AI Model Layer
LLM workflows, retrieval, evaluation, tool use, and private-model planning when the project needs more control.
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When the reviews are still building, credibility comes from code you can read. Below are the platforms, AI systems, cloud patterns, and public repositories behind the work.
Company engineering organization for Ingenious Digital, production deployments, and selected public infrastructure proof. Private client repos are represented through case studies.
Open business orgClient-facing breakdowns that translate code, architecture, and automation into business outcomes.
View the workAI infrastructure and model tooling built by a Fort Lauderdale engineering studio: model-agnostic builds on Gemini, NVIDIA NeMo, and self-hosted open-weight models, wired together with RAG and MCP servers, deployed behind server-side token brokers. Public, source-backed proof lives on our GitHub.
What we can actually build with
LLM workflows, retrieval, evaluation, tool use, and private-model planning when the project needs more control.
Human-supervised agent systems that can research, code, operate tools, and keep context across real work sessions.
Production web and mobile software that loads fast, holds up under real traffic, and ships on a deadline.
Operational systems that connect CRMs, inboxes, forms, payments, documents, and internal dashboards.
Deployments designed around portability, observability, security, and the right amount of managed service.
Experimental systems where agents meet devices, voice, video, robotics, and real-world inputs.
Applied labs
OpenClaw, NeMoClaw, Hermes, and similar tools are strongest when they are tied to a real workflow: private AI, agentic operations, hardware control, model evaluation, or customer-facing automation.
Useful for robotics-style control loops, local assistants, hardware interfaces, and supervised tool execution.
A lane for model customization, evaluation, guardrails, and deployment planning when the project justifies it.
Private or local model exploration for teams that need portability, cost control, or more ownership of inference.
How this helps clients
You get a team that reasons about architecture out loud, ships fast, and hands back code you can read six months after launch instead of mystery you have to pay someone to decode.
Start with the business workflow, then choose the stack.
Use managed platforms when speed matters and portable systems when control matters.
Keep AI systems observable, reviewable, and grounded in real company data.
Document architecture and tradeoffs so clients are not trapped by mystery code.
Common questions about our AI infrastructure, models, MCP servers, and self-hosting.
We build across the major model families — Google Gemini (including the Gemini Live API that powers our JARVIS voice assistant), NVIDIA NeMo, and open-weight models we can self-host. We're model-agnostic: we pick the model that fits the task, cost, and latency budget, and we wire in retrieval (RAG) and tool-use (MCP) so the model works against your real data instead of reciting from memory.
They're internal engineering tools and infrastructure we've built and use in production. They represent our AI infrastructure and model-tooling stack — the deployment, orchestration, and evaluation layer that sits between a raw model and a reliable product feature. Our public GitHub organization shows the source-backed proof behind this work.
Yes. We build Model Context Protocol (MCP) servers that give AI assistants safe, structured access to tools, APIs, and internal data. MCP is how we let an agent take real actions — look up a record, trigger a workflow, filter a live view — instead of just generating text. Our JarvisNano hardware prototype and JARVIS voice assistant both run on MCP workflows.
Yes. When data residency, cost at scale, or latency requires it, we deploy open-weight models on your own cloud or on-prem infrastructure with NVIDIA NeMo tooling. When a hosted frontier model is the better trade-off, we use one behind a server-side broker so keys never reach the browser. We'll recommend the right split based on your requirements.
Retrieval-Augmented Generation (RAG) grounds an AI's answers in your own documents and data rather than its training memory, which cuts hallucinations and keeps answers current. We implement full RAG pipelines — ingestion, chunking, embeddings, vector search, and re-ranking — and wire them into assistants, search, and internal tools.
Credentials stay server-side (we use short-lived token brokers so long-lived keys never reach the browser), model calls run behind rate limits and evaluation harnesses, and agent actions are scoped through MCP with explicit tool permissions. We benchmark model behavior — our DRQ Benchmark project is public proof of that discipline — before anything ships.
Source-backed proof from the portfolio — embedded AI hardware, multi-provider LLM benchmarking, and lower-level systems work.
An open-source embedded AI project with C/C++ firmware on Seeed XIAO ESP32-S3 Sense and Waveshare AMOLED boards, dynamically loaded Lua skills running on-chip, and hardware-first prototyping to explore how assistants can move beyond the browser. A Kotlin Android app is the optional companion.
An enhanced fork of Sakana AI's DRQ benchmark for evaluating LLM adversarial code generation. Features multi-provider support, real-time web interface, and battle visualization.
A public systems-programming project exploring a readable shell core, terminal workspace, autosuggestions, Windows-native terminal direction, POSIX launch path, and a slim AgentD sidecar.
We can turn public repositories, prototypes, internal tools, and case studies into a clearer credibility trail for serious prospects.