Background

Applied Science Manager (Computer Vision)

Sai Krishna Bashetty

Pioneering the future of retail video analytics, automated systems, and safe autonomous vehicles through advanced Computer Vision and AI.

About Me

I am an Applied Science Manager with over 6 years of experience pioneering the future of Retail Video Analytics and Autonomous Systems. Currently at RadiusAI, I lead cross-functional teams to build and deploy ShopAssist, an industry-leading frictionless checkout solution.

My expertise lies in translating state-of-the-art Computer Vision research into scalable, edge-optimized commercial products. I have successfully architected systems that handle thousands of SKUs in real-time, drastically reducing shrink and enhancing customer experience for major retailers.

With a Master's in Computer Engineering from Arizona State University, my background is rooted in rigorous academic research—from simulating autonomous vehicle crash scenarios (published in IEEE ICRA) to developing novel multi-camera tracking algorithms. I hold multiple patents in visual tracking and automated checkout technologies.

6+

Years Experience

4+

Patents Granted/Pending

IEEE

Published Research

Technical Expertise

Computer Vision & Deep Learning Expert
Edge Computing Optimization Advanced
MLOps & Data Pipelines Advanced
Technical Leadership Advanced
Python PyTorch TensorFlow OpenCV TensorRT Docker

Professional Experience

Data Science Manager (Computer Vision)

RadiusAI

Present

Leading the Applied Science and Computer Vision initiatives for ShopAssist, a flagship frictionless checkout solution. My work focuses on bridging the gap between cutting-edge AI research and scalable, real-world retail products.

  • ShopAssist & Pulse Analytics: Spearheading the development of vision-based self-checkout systems (ShopAssist) and store-wide analytics (Pulse). These systems leverage multi-camera tracking and deep learning to reduce shrink, optimize inventory, and enhance customer throughput.
  • Edge AI Optimization: deploying complex Deep Learning models on edge compute devices (utilizing AMD/Intel stacks) to achieve real-time inference with minimal latency, ensuring a seamless checkout experience.
  • Scalable Computer Vision: Architected systems capable of recognizing thousands of unique SKUs and handling "unknown" items through robust detection pipelines, directly addressing the long-tail problem in retail object detection.
  • Unsupervised Learning Pipeline: Strategized and implemented unsupervised methods to automate data annotation using POS ground truth, accelerating model training cycles by 10x and significantly reducing operational costs.

Masters in Computer Engineering

Arizona State University

Graduated

Specialized in novel methods for building and testing safe autonomous vehicle systems using state-of-the-art Computer Vision methods.

  • Thesis on simulation of real-world automotive crash scenarios.
  • Published work in IEEE ICRA conference.

Patents & Innovations

Intellectual property driving the next generation of retail automation and computer vision.

US Patent 12,272,217

Automatic item identification during assisted checkout based on visual features

RadiusAI, Inc. • Issued April 2025

Systems and methods for extracting item parameters from images at a POS system to identify items by matching feature vectors against a database.

US Patent 12,236,662

Point of sale station for assisted checkout system

RadiusAI, Inc. • Issued Feb 2025

Assisted checkout devices utilizing computer vision and machine learning to accelerate the checkout process with optical sensors and support towers.

US Patent 12,056,752

System and method for visually tracking persons and imputing demographic and sentiment data

RadiusAI, Inc. • Issued 2024

Multi-camera visual tracking system that maintains coherent track identity across locations to determine demographics and sentiment for actionable insights.

US Patent App 20240242470

Automatic Item Recognition From Captured Images

RadiusAI, Inc. • Published July 2024

Advanced methods for streaming parameters of unidentified items to a database for future recognition and rapid model adaptation.

Publications & Research

Peer-reviewed research and contributions to the field of Computer Vision and Autonomous Systems.

View Google Scholar
IEEE ICRA Conference Paper

DeepCrashTest: Turning Dashcam Videos into Virtual Crash Tests for Automated Driving Systems

S. K. Bashetty, H. B. Amor, and G. Fainekos

A novel AI framework that transforms standard dashcam footage into simulated crash scenarios. This work enables rigorous safety testing of autonomous vehicle systems by automatically generating adversarial trajectories from real-world accident data, significantly reducing the gap between simulation and reality.

Key Projects & Achievements

A selection of pioneering work in deployed AI systems and academic research.

Vision-Based Assisted Checkout

Vision-Based Assisted Checkout

Led the creation of an AI-powered checkout system using computer vision to automatically identify and process items. This system minimizes manual scanning, accelerates transactions, and uses proprietary algorithms robust to occlusions and lighting changes.

Computer Vision Real-Time AI Retail Tech
Retail Analytics Platform

Retail Analytics Platform

Developed a platform providing real-time insights into customer behavior and store performance. Includes novel multi-camera tracking and online calibration algorithms to map customer journeys without expensive infrastructure.

Data Analytics Multi-Camera Tracking Optimization
Healthcare Screening System

Healthcare Screening System

Innovated a non-contact screening solution using infrared thermal cameras and gesture recognition. The multi-modal system predicts accurate body temperatures and was crucial during the COVID pandemic for hospital safety.

Thermal Imaging Gesture Recognition Healthcare AI
Autonomous Safety Simulation

Autonomous Safety Simulation

Designed a simulation framework to test autonomous vehicle safety by analyzing dash cam videos. Generates adversarial crash scenarios to rigorously test collision avoidance systems, published at IEEE ICRA.

Robotics Simulation IEEE ICRA