GlobalLogic and Haystack Robotics engineer modular UV disinfection AMR

According to The Robot Report, GlobalLogic’s Silicon & Embedded division partnered with Haystack Robotics to engineer an autonomous mobile robot (AMR) designed for hospital-grade UV disinfection. Developed originally in response to the COVID-19 pandemic, the machine combines real-time perception, edge intelligence, and sensor fusion via ROS to navigate unpredictable healthcare environments.

What happened

The engineering team designed the AMR to decouple the mobile base from the top-mounted UV payload, creating an expandable platform that can support future configurations beyond disinfection, according to Kunaal Mahanti, physical AI lead at GlobalLogic. The Robot Report notes that the system operates in two distinct modes: a fully autonomous navigation mode to locate designated rooms, and a 'follow me' mode that allows a caregiver or nurse to lead the robot through difficult spaces, such as closed doors or crowded corridors.

Designing for a healthcare setting required overcoming specific operational hurdles. Mahanti told The Robot Report that the team had to account for low-noise motor design and strict safety constraints. Prem Balasubramanian, GlobalLogic's chief technology officer, highlighted that hospitals are fundamentally built for human workflows. Moving assets through dynamic environments filled with moving patients and rushed staff introduces severe navigation bottlenecks. Furthermore, GlobalLogic's leadership noted three major friction points for broader adoption: demonstrating clear return on investment (ROI), meeting complex medical compliance standards, and managing hospital staff perception regarding bulky hardware in cramped corridors.

Why it matters for small robotics and automation teams

For small companies building mobile manipulators or service robots, the Haystack-GlobalLogic collaboration highlights the strategic necessity of modular architecture. If you are designing an AMR purely for a single-point use case, you risk boxing your business into a low-margin pilot trap. By architecting the mobile chassis independently of the application payload—reusing core motor controls and ROS sensor fusion layers for separate projects—small engineering teams can amortize software and hardware development across multiple verticals.

At the same time, the deployment realities outlined by GlobalLogic serve as a reality check for teams looking to break out of structured warehouses and into unstructured service sectors. Warehouses offer predictable layouts, controlled traffic flows, and clear operational parameters. Hospitals, retail spaces, and public buildings are entirely different. When your machine has to negotiate with moving people, handle variable entry points, and operate quietly without disrupting human workflows, the engineering burden shifts radically from basic mapping to advanced human-robot interaction and workflow integration. If your deployment strategy relies on expecting a human-centric environment to adapt to your robot rather than the other way around, your pilot will stall.

What to do this week

1. Audit your robot's software and hardware architecture to verify whether your mobile base is completely decoupled from your payload module so it can be adapted for alternative use cases.
2. Review your current sensor fusion and navigation stack to test how safely your platform handles dynamic, unpredictable obstacles that do not conform to fixed warehouse maps.
3. Calculate your unit-level deployment economics against human labor baselines to ensure your target market has a clear, justifiable ROI path beyond emergency pandemic conditions.

Sources

• How GlobalLogic helped Haystack Robotics build a UV disinfection robot — The Robot Report