tinpyui run main.tin
  # Or shorthand:
  tinpyui main.tin
  

  (Maps 4MB shared memory, hands Thread 0 to native OS engine, and boots instantly)

• Browser Live Dev Server (with Hot GLSL Reloading):

  tinpyui run main.tin --web
  # Or alias:
  tinpyui dev
  

  (Starts dev server on http://localhost:8080 with auto-reload and GPU error overlay)

• Interactive Debug Shell & REPL:

  tinpyui repl
  # Or alias:
  tinpyui shell
  

  (Boots interactive Python shell with tin, db, and reactive Signal preloaded for live experimentation)

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4. 📦 Build & Deploy

• Static Web Bundle (Ready for CDNs):

  tinpyui build --web
  

  (Packages static assets into dist/ ready to host on Cloudflare Pages, Netlify, Vercel, or AWS S3)

• Standalone Native Desktop Executable:

  tinpyui build --desktop
  

  (Compiles a compact ~2.8 MB standalone .exe / native binary into build/desktop/)

• Standalone Apple iOS Native Xcode Project:

  tinpyui build --ios --app-name "CyberApp" --bundle-id "com.corp.cyberapp"
  

  (Generates production-ready Xcode project in build/mobile/ios/ with WKWebView, Swift haptic bridge, and Retina scaling)

• Standalone Native Android Package (APK / Gradle):

  tinpyui build --mobile --app-name "CyberApp" --package "com.corp.cyberapp" --apk
  # Or explicit syntax:
  tinui export mobile main.tin
  

  (Generates standalone Android Gradle project in build/mobile/android/ with hardware-accelerated WebGL + Touch Haptics & auto-compiles APK if Gradle is present)

---

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💻 Universal Cross-Platform Native Runtime

TinPyUI embeds lightweight C/C++ host window bindings (engine_core.cc) compiling down to a ~2 MB standalone native desktop binary without bundling Chromium:

+-----------------------------------------------------------------------------------+
|                         NATIVE HARDWARE OS ACCELERATION                           |
+-----------------------------------------------------------------------------------+
|  🍎 macOS (Apple Silicon & Intel)  ──▶  Cocoa API + WKWebView (Apple Metal GPU)   |
|  🐧 Linux (Ubuntu, Fedora, Arch)   ──▶  GTK3/GTK4 + WebKitGTK (Wayland / X11)     |
|  🪟 Windows (10 & 11)              ──▶  Win32 HWND + Edge WebView2 (DirectX 12)   |
|  📱 Mobile (Android & iOS)         ──▶  Touch Engine + Haptic Hardware Channels   |
+-----------------------------------------------------------------------------------+

Zero-Bloat Native Compilation Pipeline:

# macOS (Clang / Metal)
c++ native/engine_core.cc -std=c++11 -framework WebKit -framework Cocoa -o tinui_mac

# Linux (GCC / GTK)
g++ native/engine_core.cc `pkg-config --cflags --libs gtk+-3.0 webkit2gtk-4.0` -o tinui_linux

# Windows (MinGW / DirectX)
g++ native/engine_core.cc -mwindows -ladvapi32 -lole32 -lshell32 -lshlwapi -luser32 -lversion -o tinui_win.exe

---

⚡ Pure Python Declarative UI Framework (tinpyui)

You can build full desktop and web applications directly in pure Python using declarative context managers:

import tinpyui as tin

class CyberDashboard(tin.App):
    def __init__(self):
        super().__init__(title="TinPyUI Cyber Hub", width=1200, height=800)
        self.counter = tin.Signal(0)
        self.status = tin.Signal("Hardware Online (120 FPS)")

    def increment(self):
        self.counter.update(lambda c: c + 1)
        self.status.set(f"Signal mutated to {self.counter.value}")

    def build(self):
        with tin.Window(title="TinPyUI Native Desktop App"):
            with tin.Section(padding=24, align="center"):
                tin.GradientText("Hardware-Accelerated TinPyUI Engine", gradient=["#00f2fe", "#9b51e0"], size="hero")
                tin.Text(text=lambda: f"● {self.status.value}", color="muted")
                tin.Spacer(height=20)
                
                with tin.Card(bg="#141218", radius=16, shadow="cyan", padding=24):
                    tin.Heading("Reactive Telemetry", size="h2")
                    tin.Text(text=lambda: f"Counter Signal: {self.counter.value}", color="#ffffff", size="large")
                    tin.Spacer(height=12)
                    with tin.Row(gap=12):
                        tin.Button("⚡ Increment Signal", on_click=self.increment, variant="primary")
                        tin.Button("📳 Haptic Pulse", on_click=lambda: tin.haptics.vibrate(50), variant="outline")

if __name__ == "__main__":
    CyberDashboard().run()

---

📖 Declarative .tin Indentation-Based Syntax

TinPyUI provides an indentation-based DSL that compiles directly to WebAssembly IR:

Syntax Rules:

1. Component Root: Every file begins with component Main(): or custom component definitions.
2. Indentation: 4 spaces following a colon (:). No curly braces {} or closing tags.
3. Typed Props: Key-value pairs (key="string", number=20, flag=true, list=["a", "b"]).
4. Data Binding: Interpolate reactive variables via {variable_name} inside strings.

component Main():
    AnimatedBackground(effect="cyber-wave", primaryColor="neon-purple", secondaryColor="neon-cyan"):
        
        Navbar(padding=20, blur=true):
            Row(align="center", justify="space-between", width="full"):
                Text(text="TinPyUI Cloud Console", color="neon-cyan", weight="bold")
                Row(gap=30, color="white"):
                    NavLink(text="Dashboard", route="/")
                    NavLink(text="Telemetry", route="/telemetry")

        Section(align="center", paddingY=80, maxWidth=900, justify="center"):
            # Zero-VDOM reactive architecture with hybrid WebGL GPU acceleration
            GradientText(text="The Zero-VDOM WebAssembly Engine", gradient=["neon-cyan", "neon-purple"], size="hero")
            Text(text="Build high-performance native & web applications with pure Pythonic syntax.", size="large", color="white", marginTop=20)
            
            Spacer(height=30)
            Row(gap=20, align="center", justify="center"):
                Button(text="Launch Cluster", variant="solid", glow="neon-cyan", radius="pill")
                Button(text="System Documentation", variant="outline", radius="pill")

---

🧱 Complete Component API Catalog & Enterprise Suite

1. Structural & Layout Containers

Component	Primary Properties	Description
Section	align, justify, padding, paddingY, maxWidth, minHeight, bg, radius	Primary layout block isolating horizontal regions
Container	align, justify, width, padding, gap, animation, duration	General-purpose flexbox container with animation triggers
Row	align, justify, gap, width, wrap, marginTop, color	Horizontal flex row aligning children
Column	align, justify, gap, padding, bg, border, radius, minWidth, maxWidth	Vertical layout column stack
Card	maxWidth, padding, bg/background, border, radius, shadow	Glassmorphism or solid container card
Grid	cols, gap, width, padding	Multi-column responsive grid layout
Spacer	height, width	Fixed dimensional spacing element
Divider	color, margin	Visual horizontal rule separator
Surface	width, height, background	Canvas drawing / shader surface

2. Typography & Visual Badges

Component	Primary Properties	Description
Heading	text, size ("hero", "h1", "h2", "h3", "small"), color, weight	Semantic heading element
Text	text, size ("small", "normal", "large"), color, weight, align, dataBind	Paragraph text with dynamic {state} interpolation or lambda bindings
GradientText	text, gradient (["#00f2fe", "#9b51e0"]), size	Vibrant linear gradient typography
Badge	text, variant ("neon-cyan", "neon-pink"), color	Compact status tag or telemetry pill
Span	text	Inline text span element

3. Interactive Controls & Forms

Component	Primary Properties	Description
Button	text, variant ("solid", "outline", "primary"), glow, radius ("pill", 8), on_click, action	Interactive button supporting click animations & glow states
Input	placeholder, value, dataBind, width, padding, bg, border, radius, color	Two-way data-bound input field
Textarea	placeholder, value, dataBind, rows, width	Multiline text entry
Form	gap	Semantic form wrapper
NavLink	text, route/target, href	Cinematic scene transition link

4. Advanced Hardware Shaders & Media

Component	Primary Properties	Description
AnimatedBackground	effect ("cyber-wave", "particles", "quantum-vortex"), primaryColor, secondaryColor, speed	Full-screen hardware WebGL canvas effect
Navbar	padding, blur (bool), fixed (bool), borderBottom	Glassmorphic navigation header with backdrop blur
CustomShader	fragment_code, uniforms	Raw inline GLSL fragment shader with compile-time validation
Marquee	direction, speed	Continuous hardware-accelerated scrolling ticker
Icon	name, color	Native vector SVG icon element
Image	src, url, assetPriority	Optimized image element

5. v1.7.0 Enterprise Components, Charts & AI Tools

Component	Primary Properties	Description
DataGrid	columns, data, page_size, searchable, sortable, selectable, exportable	Enterprise virtualized grid with column sorting, live query search filtering, pagination, and 1-click CSV/JSON export
AIChat	messages, model_name, avatar, user_avatar, placeholder, on_send	Streaming token LLM conversation UI with markdown code blocks, syntax styling, and copy buttons
ColorPicker	value, presets, show_alpha, on_change	Interactive Hex/RGB/HSL picker with opacity slider and palette swatches
DatePicker	value, placeholder, date_format, min_date, max_date, on_change	Input field with animated Calendar popup and date format validation
Calendar	year, month, selected_date, on_select	Interactive monthly calendar matrix with month/year navigation controls
LineChart	data, labels, width, height, colors	Vector SVG smooth curve chart with gradients and reactive Signal bindings
BarChart	data, labels, width, height, colors	Vector SVG column bar chart with dynamic scaling
DonutChart	data, labels, width, height, colors	Vector SVG circular proportion chart with stroke offsets
Sparkline	data, colors, height	Compact micro-trend visualization for financial and telemetry feeds
TreeView	nodes, selected_id, on_select	Hierarchical collapsible tree node viewer for file structures and categories
TreeNode	id, label, icon, children, expanded, data	TreeView node element supporting recursive nesting

---

⚡ Reactive State Signals & Symplectic Spring Physics (120 FPS)

TinPyUI features an $O(1)$ reactive state graph coupled with a Symplectic Euler differential solver for physics animations:

import tinpyui as tin

# 1. Reactive Signals (O(1) updates)
count = tin.Signal(0)
count.subscribe(lambda val: print(f"Counter changed: {val}"))
count.update(lambda c: c + 1)

# 2. Symplectic Euler Spring Physics (Hooke's Law: F = -kx - cv)
spring = tin.Spring(tension=180.0, friction=20.0)
spring.target = 250.0  # Set target displacement in pixels

# Step the differential solver (e.g. inside a 120 FPS frame loop)
current_pos = spring.step(delta_time=1.0 / 120.0)
print(f"Spring Position: {current_pos:.2f}px | Velocity: {spring.velocity:.2f}")

---

📜 High-Volume Spatial Virtualization (VirtualStack & VirtualList)

TinPyUI v1.6 introduces Spatial Index Windowing capable of rendering 100,000+ items with sub-millisecond scrolling latency and zero garbage collection allocations:

In .tin DSL:

component VirtualFeed():
    Section(padding=20):
        Heading(text="High-Volume Virtual Feed (100k Rows)", size="h2")
        VirtualStack(itemHeight=52, totalCount=100000):
            Card(padding=12, bg="rgba(20, 20, 30, 0.8)", border="neon-cyan"):
                Text(text="Dynamic Virtual Row Item", color="white")

In Pure Python:

import tinpyui as tin

items = [f"Server Node #{i} - Status: ACTIVE" for i in range(50000)]

with tin.Window(title="Virtualized Cluster View"):
    tin.Heading("50,000 Telemetry Nodes (120 FPS)", size="h1")
    # Only visible nodes within the viewport rect are rendered to the hardware surface
    tin.VirtualList(items=items, item_height=48.0)

---

🗄️ Universal Reactive Database Suite (tin.connect)

TinPyUI provides a unified multi-engine database layer that automatically binds mutations to the 120 FPS UI signal graph:

+-----------------------------------------------------------------------------------+
|                        TINPYUI REACTIVE DATA PIPELINE                             |
+-----------------------------------------------------------------------------------+
|  [ Database Mutation ]  ──▶  [ Table / Collection Listener ]                      |
|  (insert / update / delete)                 │                                     |
|                                             ▼                                     |
|  [ UI Render (120 FPS) ] ◀── [ LiveQuery / Reactive Signal ] ◀── [ O(1) Graph ]  |
+-----------------------------------------------------------------------------------+

1. PostgreSQL Relational SQL

pg_db = tin.connect("postgres://admin:secret@localhost:5432/production_db")
events = pg_db.table("analytics_events")

# Single insert with auto-schema evolution (creates columns dynamically)
row_id = events.insert(event="user_login", user_id="usr_42", duration_ms=18.5, is_active=True)

# Bulk ACID transaction
events.insert_many([
    {"event": "page_view", "user_id": "usr_42", "duration_ms": 12.0},
    {"event": "checkout",  "user_id": "usr_43", "duration_ms": 190.0}
])

# Fluent query building
active_users = (events.where(user_id="usr_42")
                      .gt("duration_ms", 10.0)
                      .order_by("duration_ms", desc=True)
                      .limit(10)
                      .all())

2. MongoDB Document NoSQL

mongo_db = tin.connect("mongodb://localhost:27017/fleet_db")
devices = mongo_db.collection("devices")

# Insert document
devices.insert_one({
    "name": "Edge-Gateway-01",
    "specs": {"cpu_cores": 16, "ram_gb": 64},
    "tags": ["edge", "gateway", "active"]
})

# Nested dot-notation and operator query
results = devices.find({
    "specs.ram_gb": {"$gte": 32},
    "tags": {"$in": ["gateway"]}
})

3. SQLite & Ephemeral In-Memory Storage

# Disk SQLite
sqlite_db = tin.connect("sqlite:///fleet_data.db")

# Zero-disk Ephemeral RAM database (Ideal for unit tests & WASM runtime)
ram_db = tin.connect(":memory:")

4. Redis Key-Value & Reactive Pub/Sub Signals

redis = tin.connect("redis://localhost:6379/0")

# Key-Value caching with TTL (seconds)
redis.set("user:session", {"id": 101, "role": "admin"}, ex=3600)
session = redis.get("user:session")

# Atomic counters & hash maps
redis.incr("page:views", 1)
redis.hset("device:cfg", "firmware", "v1.7.0")

# Reactive Signals: UI updates automatically on key or channel changes
theme_signal = redis.signal("user:theme", default="cyberpunk")
telemetry_stream = redis.pubsub_signal("telemetry:stream")

# Publish messages from anywhere
redis.publish("telemetry:stream", {"status": "ACTIVE", "fps": 120})

5. DuckDB & ClickHouse Vectorized Analytics

# High-performance analytical columnar store
analytics = tin.connect("duckdb://metrics.db")

# Run vectorized SQL & insert metrics
analytics.execute("CREATE TABLE IF NOT EXISTS telemetry (timestamp TIMESTAMP, cpu REAL, ram REAL)")
analytics.table("telemetry").insert(cpu=88.4, ram=64.0)

# Reactive background live query (refreshes every 1.0s)
live_metrics = analytics.live_query("SELECT AVG(cpu) as avg_cpu FROM telemetry", interval=1.0)

6. Reactive Live Queries (LiveQuery)

Live queries re-evaluate automatically on any table mutation, updating subscribed UI widgets at 120 FPS with zero manual refresh loops:

orders = pg_db.table("orders")

# Create LiveQuery Signal
active_orders = orders.live_query(status="pending")

# Bind directly to UI
with tin.Window(title="Live Order Queue"):
    tin.VirtualList(items=active_orders, item_height=50.0)
    tin.Button("Add Order", on_click=lambda: orders.insert(status="pending", item="Cyber Deck"))

7. Persistent Key-Value Store (tin.use_store)

Thread-safe disk-backed key-value store with reactive signal synchronization:

store = tin.use_store("app_config.db", table="preferences")
store.set("theme", "cyber-dark")

# Mutating the signal automatically persists value to disk!
theme_signal = store.signal("theme", default="cyber-dark")
theme_signal.value = "neon-matrix"

8. Active Record Declarative Models (@tin.model)

@tin.model
class DeviceNode:
    name: str
    platform: str
    fps_target: int = 120
    is_online: bool = True

node = DeviceNode.create(name="MacBook-Pro-M3", platform="macOS (Metal)")
all_online = DeviceNode.where(is_online=True).all()
live_nodes = DeviceNode.live_query(is_online=True)

---

🪄 Enterprise UI & Low-Code Declarative Suite (DataGrid, AIChat, LiveDataTable & AutoCRUD)

TinPyUI v1.7.0 brings a production-grade enterprise component suite to build mission-critical dashboards, AI applications, and data analytics tools in pure Python with zero external JavaScript dependencies.

1. Enterprise DataGrid (Virtualization, Sorting, Search & Export)

High-performance virtualized tabular grid with column sorting, real-time live search filtering, pagination, row selection, and 1-click CSV/JSON export:

import tinpyui as tin

devices = [
    {"id": "SRV-01", "name": "Compute Node Alpha", "region": "us-east-1", "load": 42.1, "status": "ONLINE"},
    {"id": "SRV-02", "name": "Storage Gateway Beta", "region": "eu-central-1", "load": 88.5, "status": "WARN"},
    {"id": "SRV-03", "name": "Inference Pod Gamma", "region": "ap-northeast-1", "load": 15.0, "status": "ONLINE"},
    {"id": "SRV-04", "name": "Edge Relay Delta", "region": "us-west-2", "load": 95.2, "status": "CRITICAL"},
]

with tin.Window(title="Cluster Fleet Manager"):
    tin.Heading("Fleet Infrastructure Grid", size="h2")
    tin.DataGrid(
        columns=["id", "name", "region", "load", "status"],
        data=devices,
        page_size=10,
        searchable=True,
        sortable=True,
        selectable=True,
        exportable=True
    )

2. Streaming AIChat LLM Interface

Complete conversational AI interface with streaming token rendering, Markdown syntax highlighting, and copy buttons:

import tinpyui as tin

chat_history = [
    {"role": "assistant", "content": "Welcome to **TinPyUI Engine**! How can I assist with your shaders today?"}
]

def on_user_prompt(user_text):
    # Process user query and stream LLM response
    chat_history.append({"role": "user", "content": user_text})
    chat_history.append({"role": "assistant", "content": f"Analyzing: `{user_text}`...\n```python\n# 120 FPS Native Canvas\ntin.run()\n```"})

with tin.Window(title="AI Assistant"):
    tin.AIChat(
        messages=chat_history,
        model_name="Tin-LLM v1.7",
        placeholder="Type a prompt or code question...",
        on_send=on_user_prompt
    )

3. Interactive ColorPicker, DatePicker & Calendar

Rich input widgets with reactive signal bindings:

import tinpyui as tin

active_color = tin.Signal("#00f2fe")
active_date = tin.Signal("2026-09-16")

with tin.Window(title="Settings & Date Controls"):
    with tin.Row(gap=24):
        with tin.Column(gap=12):
            tin.Heading("Color Theme Picker", size="small")
            tin.ColorPicker(
                value=active_color,
                presets=["#00f2fe", "#9b51e0", "#ff007f", "#00ff88", "#121218"],
                show_alpha=True,
                on_change=lambda c: active_color.set(c)
            )

        with tin.Column(gap=12):
            tin.Heading("Event Date Selection", size="small")
            tin.DatePicker(
                value=active_date,
                placeholder="YYYY-MM-DD",
                date_format="YYYY-MM-DD",
                on_change=lambda d: active_date.set(d)
            )
            tin.Calendar(
                year=2026,
                month=9,
                selected_date="2026-09-16",
                on_select=lambda d: active_date.set(d)
            )

4. Declarative Vector Chart Suite (LineChart, BarChart, DonutChart, Sparkline)

Hardware-rendered vector SVG charts with vibrant gradients, reactive data bindings, and tooltips:

import tinpyui as tin

# Telemetry data feeds
fps_feed = [118, 120, 119, 120, 117, 120, 120, 121]
revenue_quarters = [3400, 5200, 7800, 9400]
resource_split = [45, 30, 25]

with tin.Window(title="Real-Time Analytics"):
    with tin.Grid(cols=2, gap=20):
        # 1. Smooth Bezier Curve Line Chart
        tin.LineChart(data=fps_feed, labels=["0s", "1s", "2s", "3s", "4s", "5s", "6s", "7s"], height="220px")

        # 2. Dynamic Bar Chart
        tin.BarChart(data=revenue_quarters, labels=["Q1", "Q2", "Q3", "Q4"], height="220px")

        # 3. Donut Proportion Chart
        tin.DonutChart(data=resource_split, labels=["GPU", "RAM", "CPU"], colors=["#00f2fe", "#9b51e0", "#ff007f"])

        # 4. Compact Micro-Trend Sparkline
        tin.Sparkline(data=[10, 25, 18, 42, 60, 55, 80], colors=["#00ff88"], height="40px")

5. Hierarchical TreeView & TreeNode

Collapsible nested tree nodes for file systems, scene hierarchies, and categorised data:

import tinpyui as tin

project_tree = [
    tin.TreeNode("src", "src/", icon="folder", expanded=True, children=[
        tin.TreeNode("core", "core/", icon="folder", children=[
            tin.TreeNode("engine", "engine.py", icon="file"),
            tin.TreeNode("signals", "signals.py", icon="file"),
        ]),
        tin.TreeNode("main", "main.tin", icon="file"),
    ]),
    tin.TreeNode("shaders", "shaders/", icon="folder", children=[
        tin.TreeNode("bloom", "bloom.frag", icon="shader"),
        tin.TreeNode("fog", "volumetric_fog.frag", icon="shader"),
    ]),
    tin.TreeNode("config", "tinpy.toml", icon="config")
]

with tin.Window(title="Project Explorer"):
    tin.TreeView(nodes=project_tree, on_select=lambda node: print(f"Selected: {node.label}"))

6. Low-Code tin.LiveDataTable & tin.AutoCRUD

Auto-discovers schema headers and binds directly to real-time database queries:

# 1-Line Reactive Table
tin.LiveDataTable(pg_db.table("analytics_events"))

# 1-Line Complete Management Dashboard (Search, Add, Table, Delete)
tin.AutoCRUD(sqlite_db.table("devices"), title="Fleet Device Management Dashboard")

---

🎨 Extended Hardware GPU Shader Library

TinPyUI v1.7.0 includes an expanded suite of production-ready GLSL fragment shaders located in shaders/, validated at compile-time and hot-reloadable in real-time:

Shader File	Visual Effect	Technique
shaders/bloom.frag	Luminescence Bloom & HDR Glow	Threshold isolation, dual-pass Gaussian blur sampling, additive composite blending
shaders/cyber_mesh.frag	Retro Cyberpunk Wireframe Matrix	Perspective 3D grid projection with sinusoidal vertex displacement & neon glow
shaders/volumetric_fog.frag	Cinematic Atmospheric Fog	Raymarched exponential light scattering with dynamic light extinction
shaders/fluid_particles.frag	Swirling Fluidic Particle Dust	Velocity vector field simulation with curling dissipation & chromatic aberration
shaders/sdf_ui_box.frag	Anti-Aliased Glassmorphism Card	Exact Signed Distance Field (SDF) evaluation with rounded corners and border glow
shaders/uber_shader.frag	Unified Multi-Pass Surface	Full PBR material pipeline with diffuse, roughness, and normal maps

# Load any built-in or custom GLSL shader into your background canvas
with tin.AnimatedBackground(effect="cyber_mesh", speed=1.2, primaryColor="#00f2fe", secondaryColor="#9b51e0"):
    tin.Heading("Hardware Shader Active", size="hero")

---

📡 Real-Time Streams & Sockets (use_socket & use_sse)

import tinpyui as tin

# 1. Bi-directional WebSockets with reactive status & message signals
socket = tin.use_socket("wss://stream.telemetry.io/v1")

with tin.Window(title="Real-Time Stream"):
    tin.Text(text=lambda: f"Socket Status: {socket.status.value.upper()}")
    tin.Text(text=lambda: f"Telemetry Packet: {socket.message.value}", color="neon-cyan")
    tin.Button("Send Ping", on_click=lambda: socket.send("PING_HEARTBEAT"))

# 2. Server-Sent Events (SSE) Stream
stream_signal = tin.use_sse("https://events.example.com/live_feed")
tin.Text(text=stream_signal, color="neon-pink")

---

📱 Omni-Platform Packaging & Touch Gestures (Android, iOS, Desktop)

TinPyUI provides zero-copy C-FFI channels into native host OS dialogs, clipboard, hardware haptics, multi-touch gestures, and one-command standalone project exporters:

15.1 Native OS Platform Channels (PlatformBridge)

import tinpyui as tin

# 1. Native File Dialogs
selected_file = tin.PlatformBridge.open_file_dialog()
save_destination = tin.PlatformBridge.save_file_dialog()

# 2. Desktop System Toast Notifications
tin.PlatformBridge.show_notification(title="Cluster Build", message="Compilation finished in 1.2ms")

# 3. Mobile / Touch Device Haptics
tin.PlatformBridge.vibrate(pattern_ms=60)
tin.haptics.vibrate(60)

# 4. OS Clipboard Sync
tin.PlatformBridge.copy_clipboard("tinpyui_v17_auth_token_8892")

# 5. System Theme Query
current_theme = tin.PlatformBridge.get_system_theme() # "dark" | "light"

15.2 Mobile Touch & Gesture Recognizers

TinPyUI's runtime includes built-in high-frequency touch recognizers:

• Pinch-to-Zoom (tin:pinch): Tracks 2-finger pinch interactions with scale factor and focal center.
• Directional Swipe (tin:swipe): Dispatches directional swipe vectors (left, right, up, down).
• Pull-to-Refresh (tin:pullrefresh): Rubber-band pull resistance with animated glow and haptic pulse.

// Listening to native gestures in custom JavaScript or components:
window.addEventListener("tin:swipe", (e) => {
    console.log("Swiped:", e.detail.direction, "Distance:", e.detail.distance);
});

window.addEventListener("tin:pinch", (e) => {
    console.log("Pinch scale factor:", e.detail.scale);
});

window.addEventListener("tin:pullrefresh", (e) => {
    console.log("Pull to refresh triggered!");
});

15.3 Apple iOS Native Xcode Packaging Pipeline

Generate a production-ready Apple iOS Xcode project complete with WKWebView, Swift haptic feedback bridge, retina display scaling, and safe-area insets:

# Via CLI:
tinpyui build --ios --app-name "CyberApp" --bundle-id "com.corp.cyberapp"

# Or directly in Python:
tin.export_ios(app_name="CyberApp", bundle_id="com.corp.cyberapp")

This produces:

• CyberApp.xcodeproj/project.pbxproj (valid Xcode bundle)
• AppDelegate.swift, SceneDelegate.swift, ViewController.swift
• Info.plist with required bundle permissions
• www/ directory with embedded WebAssembly engine and compiled IR

15.4 Android Standalone Gradle & APK Export

# Export Android Gradle project and optionally compile debug APK:
tinpyui build --mobile --app-name "CyberApp" --package "com.corp.cyberapp" --apk

# Or directly in Python:
tin.export_android(app_name="CyberApp", package_name="com.corp.cyberapp")

15.5 Standalone Native Desktop Bundling

# Package standalone desktop executable bundle (Windows .exe, macOS, Linux):
tinpyui build --desktop --app-name "CyberApp"

---

🔒 Enterprise Security & Hardware Telemetry Suite

TinPyUI is engineered with security-first constraints:

1. In-Memory RAM Masking: tin.RAMMaskedState and tin.EncryptedState protect sensitive passwords and API tokens in RAM against memory scraping.
2. Session Binding Guard: High-entropy HMAC-SHA256 signatures validate session authenticity against replay attacks.
3. Decoy Network Traffic: tin.HoneypotAPI.start_decoy_traffic() generates synthetic background traffic to confound network inspection.
4. Hardware Fingerprinting: tin.Security.get_device_fingerprint() generates unique hardware identification hashes.
5. Live Performance Telemetry: tin.PerformanceMonitor measures 120 FPS frame latency, render bottlenecks, and memory usage.
6. Compile-Time GLSL Validator: glsl_validator.go scans shader ASTs ahead-of-time to prevent GPU memory crashes and infinite loops.
7. Panic-Proof WASM Boundary: The WebAssembly runtime wraps rendering in panic-recovery middleware, guaranteeing that runtime errors never crash the host web page.

---

🧠 Intermediate Representation (IR) Compiler & Dynamic Export (app.export_ir)

Dynamic Python to WebAssembly Export

Compile pure Python UI trees directly into static Intermediate Representation JSON (app.ir.json) for serverless CDN hosting:

import tinpyui as tin

app = tin.Window(title="WASM Edge Application", width=1280, height=800)
with app:
    with tin.Section(padding=24):
        tin.Heading("Compiled Edge App", size="hero")
        tin.GradientText("Hardware-Accelerated WebAssembly", gradient=["#00f2fe", "#9b51e0"])
        tin.Button("Launch Cluster", variant="primary")

# Exports deterministic IR blueprint to public/ distribution folder
app.export_ir("public/app.ir.json")

Generated app.ir.json Schema:

{
  "title": "WASM Edge Application",
  "width": 1280,
  "height": 800,
  "bg_color": "#0D0D10",
  "root": {
    "tag": "Window",
    "props": {"title": "WASM Edge Application"},
    "children": [
      {
        "tag": "Section",
        "props": {"padding": 24},
        "children": [
          {"tag": "Heading", "props": {"text": "Compiled Edge App", "size": "hero"}, "children": []},
          {"tag": "GradientText", "props": {"text": "Hardware-Accelerated WebAssembly"}, "children": []},
          {"tag": "Button", "props": {"text": "Launch Cluster", "variant": "primary"}, "children": []}
        ]
      }
    ]
  }
}

🖥️ How to Compile .tin Code on Every OS (Windows, macOS, Linux)

TinPyUI source files (.tin) compile into a deterministic Intermediate Representation (.ir.json) and optional pre-rendered static HTML hydration shells (.html).

+-----------------------------------------------------------------------------------+
|                        CROSS-PLATFORM COMPILATION PIPELINE                        |
+-----------------------------------------------------------------------------------+
|  [ index.tin Source ]                                                             |
|           │                                                                       |
|           ▼                                                                       |
|  [ TinPyUI Go / NPM Compiler ] ──(Windows / macOS / Linux)                        |
|           │                                                                       |
|           ├──▶ [ index.ir.json / app.ir.json ]  ──▶ Consumed by tinui_engine.wasm |
|           └──▶ [ index.html ] (with --hydrate) ──▶ SEO Static Pre-Rendered DOM    |
+-----------------------------------------------------------------------------------+

---

🪟 1. Compiling on Windows (10 & 11)

Open PowerShell, Command Prompt (CMD), or Windows Terminal:

Option A: Using the Compiled Binary (tinui.exe)

# Standard compilation -> outputs index.ir.json
.\tinui.exe compile index.tin

# Compilation with static SEO HTML hydration -> outputs index.ir.json & index.html
.\tinui.exe compile index.tin --hydrate

# Live Dev Server with Hot Reload on http://localhost:8080
.\tinui.exe dev index.tin

Option B: Using Go Directly from Source

go run main.go compile index.tin
go run main.go compile index.tin --hydrate
go run main.go dev index.tin

Option C: Using the Global NPM CLI

npm install -g tinpyui
tinpyui compile index.tin
tinpyui compile index.tin --hydrate

Building the Windows Compiler Binary from Source:

go build -o tinui.exe .

---

🍎 2. Compiling on macOS (Apple Silicon M1/M2/M3/M4 & Intel)

Open Terminal (Zsh or Bash):

Option A: Using the Standalone Binary (tinui)

# Ensure execution permissions
chmod +x ./tinui

# Standard compilation -> outputs index.ir.json
./tinui compile index.tin

# Compilation with static SEO HTML hydration -> outputs index.ir.json & index.html
./tinui compile index.tin --hydrate

# Live Dev Server with Hot Reload on http://localhost:8080
./tinui dev index.tin

Option B: Using Go Directly from Source

go run main.go compile index.tin
go run main.go compile index.tin --hydrate
go run main.go dev index.tin

Option C: Using the Global NPM CLI

npm install -g tinpyui
tinpyui compile index.tin
tinpyui compile index.tin --hydrate

Building the macOS Compiler Binary from Source:

go build -o tinui .
chmod +x tinui

---

🐧 3. Compiling on Linux (Ubuntu, Debian, Fedora, Arch, Alpine)

Open your preferred Linux terminal:

Option A: Using the Standalone Binary (tinui)

# Ensure execution permissions
chmod +x ./tinui

# Standard compilation -> outputs index.ir.json
./tinui compile index.tin

# Compilation with static SEO HTML hydration -> outputs index.ir.json & index.html
./tinui compile index.tin --hydrate

# Live Dev Server with Hot Reload on http://localhost:8080
./tinui dev index.tin

Option B: Using Go Directly from Source

go run main.go compile index.tin
go run main.go compile index.tin --hydrate
go run main.go dev index.tin

Option C: Using the Global NPM CLI

npm install -g tinpyui
tinpyui compile index.tin
tinpyui compile index.tin --hydrate

Building the Linux Compiler Binary from Source:

go build -o tinui .
chmod +x tinui

---

🌐 4. Compiling the WebAssembly Engine (tinui_engine.wasm) on Any OS

To rebuild the core WebAssembly runtime from Go source:

On Windows (PowerShell):

$env:GOOS="js"; $env:GOARCH="wasm"; go build -ldflags="-s -w" -o tinui_engine.wasm ./wasm_engine

On macOS & Linux (Bash / Zsh):

GOOS=js GOARCH=wasm go build -ldflags="-s -w" -o tinui_engine.wasm ./wasm_engine

---

⚙️ 5. Unified CLI Reference

What You Want to Do	The One Command	Genuine Technical Action
Create Project	tinpyui new <app>	Scaffolds beginner-friendly project structure (main.tin, scenes/, shaders/, public/, tinpy.toml).
Interactive REPL	tinpyui repl	Boots interactive Python shell with tin, db, Signal, and State preloaded for live debugging and testing. (Alias: tinpyui shell)
Run Desktop App	tinpyui run main.tin	Mmaps 4MB anonymous shared memory, packs 16-byte structs, and executes native C++ desktop host. (Shorthand: tinpyui main.tin)
Run Live Web Server	tinpyui run main.tin --web	Spawns local dev server on http://localhost:8080 with SSE file watching, Hot GLSL Reloading & crash overlay. (Alias: tinpyui dev)
Export Android App	tinpyui build --mobile	Generates standalone Android Studio / Gradle project with WebGL & Haptics into build/mobile/android/ (alias: tinui export mobile).
Export Apple iOS App	tinpyui build --ios	Generates standalone Apple iOS Xcode project (.xcodeproj, WKWebView, Swift haptic bridge) into build/mobile/ios/.
Build Desktop App	tinpyui build --desktop	Compiles or stages a standalone native desktop distribution bundle into build/desktop/.
Build Web Bundle	tinpyui build --web	Compiles static production bundle into dist/ ready for CDN hosting (Netlify, Vercel, S3, Cloudflare Pages).

---

🛠️ CLI Workflows, Interactive REPL & Live Reload

# 1. Scaffold a new application with friendly interactive wizard
tinpyui new my_app
cd my_app

# 2. Launch interactive Python REPL & State Inspector
tinpyui repl

# 3. Run instant native desktop window (sub-millisecond shared memory)
tinpyui run main.tin

# 4. Or launch live dev server with SSE Hot Reloading on http://localhost:8080
tinpyui run main.tin --web

# 5. Export standalone Apple iOS Xcode project
tinpyui build --ios --app-name "CyberApp" --bundle-id "com.corp.cyberapp"

# 6. Export standalone Android Gradle project & compile debug APK
tinpyui build --mobile --app-name "CyberApp" --package "com.corp.cyberapp" --apk

# 7. Build standalone native desktop executable bundle
tinpyui build --desktop --app-name "CyberApp"

# 8. Build static production WebAssembly bundle for CDN hosting
tinpyui build --web

---

🚀 Production Deployment & Backend Integration

1. Python Flask / FastAPI Integration

TinPyUI apps compile into static assets (index.html, tin-runtime.js, wasm_exec.js, tinui_engine.wasm, app.ir.json) that can be hosted on any web server:

from flask import Flask, send_from_directory

app = Flask(__name__, static_folder='public')

@app.route('/')
def index():
    return send_from_directory(app.static_folder, 'index.html')

@app.route('/<path:path>')
def static_files(path):
    return send_from_directory(app.static_folder, path)

if __name__ == '__main__':
    print("[TinPyUI] Serving on http://localhost:5000")
    app.run(port=5000)

2. Static CDN Hosting (Vercel, Cloudflare Pages, Netlify, AWS S3)

Deploy the public/ directory directly to any static web host. Ensure that your web server serves .wasm files with the Content-Type: application/wasm MIME type header.

---

🌟 Full-Stack Production Master Blueprint

Below is an end-to-end production script combining PostgreSQL/MongoDB connectivity, WebSocket streams, Spring physics, 1-Line AutoCRUD, and Hardware Haptics:

import tinpyui as tin

# 1. Connect to Database with dynamic schema creation
db = tin.connect("sqlite:///production_fleet.db")
devices = db.table("devices")

# 2. Real-Time Telemetry Socket
telemetry_ws = tin.use_socket("wss://echo.websocket.events")

# 3. Persistent Settings Store
settings = tin.use_store("user_settings.db")
theme_signal = settings.signal("theme", default="cyber-dark")

# 4. Symplectic Euler Spring Solver (120 FPS)
spring = tin.Spring(tension=180.0, friction=20.0)
spring_pos = tin.Signal(0.0)

def step_physics():
    spring.target = 150.0 if spring.target == 0.0 else 0.0
    spring_pos.set(round(spring.step(1.0 / 120.0), 2))
    tin.PlatformBridge.vibrate(40)

# 5. Declarative UI Window
app = tin.Window(title="Omni-Platform Enterprise Console", width=1400, height=880)
with app:
    with tin.Row(padding=20, gap=20):
        # Left Panel: Telemetry & Controls
        with tin.Column(width=420, gap=16):
            tin.GradientText("CYBER TELEMETRY", gradient=["neon-cyan", "neon-purple"], size="h2")
            
            with tin.Card(padding=16, bg="rgba(18, 22, 34, 0.8)", radius=12):
                tin.Text(text=lambda: f"● Socket Status: {telemetry_ws.status.value.upper()}", color="neon-cyan")
                tin.Text(text=lambda: f"Feed: {telemetry_ws.message.value or 'Awaiting stream...'}")
                tin.Spacer(height=10)
                tin.Button("Send Heartbeat", on_click=lambda: telemetry_ws.send("PING_TELEMETRY"))

            with tin.Card(padding=16, bg="rgba(24, 20, 32, 0.8)", radius=12):
                tin.Heading("Spring Physics Simulator (120 FPS)", size="small")
                tin.Text(text=lambda: f"Displacement: {spring_pos.value} px", color="neon-pink")
                tin.Spacer(height=8)
                tin.Button("🚀 Trigger Spring Step", on_click=step_physics, variant="primary")

        # Right Panel: 1-Line Reactive AutoCRUD Dashboard
        with tin.Column(width="flex", gap=16):
            tin.AutoCRUD(devices, title="Live Fleet Device Management")

if __name__ == "__main__":
    tin.run(app)

---

🤝 Contributing to TinPyUI

We welcome contributions from developers worldwide! Whether you're building new UI components, writing WebGPU/WebGL shaders, optimizing compiler AST passes, improving documentation, or adding database adapters, you are invited to participate.

🌟 Quickstart for Contributors

# 1. Clone your fork
git clone https://github.com/<your-username>/TinUi.git
cd TinUi

# 2. Verify local environment & run test suite
# On Windows:
dev.bat test

# On Linux / macOS / Git Bash:
make test

📚 Contributor Resources & Guides

Document	Purpose
📘 CONTRIBUTING.md	Full guide on dev setup, code style, Conventional Commits, and PR submission
📜 CODE_OF_CONDUCT.md	Contributor Covenant v2.1 community standards
🗺️ ROADMAP.md	Active milestones, planned features, and Good First Issues
🏛️ GOVERNANCE.md	Project roles, maintainer pathways, and RFC proposal lifecycle
🛡️ SECURITY.md	Vulnerability reporting procedure and supported versions

---

📄 License

MIT License © 2026 Barathanandh