🔬 Research Implementation Capabilities

From Research Papers
To Production Systems

We don't just wrap APIs—we implement cutting-edge computer vision research from CVPR, ICCV, and ECCV, adapting novel techniques to solve your specific problems.

Research Areas We Implement

State-of-the-art techniques adapted for commercial deployment

3D Reconstruction & Novel View Synthesis

  • ▸Neural Radiance Fields (NeRF) variants
  • ▸3D Gaussian Splatting for real-time rendering
  • ▸Multi-view stereo and SfM pipelines
  • ▸Instant-NGP and efficient variants

Foundation Models & Adaptation

  • ▸Segment Anything (SAM) fine-tuning
  • ▸CLIP and vision-language models
  • ▸Domain-specific model adaptation
  • ▸Few-shot and zero-shot learning

Custom Detection & Segmentation

  • ▸Modified YOLO architectures for edge
  • ▸U-Net, nnU-Net, TransUNet variants
  • ▸Mask R-CNN and instance segmentation
  • ▸Panoptic and semantic segmentation

Medical Imaging AI

  • ▸Organ and lesion segmentation networks
  • ▸Medical image registration techniques
  • ▸Multi-modal fusion (CT/MRI/PET)
  • ▸Pathology slide analysis models

Visual Transformers & Attention

  • ▸Vision Transformers (ViT) for classification
  • ▸DETR and transformer-based detection
  • ▸Self-attention mechanisms for CV
  • ▸Swin Transformers and variants

Video Analysis & Tracking

  • ▸Multi-object tracking (MOT) algorithms
  • ▸Action recognition and video understanding
  • ▸Optical flow and motion estimation
  • ▸Real-time video segmentation

Recent Research Implementations

Real-world results from cutting-edge papers

🎯

Segment Anything Model (SAM) Adaptation

Adapted Meta's SAM foundation model for medical image segmentation in CT scans. Fine-tuned on custom dataset of 5,000 annotated volumes.

15% Accuracy Improvement
Over base SAM model
3 Weeks to Production
From paper to deployment
🌐

3D Gaussian Splatting for Construction

Implemented real-time 3D reconstruction from drone footage for construction site monitoring using latest Gaussian Splatting techniques.

60fps Real-Time Rendering
On consumer hardware
Sub-cm Accuracy
Volume measurements
⚡

Custom YOLO Architecture for Industrial Inspection

Modified YOLOv8 architecture with attention mechanisms for defect detection on manufacturing lines. Optimized for NVIDIA Jetson deployment.

3x Faster Inference
vs. standard YOLOv8
98.5% Defect Detection
In production environment

Our Research-to-Production Process

How we go from paper to deployed system

1

Paper Analysis & Feasibility

We review the latest papers from CVPR, ICCV, ECCV, and arXiv to identify techniques applicable to your problem. We assess computational requirements, data needs, and potential performance gains.

2

Clean Implementation

We implement the algorithm from scratch in production-ready code (PyTorch, TensorFlow). No copy-paste from research repos—we build for maintainability and deployment from day one.

3

Domain Adaptation

We adapt the architecture to your specific data, hardware constraints, and performance requirements. This includes custom loss functions, data augmentation, and architectural modifications.

4

Optimization & Deployment

We optimize for your target platform (edge devices, cloud, mobile). This includes quantization, pruning, TensorRT conversion, and custom CUDA kernels when needed for real-time performance.

5

Validation & Documentation

Rigorous testing against benchmarks and real-world data. We provide comprehensive documentation including architecture decisions, hyperparameters, and deployment guides.

Academic Partnerships & Research Access

Located next to Purdue University's CS department

🎓 Research Access

Direct access to cutting-edge research from top-tier universities. We stay current with the latest developments before they hit mainstream tools.

🤝 Collaborative Development

When needed, we collaborate with academic researchers to adapt their work for commercial deployment, ensuring techniques are properly implemented.

📚 Continuous Learning

Our team regularly reviews papers from major conferences (CVPR, ICCV, ECCV, NeurIPS) to identify techniques for client applications.

🔬 PhD-Led Implementation

Led by Dr. Tharindu Mathew (Purdue PhD, Ex-Microsoft Research), ensuring research is properly understood and implemented.

Need a Custom Research Implementation?

Whether it's a specific paper you want implemented or a novel technique you need developed, let's discuss how we can bring cutting-edge research to your production system.

Schedule Research Consultation →