Discover AI Applications

Browse applications built on modern technologies. Explore PoC and MVP applications created by our community and discover innovative use cases for modern technologies.

Jarvis

Jarvis

It is a very powerful ai chatbot which can run using your hand movements and run on various environments to perform your various tasks visually using 3D visualisation and remind you of anything anytime just using commands and many more to come.JARVIS is not just an AI assistant; it is an ambitious step toward building a futuristic digital intelligence inspired by the possibilities of Tony Stark’s legendary technology. Designed as an expanding ecosystem of intelligent environments, JARVIS combines conversational AI, futuristic interfaces, visual intelligence, scientific simulations, and centralized command capabilities into one powerful web-based platform. Its six environments—Main JARVIS, Velve, Terranexus, Command Centre, Vision Intelligence, and Ultron—represent different dimensions of an interconnected digital universe. From exploring scientific experiments and mechanical simulations to visual intelligence and advanced system interaction, every environment expands what a personal AI ecosystem can become. JARVIS aims to transform the way humans interact with technology, bringing multiple intelligent capabilities together through a unified interface. Its long-term vision reaches beyond answering questions toward helping users interact with digital tools, navigate complex information, and manage technological workflows. Built with the ambition to evolve continuously, JARVIS represents a bold vision of a world where AI is not merely something you talk to—it becomes the intelligent interface connecting you to your digital universe. JARVIS: One Intelligence. Multiple Environments. An Entire Digital Universe at Your Command.

DENCO
AI/ML APIAssistants APIrest api
VisionForge OCR + Grounded RAG on AMD ROCm

VisionForge OCR + Grounded RAG on AMD ROCm

Two offline AMD ROCm systems share this entry: VisionForge AI for multilingual visual OCR (Match 2) and Grounded RAG for document question answering (Match 3). Each has a separate public Docker image in the matching private image field. Both include pinned model weights and need no runtime model downloads or external inference APIs. Match 2 reads US and Chinese registration plates and road signs from PNG, JPEG and TIFF. A resident Qwen3-VL-2B-Instruct worker loads once; a thin Python CLI sends image requests over a local Unix socket and writes the required JSON text output. US jurisdiction banners are excluded; Chinese province symbols remain part of the registration. Direct ROCm code passed 17/17 own synthetic cases on an AMD Radeon Pro W7900D (16.01 s startup, 3.57 s for ten CLI calls, 4.790 GiB observed peak). GPU inference inside the final Docker image was not tested. Match 3 answers questions over PDF, Word tables, spreadsheets, CSV, logs, Python source, diagrams and photographed labels with exact file citations. When evidence is missing it returns an empty answer and no citations. Resident Qwen3-VL-8B and Qwen3-Embedding-0.6B models combine lexical and semantic retrieval, identifier links and a second evidence check. Direct GPU code passed 287/287 development questions with answers and exact citation sets, plus 47 Linux tests. Peak PyTorch reserved memory was 19.87 GiB. Full Docker plus AMD GPU launch remains unverified because the free notebook has no container runtime. Both images preserve the required ROCm base. The tests use development or self-generated cases and do not establish an official hidden-set score.

Lord
AMD ROCmAMD Developer CloudQwen3-VL+1
PlateParse: ROCm Vision OCR for Plates and Signage

PlateParse: ROCm Vision OCR for Plates and Signage

PlateParse is a vision-language OCR system for vehicle registration plates and road signage, built to run entirely on AMD Instinct GPUs via ROCm. It uses Qwen2.5-VL-7B-Instruct as the recognition backbone, served from a container whose final stage is the mandated rocm/pytorch ROCm 10.0 base, with model weights staged in a separate build stage so they never bloat the base image. The scoring pipeline separates recognition from transcription rules. The vision model does the reading; normalize.py then applies category-aware cleanup: Chinese license plates keep their province prefix, single-token alphanumeric strings are treated as plate numbers so state banners and mottos are stripped, and multi-token output is treated as road signage where all text is preserved. Units appended to advisory speed plaques are removed without damaging genuine sign text. Both sides of grading are normalized identically, so emitting the correct character set is what matters, not formatting. The system was debugged directly on an AMD Instinct MI300X under ROCm, which surfaced a hardware-specific failure worth noting: the Qwen2.5-VL vision tower segfaults under bfloat16 on this ROCm generation. Pinning float32 weights with eager attention resolved it. Verified end to end on the MI300X, reading a synthetic California plate as 7ABC123 at 0.9988 confidence, with the banner correctly stripped. The container is defensive by design: it always writes schema-valid JSON and exits zero, so a single malformed image costs its own points rather than ending the run and zeroing every remaining image.

HaloHubX
AMD ROCmHuggingFace HubAMD Developer Cloud
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