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Lead Instructor(s)
Date(s)
Jul 06 - 09, 2026
Registration Deadline
Location
On Campus
Course Length
4 days
Course Fee
$3,600
CEUs
2.6
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Build end-to-end vision systems that see, understand, and act in the physical world. This intensive program unites imaging systems, machine learning, and physical AI to create intelligent workflows, from acquisition to real-time interaction. This course is designed for professionals who want to master the convergence of imaging, ML, and real-time systems.

Move beyond theory and start building the future of intelligent vision. You will leave with a working capstone project, reusable code, and workflow templates to accelerate deployment in your own organization.

Course Overview

The Now and Future of Integrated Imaging and Sensor Technologies

Bridge the gap between digital intelligence and the physical world. This intensive, hands-on course unites imaging systems, machine learning, and physical AI to help you build end-to-end vision workflows.

From data acquisition to real-time insight, you will master the technologies driving the next generation of automation, healthcare, and creative practice. Hosted in the state-of-the-art MIT.nano Immersion Lab, this program moves beyond theory. You will design multi-sensor pipelines, train vision models, and deploy edge inference systems that see, understand, and act.

Whether you work in MedTech, Smart Manufacturing, or Immersive Technologies, this course provides the tools to create intelligent systems that interact with physical reality.

Course Curriculum

This program features extensive lab work and case studies. You will engage with real-world datasets across five tightly integrated modules.

Day 1: Imaging Systems and Sensor Fusion

  • Introduction to imaging modalities and hardware.
  • Principles of sensor fusion across different domains.
  • Lab: Building a multi-sensor acquisition pipeline and integrating streams.

Day 2: Computational Imaging and ML Techniques

  • Machine learning imaging pipelines.
  • Deep dive into segmentation, tracking, and supervised learning models.
  • Lab: Training and evaluating ML models for vision tasks.

Day 3: Visualization and Interaction

  • Visual analytics for complex data.
  • Designing human-in-the-loop systems.
  • AR/VR interfaces for vision data.
  • Lab: Creating interactive visualization tools and XR overlays.

Day 4: Physical AI and Real-Time Systems

  • Embedded systems and edge computing fundamentals.
  • Developing real-time systems for vision applications.
  • Case Studies: Deep dives into MedTech and smart factory implementations.

Day 5: Capstone Integration

  • End-to-end workflow design and deployment.
  • Final project presentations demonstrating a functional intelligent imaging system.
  • Group feedback and roadmap for future implementation.

The Immersion Lab Experience

You will learn in the MIT.nano Immersion Lab, a unique facility dedicated to visualizing, understanding, and interacting with data. The course utilizes a wide range of hardware, including:

  • Optical, ultrasound, and depth cameras.
  • Motion capture systems.
  • Physiology sensors.
  • VR/AR headsets.

You will leave this course with a working capstone project, reusable code notebooks, workflow templates, and a clear roadmap to deploy these technologies in your own organization.

Learning Outcomes

This course focuses on practical application. By the end of the program, you will be able to:

  • Design Multi-Sensor Pipelines: Build acquisition systems using optical, ultrasound, depth, thermal, and IMU sensors. Master the synchronization of complex data streams with precise timecodes.
  • Train and Evaluate ML Models: distinct models for detection, segmentation, and tracking. Learn to interpret performance metrics (confusion matrix, PR/ROC) and mitigate algorithmic bias.
  • Implement Computational Imaging: Create robust data processing pipelines. Produce reproducible dataset cards and deployable model cards for professional use.
  • Build Interactive Visual Analytics: Develop XR overlays and visual tools that enable human-in-the-loop decision-making.
  • Deploy Real-Time Systems: Execute edge inference and close the loop with physical AI actuation, such as robotics or feedback stimuli.
  • Apply Best Practices: Navigate ethics regarding human-subject data (biometrics/physiology) and data governance in clinical and manufacturing settings.
Who Should Attend

This course is designed for professionals in research, engineering, and applied sciences who want to leverage computer vision and sensor technologies. It is particularly relevant for:

  • Manufacturing Engineers: Focused on smart manufacturing, defect detection, and industrial automation.
  • System Architects: Building robotics and autonomous systems that require sensor fusion.
  • MedTech Professionals: Interested in medical diagnostics, imaging workflows, and biomechanics.
  • Creative Technologists: Working in AR/VR, interactive visualization, and immersive experiences.

Prerequisites: Participants should have a basic understanding of data handling and an interest in system design.