Deploying high-gradient machine learning and computer vision architectures directly on specialized silicon for real-time inference.


Custom ML model development for classification, regression, and predictive analytics with automated training pipelines.

Real-time object detection, tracking, and semantic segmentation optimized for embedded GPU and NPU accelerators.

Natural language processing solutions including LLM fine-tuning, named entity recognition, and multilingual text analysis.

Quantized and pruned model deployment on edge devices with TensorRT, ONNX Runtime, and custom DSP backends.
Data collection, augmentation, and model selection with rigorous evaluation against production performance targets.
Model compression, quantization, and hardware-specific optimization for target deployment platforms.
Production deployment with continuous monitoring, A/B testing, and over-the-air model update infrastructure.
Compressing complex architectures into efficient runtimes suitable for specialized AI hardware without accuracy loss.
Building self-improving datasets that identify low-confidence edge cases for continuous validation.
Optimizing GPU/TPU utilization across distributed training clusters to minimize R&D expenditure.
Implementing rigorous bias detection and fairness monitoring to ensure AI outputs remain safe and compliant.
ChipTalk.AI bridges the gap between ML research and production deployment. Our team has shipped 30+ production AI systems spanning computer vision, NLP, and predictive analytics—on cloud GPUs and on embedded NPUs with sub-watt power budgets. We are equally comfortable fine-tuning a 7B-parameter LLM and quantizing a YOLO model to run at 60 FPS on a Jetson Orin.
Developed and deployed a multi-camera object detection pipeline on NVIDIA Orin, achieving 45 FPS across six 8 MP camera streams with INT8 quantized YOLOv8.
Fine-tuned a LLaMA-3 8B model with LoRA on proprietary technical documentation, building a RAG pipeline that reduced first-response time by 70% for a semiconductor equipment vendor.
We do not treat ML as a black box. Our team writes the CUDA kernels, tunes the quantization calibrator, and debugs the ONNX export—so when your model hits production, it runs at the speed your hardware demands, not the speed the notebook promised.