Skip to content
| Marketplace
Sign in
Visual Studio Code>Programming Languages>pAiCoder - AI Autonomous EngineersNew to Visual Studio Code? Get it now.
pAiCoder - AI Autonomous Engineers

pAiCoder - AI Autonomous Engineers

pAiCoder

|
18 installs
| (0) | Free
Your AI Autonomous Engineering Team, on macOS!
Installation
Launch VS Code Quick Open (Ctrl+P), paste the following command, and press enter.
Copied to clipboard
More Info

pAiCoder — Your Autonomous Engineering Team, on macOS

Free 30-day evaluation · Hand off the build — or write code yourself · Bring your own models — Claude · Grok · GPT · Meta Muse Spark · local Ollama · or an open-source LLM you host yourself

pAiCoder gives you one or more autonomous engineers you can hand a project to — and a manager who takes your biggest idea, breaks it down, dispatches the pieces to those engineers, and keeps orchestrating until the whole thing is assembled and audited. You direct them by chat, by voice, or from your inbox; you approve every plan before a line is written; and a deterministic audit gates every deployment.

It is spec-first — nothing is built until you have seen and approved SPEC.md. It is model-agnostic — assign Claude, Grok, GPT, MuseSpark, a local Ollama model, or your own self-hosted LLM to different roles, so speed, quality and cost are levers you control.

And when you want to work alongside the autonomous engineers, the same engine is a spec-first coding assistant in your editor: ghost-text completion, design → implement, multi-cloud deployment, LLM hosting, even RTL. That is all further down.


🚀 Two minutes to your first hand-off

manager-deploy            # 1. start Aria, the manager
engineer-deploy Ava       # 2. start your engineers — TWO is the sweet spot
engineer-deploy Ozo
manager-recruit all       # 3. Aria adopts them — AFTER they are running
engineer-status           # 4. who is up, and their private panel URLs

Each command prints a 127.0.0.1 URL protected by a one-time token. Open Aria's, describe what you want, and she plans it, splits it into components, and dispatches them. Open an engineer's and you are talking to her directly. /help in either panel lists everything they accept.

No setup needed. The first manager-deploy designs a default manager (Aria) — and a default autonomous engineer (Ada). engineer-deploy starts the default engineer, Ada.

engineer-deploy <name> starts a custom (named) engineer (with default settings if not previously customized using engineer-design <name>). manager-recruit all adopts the engineers it can find, so it goes last.

Customise the defaults. Run manager-design (for Aria) or engineer-design (for the default engineer Ada) or engineer-design <name> (for the other named engineers) to customize project root directory, email, and voice.

Two engineers is usually right. They share a single LLM quota, so a third one mostly competes with the other two instead of finishing the work sooner.

If you need many concurrent autonomous engineers, go to the engineer's web panel and temporarily assign a different LLM provider with:

/engineer-coder <anthropic|meta|openai|xai>
/engineer-planner <anthropic|meta|openai|xai>

This keeps the engineers from competing on the same provider's quota.


🤖 Autonomous Engineer — hand off the build, stay in control

An engineer takes a project end to end: design → review → implement → audit → fix-audit, then packages the result. She works in her own directory, on her own port, with her own panel.

She writes code and never runs it. Automated passes may read and write files — no shell, no package installs, no test runs. What she produces is yours to run.

Talk to her however suits you:

  • her panel — chat, watch the task list, answer questions, enter secrets safely;
  • email — put the command in the SUBJECT as /<command>(<argument>), for example /new-project(url-shortener) (with project description in the email body) or /zip-project(). She replies with progress and artifacts, so you can start work from a phone and read the result later.

Several at once, each on her own panel. Open as many as you like in one browser — each holds her own session.


🧑‍💼 Autonomous Manager — one idea, a whole system

Aria takes the description of your bigger project, asks a planner to split it into components, writes a portfolio SPEC.md, and sends it to you for review. On approval she dispatches each component to a free engineer, collects the artifacts, assembles them into one tree and audits the result.

Pieces with no free engineer are queued and go out as soon as one finishes. She reaches local engineers directly, and remote ones by email.

Start a BIG project with the manager, Aria, not an engineer. An engineer plans one SPEC in a single pass — directory tree, file names and phases all at once — and that gets thin when the project is large or spans several tech stacks. Aria splits it first, so each engineer plans a component she can hold in her head. A small or medium project is fine handed straight to an engineer.

Type /help in her panel — or an engineer's — for everything they accept.

manager-status · manager-roster · manager-inbox — what Aria is doing, who she manages, what arrived. manager-design reconfigures her; it is not needed to start.

Both ship DORMANT. Nothing runs until you deploy it, and everything stays on 127.0.0.1.


📋 Common workflows

Eight things people actually do, start to finish. Commands are typed in the pAiCoder panel (Cmd+Shift+P → pAiCoder: Open Panel (REPL / Chat)) unless a step says otherwise.

1 · Install the extension

  1. In VS Code, open the Extensions view — Cmd+Shift+X.
  2. Search for pAiCoder and click Install.
  3. Reload VS Code if prompted, then run Cmd+Shift+P → pAiCoder: Download / Update Binary — the extension downloads the pAiCoder engine for you (if it didn't happen automatically; the same command updates it later).

That's it — Cmd+Shift+P → type pAiCoder to see the available commands for VS Code.

2 · Add your API keys and pick your models

Cmd+Shift+P → pAiCoder: Setup — Configure API Keys & Roles.

One screen for all your keys and for which model plays which role (PLANNER, CODER, AUDITOR, AUTO_AUDITOR). Add an Anthropic, xAI, OpenAI, or Meta key — or point a role at a local Ollama model — and you're ready. Your keys stay on your machine and are never sent anywhere except the provider you chose.

3 · Your first project, from a design

From the Explorer: right-click an architecture diagram, a screenshot or a written brief → pAiCoder: Load Design from this File.

Or in the panel:

load-design ./docs/architecture.txt
load-design(claude) ./docs/architecture.png    # Temporarily design the SPEC with Anthropic

pAiCoder reads the design, classifies the stack, writes SPEC.md, and shows it for review before anything is built. Modify or approve, and it implements against that spec.

4 · Drive it yourself — the coding assistant

Open the Chat panel and talk to it. It reads your workspace, edits files and runs commands — and asks you first before each write, each shell/Python command, and before it installs a package or initializes a git repo. Prefer it to just proceed? Cmd+Shift+P → pAiCoder: Toggle Auto-Approve.

adopt <github-url>         clone a GitHub repo and start working on it
implement SPEC.md          build what the spec describes
audit-code                 what is wrong with this codebase
fix-audit                  fix what the audit found
audit-security             security review — secrets, injection, vulnerable deps (Python + Node)
fix-security               auto-fix the mechanical security issues it finds
doctor                     health check — providers, tools, config

5 · Hand a whole project to Ada — the default autonomous engineer

engineer-design       one wizard: her name, channels, email, work schedule, etc
engineer-deploy       starts her and prints her web panel URL
engineer-status       running? her URL, mode, budgets
engineer-stop         kill switch

Open her URL. Give her a project in her panel and she plans, builds, audits and fixes it on her own, reporting as she goes. /help in her panel lists what she understands.

engineer-design <name>      customizes additional autonomous engineer
engineer-deploy <name>      starts (named) autonomous engineer
engineer-stop <name>        stops (named) autonomous engineer
engineer-delete <name>      remove a named engineer completely (asks first; Ada is protected)

6 · A bigger system — Aria (the manager) and a team of engineers

manager-design        configure Aria (identity, channels, email, work schedule, etc)
manager-deploy        starts her and prints her panel URL
manager-recruit --all enrol the engineers on this machine 
manager-status        running? her URL and current project

Give Aria one idea in her panel. She splits it into tech-stack sub-projects, sends each to an engineer, collects the artifacts and assembles them. /status shows every component and who holds it; /audit-code and /fix-code work on the assembled tree.

One engineer, one transport. An engineer configured with email is not recruited locally — that is to allow the engineer to take request from her user or manager remotely (via email) without conflicts.

7 · Serve your own model

llm-design      describe users, budget and latency → a serving SPEC
llm-build       generate the GPU-VM IaC and startup script
llm-deploy      provision it (audit-gated; this one bills)
llm-status      endpoint URL and IP
llm-destroy     tear it down
llm-assign      point a ROLE at the deployed model

8 · Hardware — SystemVerilog

verilog-design    an HDL SPEC from a description
verilog-build     generate the RTL

9 · Configure email so Ada and Aria can work remotely

Ada (the engineer) and Aria (the manager) can each run from their own mailbox: you email a command in the subject (e.g. /new-project(url-shortener) with the description in the body), and they reply with progress and artifacts. Aria and her remote engineers coordinate by email too. Give each its own email account and set these environment variables — the ENGINEER_ prefix configures Ada, the MANAGER_ prefix configures Aria:

Variable (Ada / Aria) Meaning
ENGINEER_IMAP_HOST / MANAGER_IMAP_HOST incoming (IMAP) server
ENGINEER_SMTP_HOST / MANAGER_SMTP_HOST outgoing (SMTP) server
ENGINEER_IMAP_USER / MANAGER_IMAP_USER mailbox login (usually the full address)
ENGINEER_EMAIL_PASSWORD / MANAGER_EMAIL_PASSWORD the app-specific password — used for both IMAP and SMTP
ENGINEER_SMTP_PORT / MANAGER_SMTP_PORT optional — defaults to 587 (STARTTLS)

Shortcut: if IMAP and SMTP share one host, set ENGINEER_EMAIL_HOST (or MANAGER_EMAIL_HOST) once instead of the two *_HOST vars.

iCloud — imap.mail.me.com / smtp.mail.me.com (a working example):

ENGINEER_EMAIL_PASSWORD=<ada_app_password>
ENGINEER_IMAP_HOST=imap.mail.me.com
ENGINEER_IMAP_USER=<ada_user_name>
ENGINEER_SMTP_HOST=smtp.mail.me.com

Gmail — imap.gmail.com / smtp.gmail.com:

ENGINEER_EMAIL_PASSWORD=<ada_app_password>
ENGINEER_IMAP_HOST=imap.gmail.com
ENGINEER_IMAP_USER=ada@gmail.com
ENGINEER_SMTP_HOST=smtp.gmail.com

Outlook / Microsoft 365 — outlook.office365.com / smtp.office365.com:

ENGINEER_EMAIL_PASSWORD=<ada_app_password>
ENGINEER_IMAP_HOST=outlook.office365.com
ENGINEER_IMAP_USER=ada@outlook.com
ENGINEER_SMTP_HOST=smtp.office365.com

All three need an app-specific password (generated in your account's security settings with 2-factor enabled) — a normal login password won't authenticate over IMAP/SMTP. Provider auth policies change, so if a login is rejected, check your provider's current "IMAP/SMTP access" and "app password" docs. Note on Outlook/Microsoft 365: Microsoft has been phasing out basic-auth IMAP/SMTP — if your account rejects the app-password login it likely requires OAuth, and iCloud or Gmail are the smoother choices today.


🧹 Housekeeping

purge-logs 30            delete logs older than 30 days (projects untouched)
purge-logs 30 --dry-run  show what would go, delete nothing
reset-system soft        the agents forget their work — configs, .env, projects all stay
reset-system agents      the agents are REMOVED; pAiCoder is the coding agent it started as
reset-system hard        agents, and the project registry too

Your settings and every project FILE survive all three resets. Each asks you to type I understand three times, and refuses while an agent is running.

🧠 Models — including local ones

Choose your models in pAiCoder: Setup — Configure API Keys & Roles. Roles are assigned separately, so a fast local model can code while a stronger one reviews. The built-in options:

  • Anthropic — claude-opus-5-5
  • xAI — grok-4.6
  • OpenAI — gpt-5.6-luna
  • Meta — muse-spark-1.3
  • Ollama (local) — muse-glimmer:30b-mlx

Local models via Ollama. Install Ollama, pull a model, name it above — chat, streaming and tool calling work with no further setup:

ollama pull muse-glimmer               # Meta's open-source agentic model, ~18 GB quantized

Use muse-glimmer:30b-mlx on Apple Silicon — the same model on Ollama's MLX engine. llama3.1:latest is the smaller default. Ollama is expected at http://localhost:11434.

Local vision. muse-glimmer reads images, so load-design works entirely on your machine — drop in an architecture diagram and it never leaves the network. That matters when privacy outranks raw capability, which for many teams it does. JPEG, PNG and WebP; convert a GIF first.

Models without vision (llama3.1, most coder models) still handle text and tools — a diagram is simply skipped, with a note. load-design images also work with Anthropic, OpenAI, xAI, Meta, and any llm-assign endpoint.

Changing a model temporarily set-anthropic-model, set-xai-model, set-openai-model and set-meta-model take effect in the REPL immediately — no restart.

A running engineer or manager is a separate process, and gets the default roles/providers/models.

Temporarily change hers from her own panel instead:

/engineer-coder meta        # in an engineer's panel — her CODER, right now
/engineer-planner openai    # her PLANNER (writes SPEC.md and the phases)
/manager-planner anthropic  # in Aria's panel — the planner that splits a portfolio

Each affects only that engineer or manager, takes effect on her next call, and lasts until she restarts — nothing is saved permanently. Ideal for trying a model on one engineer without disturbing the others. To make a change permanent, use pAiCoder: Setup — Configure API Keys & Roles.

A short command palette. Shift+Cmd+P → "pAiCoder" lists the commands you reach for from the editor — the toggles, Open Panel, Setup, Checkpoint, Load Design from this File, and Download / Update Binary. The rest are panel commands you type inside the CHAT panel.

A short REPL help. shows all REPL commands user can run from the VS Code or TUI Chat panel.

Any other model — llm-assign. Register a self-hosted or external OpenAI-compatible endpoint

llm-assign → choose the role. llm-providers lists what is registered; llm-unassign undoes it.

Want to host one yourself? llm-design → llm-build → llm-deploy sizes, generates and launches a serving endpoint — twelve clouds as a GPU VM, six as managed Kubernetes — then llm-assign points pAiCoder at it.


pAiCoder — Software Design & Coding Agent, on macOS

🧰 The powerful spec-first coding assistant

Free 30-day evaluation · Design from anything · Bring your own models — Claude · Grok · GPT · Meta Muse Spark · local Ollama · or an open-source LLM you host yourself

Quick Start — two minutes to your first win (solo mode)

  1. Install the extension.
  2. Add an API key — Cmd+Shift+P → pAiCoder: Setup → paste an Anthropic, xAI, OpenAI, or Meta key. (You can add more later and assign them by role.)
  3. Open that CHAT panel — Cmd+Shift+P → pAiCoder: Open Panel (REPL / CHAT). This is your command center: type a command, or just chat with the agent.
  4. Pick a first win:
You want to… Do this
✍️ Write code faster Open a Python file, write a docstring, press Tab to accept the ghost-text implementation.
🧱 Build from an idea In that CHAT panel: design a REST API for a todo app with auth → review SPEC.md → implement.
📄 Start a project from a file In the VS Code Explorer, right-click a project description file (.txt, .md, .jpg, .png) and choose pAiCoder: Load Design from this File.
☁️ Deploy infrastructure right-click your diagram in the Explorer → pAiCoder: Load Design from this File → review → aws-deploy (or azure-deploy, google-deploy, oracle-deploy).
🤖 Serve an open-source LLM In that CHAT panel: llm-design → pick VM or Kubernetes → answer a couple of questions → llm-build → llm-deploy.
🔗 Code with your own model After deploying (or if you already run one): llm-assign → point pAiCoder's CODER role at your endpoint.
🔧 Design hardware (RTL) In that CHAT panel: verilog-design → answer a few questions → review the hardware SPEC.md → verilog-build writes modern SystemVerilog + a testbench for your own sim/synth flow.

💡 Type help in that CHAT panel to see every command available in your build, and doctor to verify your setup and see which features are enabled.


Why you'll like pAiCoder

  • You approve the plan first. Every build starts from a SPEC.md you can read, edit, and accept — no black-box code dumps.
  • Your models, your cost. Mix providers by role — a fast model for completion, a strong one for design, an independent one for audits. Save up to ~70% on tokens versus single-model tools.
  • Idea to running system, in one tool. The same assistant designs the app, writes the code, provisions the cloud, and can even stand up an open-source LLM — each step gated by a deterministic audit.
  • Close the loop on your own models. Deploy an open-weight LLM to your own cloud, then assign it to a pAiCoder role and build with a model that's fully private and fully yours.
  • It reads your diagrams. Hand it an architecture image and it produces the spec and the infrastructure.
  • Nothing runs behind your back. Every step is one you can see and approve, and a check runs before any deployment touches the cloud.

✨ Features

Spec-first workflow

description / doc / diagram  →  SPEC.md  →  code  →  deployment

Describe it, sketch it, or drop in a diagram — pAiCoder writes a reviewable spec, you approve it, then it implements. Add features later with plan, build with implement, and keep quality high with audit and security (each offers one-shot fixes).

One idea, twelve stacks 🌐

Describe what you want — pAiCoder picks the language that fits, or you just name it ("an iPhone game in Swift," "a Go CLI," "a Spring Boot API"). It recognizes the stack from your description and tells you what it chose, then scaffolds a modern, production-shaped project — a package-by-feature layout, an adapter layer for external systems, idiomatic tests in that language's own framework, and an explicit DEPLOYMENT.md. Not a toy scaffold you outgrow in a week — a structure built to scale to a real project.

Language Great for Tests Ship it
🐍 Python data & ETL pipelines, ML/AI, backends, automation, glue pytest wheel / container
🍎 Swift / SwiftUI native iOS · iPhone · iPad · macOS apps & games swift-testing App Store · TestFlight · binary
🟦 TypeScript Node.js services, CLIs, tooling vitest process manager / container
💜 C# / .NET Windows & cross-platform services, Web APIs xUnit dotnet publish
☕ Java / Spring Boot JVM services & REST APIs JUnit 5 bootJar / container
🐹 Go services, CLIs, single static binaries go test cross-compiled binary
🦀 Rust systems, performance-critical, memory-safe cargo test cross-compiled binary
⚙️ C++ high-performance & embedded GoogleTest host binary · flash to device
🟪 Kotlin JVM services & Android Kotest shadowJar / container
🔴 Scala JVM, functional, data-heavy MUnit sbt assembly
🔵 F# / .NET functional-first .NET (records, unions) Expecto dotnet publish
⚛️ React browser front-ends (TypeScript + Vite) Vitest + jsdom static dist/ — any host or CDN

Building a full-stack app? React and the service behind it are two components — pAiCoder builds each in the stack that suits it and keeps the type contract between them consistent.

Every project is designed the same spec-first way — you approve the SPEC.md before a line is written — and audited the same way, in whichever language fits the job. Not sure which stack? Just describe the project and let pAiCoder choose; name a language explicitly and it honors your call.

Inline & docstring completion

Ghost-text suggestions as you type in any language, powered by your chosen model. Write a docstring and let pAiCoder fill in the function.

def multiply(a, b):
    """Multiply two numbers and return the result."""
    # → press Tab to accept:  return a * b
  • Tab or Alt+\ to accept a suggestion.
  • For the cleanest experience, quiet the built-in dropdown: "editor.quickSuggestions": { "other": "off" }.

Deploy to any major cloud

Turn a diagram or a description into production-ready infrastructure — then ship it.

AWS · Azure · Google Cloud · Oracle Cloud

  • AWS generates a CloudFormation stack + GitHub Actions pipelines; Azure generates Bicep; Google and Oracle generate Terraform.
  • aws-deploy · azure-deploy · google-deploy · oracle-deploy — each pairs with a -status and a -destroy.
  • A broad library of deployment patterns (serverless APIs, containers, event-driven, data pipelines, AI/ML, and more).
  • A deterministic audit validates the templates and blocks the deploy until secrets and placeholders are filled — no half-configured launches.

Deploy open-source LLMs 🤖

Stand up your own model-serving endpoint — pAiCoder sizes it, generates the infrastructure, and gates the launch with a deterministic audit.

llm-design  →  llm-build  →  llm-deploy
  • llm-design first asks how you want to deploy — a GPU VM (Terraform) or Kubernetes — then how many concurrent users you expect and your use case (chat, RAG, coding, batch). From that it recommends an open-weight model (e.g. Qwen, Mistral, Llama), the right GPU, and a monthly cost estimate, and writes a reviewable SPEC.md you can tweak.
  • llm-build generates everything needed to serve it: for VM targets, Terraform plus a startup script that installs the NVIDIA driver and serving engine (vLLM / SGLang / Ollama); for Kubernetes, plain manifests (a GPU Deployment, a LoadBalancer Service, and a Secret) tailored to your provider's GPU classes and node pools — each with ready-to-run deploy/destroy scripts.
  • llm-deploy runs the audit, confirms the cost, and provisions it; llm-status shows the live endpoint; llm-destroy tears it all down.

Twelve targets, one OpenAI-compatible endpoint:

  • GPU VM (Terraform): AWS · Azure · Google Cloud · Oracle Cloud · DigitalOcean · Nebius · Vultr · Scaleway · Lambda Cloud · Crusoe · Hyperstack · CoreWeave
  • Managed Kubernetes: AWS EKS · Google GKE · Azure AKS · Oracle OKE · DigitalOcean DOKS · CoreWeave CKS

Pick Kubernetes on any of those six and you get plain manifests for that provider — the right GPU node selector, the right cluster CLI, the right node-pool commands — not a generic template you have to translate.

Every deployment exposes an OpenAI-compatible /v1 endpoint you can point any client at — including pAiCoder itself.

Bring your model back into pAiCoder 🔗 (new)

The loop closes: once you've deployed an open-source LLM — or if you already run one — register it and build with it.

llm-assign      # register a deployed / external OpenAI-compatible LLM + assign it to a role
llm-providers   # list your registered custom providers and the roles they hold
llm-unassign    # remove one and revert its role to the default

llm-assign auto-detects an endpoint you just deployed (or lets you enter any OpenAI-compatible URL + model), then assigns it to a role — PLANNER, CODER, AUDITOR, or AUTO_AUDITOR — saving it on your machine. Deploy Qwen or Llama on your own GPU, set it as your CODER, and you're coding with a model that's fully private, fully yours, and free of per-token cost.

Design hardware, too — idea → synthesizable SystemVerilog 🔧 (new)

Not just software. Describe a hardware block and pAiCoder turns it into a reviewable hardware SPEC.md, then into modern, synthesizable SystemVerilog with a self-checking testbench — ready for your own simulation and synthesis flow.

verilog-design  →  verilog-build
  • verilog-design runs a short wizard — target device (AMD, Intel, Lattice, or portable), clock + reset scheme, and one of 13 hardware block types:

    • Memory — FIFO, RAM, direct-mapped cache, on-chip SRAM controller
    • Compute — ALU, SIMD engine, systolic MAC / GEMM tile, DSP datapath
    • Control & glue — FSM controller, arbiter, AXI4-Lite / AXI4-Stream / APB / Wishbone SoC peripheral
    • Reference blocks — a SHA-256-style hash core and an educational RV32I CPU subset

    From your answers it writes a deterministic SPEC.md that pins every module's ports, parameters, clocking, and interface contracts up front — plus a rough resource + timing estimate so you catch an over-budget design before you build it.

  • verilog-build generates the RTL to that spec: IEEE-1800 SystemVerilog, synthesizable subset — always_ff / always_comb, logic-typed, `default_nettype none, no inferred latches, clean reset / CDC discipline — plus a self-checking testbench, a README, and an exact, device-aware DEPLOYMENT.md with the precise lint / simulate / synthesize commands for your part. A fast, read-only static audit flags anti-patterns before you ever open a tool.

You verify — on your toolchain, your way. pAiCoder writes clean, review-ready RTL and hands you the exact commands; it never runs a simulator or synthesizer itself, so nothing surprising happens to your environment. Lint with Verilator or Verible, simulate with Verilator / Icarus, synthesize with Vivado, Quartus, or Yosys + nextpnr — the generated DEPLOYMENT.md spells out each command for your device.

Honestly scoped. Each block is bounded to what a generator can produce correctly. The two reference blocks say so up front, right at the top of their spec: the hash core is a learning implementation to check against the standard test vectors (not production crypto, not side-channel hardened), and the RISC-V core is an educational RV32I subset (not a conformant CPU — no CSRs, traps, or pipeline). No block oversells what it is.

verilog-design writes the spec, then offers to build ([y/N]) — nothing is generated until you say so.

Your choice, your cost

Most AI coding tools lock you into one model. pAiCoder lets you assign a model to each ROLE — in pAiCoder: Setup — Configure API Keys & Roles:

  • PLANNER — deep reasoning: design, spec, orchestration
  • CODER — implementation and inline completion
  • AUDITOR — an independent second opinion on audits
  • AUTO_AUDITOR — a hallucination guard

Recommended: PLANNER = Anthropic (claude-opus-5-5) and CODER = OpenAI (gpt-5.6-luna) — planning quality matters most, and this pairing has been the most reliable and cost-effective in practice. Meta (muse-spark) is a strong alternative and reads architecture diagrams. Want fully local and free? Point a role at Ollama, or at your own deployed open-source LLM (llm-assign).

More in that CHAT panel

A full coding-agent Project Chat, parallel implementation across a whole spec, code and security audits with one-shot fixes, safe refactors, and resource checks — all from pAiCoder: Open Panel. Type help to explore, doctor to check your setup.


🧭 Command reference

Type these in the CHAT panel. help lists everything available in your build; doctor shows which features are enabled.

Build from an idea

  • design <description> or load-design <filename> — generate a SPEC.md · implement — build it · feature — add a sub-feature
  • audit · security · refactor — quality passes with one-shot fixes

Deploy app infrastructure — AWS · Azure · Google · Oracle

  • aws-deploy · azure-deploy · google-deploy · oracle-deploy
  • each pairs with …-status and …-destroy

Serve open-source LLMs

  • llm-design → llm-build → llm-deploy — size, generate, and launch a serving endpoint
  • twelve clouds as a GPU VM, six of them as managed Kubernetes (EKS · GKE · AKS · OKE · DOKS · CKS)
  • llm-status · llm-destroy — inspect or tear down a deployment

Use your own models

  • llm-assign · llm-providers · llm-unassign — register a self-hosted / external LLM and assign it to a role

Design hardware (SystemVerilog)

  • verilog-design → verilog-build — idea → reviewable hardware SPEC.md → modern synthesizable SystemVerilog + a self-checking testbench, with device-aware lint/sim/synth commands you run yourself

Evaluation License

pAiCoder is free to use for 30 days from first download. See LICENSE for details.

Links

  • GitHub
  • Issues
  • Website
  • Contact: supports@paicoder.com

  • Contact us
  • Jobs
  • Privacy
  • Manage cookies
  • Terms of use
  • Trademarks
  • Your Privacy Choices
  • Consumer Health Privacy
© 2026 Microsoft