Artificial Intelligence, Cyber Security, And Emerging Technologies
Training course on Advanced Robotics in Healthcare
Master Training course Advanced with expert training. 10 Days course with certification. Comprehensive training program. Online & in-person. Enroll now!
Artificial Intelligence, Cyber Security, And Emerging Technologies10 DaysCertificate Included
Duration
10 Days
Mode
Online & Physical
Certificate
Included
Language
English
Course Overview
This intensive training explores the transformative role of advanced robotics in modern healthcare systems. It covers the integration of surgical robots, rehabilitation devices, robotic assistants, and AI-driven autonomous systems across clinical, diagnostic, and administrative workflows. Participants will learn about robotic systems design, control algorithms, AI and computer vision integration, telemedicine robotics, and ethical, regulatory, and cybersecurity challenges in robotic healthcare applications. The program blends theory with practical case studies, system demonstrations, and simulation exercises to build both conceptual and operational expertise.
Secure enrollment • Professional certificate included
Learning Objectives
By the end of this course, participants will be able to:
Understand the fundamentals of medical robotics and their applications in various healthcare domains.
Describe the mechanical, electrical, and software architecture of healthcare robotic systems.
Analyze the integration of AI, computer vision, and sensor fusion in robotic healthcare devices.
Evaluate the clinical, ethical, and regulatory aspects of using robotics in patient care.
Apply principles of control systems and automation to medical robotics scenarios.
Explore the future of telepresence, rehabilitation, and assistive robotics in healthcare delivery.
Design a conceptual framework for implementing robotics in hospital or clinical workflows.
Course Content
Module 1: Introduction to Robotics in Healthcare Overview: Introduces the evolution, scope, and impact of robotics technologies in the healthcare sector. Key Topics: Evolution of medical robotics and automation Types of healthcare robots: surgical, diagnostic, rehabilitation, and service robots Key components: sensors, actuators, and control systems Role of robotics in improving precision, safety, and efficiency Overview of robotics-enabled healthcare transformation Practical Focus: Participants review case studies of leading robotic healthcare systems (e.g., da Vinci, ROSA, CyberKnife). Module 2: Fundamentals of Robotic Systems and Control Overview: Covers the mechanical and control aspects of robotic systems relevant to medical applications. Key Topics: Kinematics and dynamics of robotic manipulators Motion control, feedback loops, and PID controllers Robot operating systems (ROS) and middleware Human-robot interaction (HRI) fundamentals Safety mechanisms and fail-safe design in clinical environments Practical Focus: Simulate robotic arm movement using open-source robotics platforms (e.g., ROS or V-REP). Module 3: Surgical Robotics and Precision Medicine Overview: Focuses on robotic systems designed for minimally invasive surgery, diagnostics, and clinical intervention. Key Topics: Architecture of surgical robots (e.g., master-slave systems, haptic feedback) Robotic-assisted surgery and laparoscopic automation Image-guided and navigation-assisted robotic systems Integration with medical imaging (CT, MRI, ultrasound) Case studies: da Vinci, MAKO, and robotic endoscopy platforms Practical Focus: Analyze surgical robotics workflow and identify integration points for AI-based precision enhancement. Module 4: Rehabilitation and Assistive Robotics Overview: Explores the role of robotics in physical rehabilitation, prosthetics, and assistive care. Key Topics: Robotic exoskeletons and wearable assistive devices Neuroprosthetics and brain-computer interfaces (BCI) Robotic rehabilitation for stroke and mobility recovery AI-enabled adaptive therapy systems Integration of robotics with physiotherapy and tele-rehabilitation Practical Focus: Participants design a conceptual prototype for an AI-driven rehabilitation robot. Module 5: Robotics in Telemedicine and Remote Healthcare Overview: Examines how robotics enhances remote diagnosis, tele-surgery, and patient monitoring. Key Topics: Telepresence robots and remote consultations Haptic communication and tactile internet in telesurgery Remote patient monitoring systems with robotic support Network and latency considerations (5G and edge computing) Case studies: remote surgical systems and hospital delivery robots Practical Focus: Simulate a telepresence healthcare robot operation using a virtual collaboration platform. Module 6: AI, Computer Vision, and Sensor Fusion in Healthcare Robotics Overview: Covers the integration of AI, perception, and learning systems in intelligent healthcare robots. Key Topics: Computer vision for object detection, tracking, and 3D mapping Deep learning and neural networks for robotic perception Sensor fusion for situational awareness (LiDAR, IMU, depth cameras) Natural language processing for voice-interactive healthcare robots AI-driven decision support systems in autonomous healthcare robotics Practical Focus: Develop a computer vision model for object recognition in a healthcare robotics context. Module 7: Collaborative Robots (Cobots) and Human-Robot Interaction Overview: Explores safe and effective collaboration between humans and robots in healthcare environments. Key Topics: Characteristics and design of collaborative robots (cobots) Motion planning and obstacle avoidance for patient safety Human-robot ergonomics and user experience (UX) Behavioral modeling and cognitive interaction frameworks Applications in nursing, logistics, and laboratory automation Practical Focus: Participants design an HRI workflow for a hospital cobot assisting with medication delivery. Module 8: Data Management, Cybersecurity, and System Reliability Overview: Focuses on protecting and managing sensitive healthcare data generated by robotic systems. Key Topics: Data acquisition, storage, and interoperability standards (FHIR, HL7) Security threats in medical robotics and IoT integration End-to-end encryption and authentication mechanisms Reliability, redundancy, and failover strategies in robotic systems Incident response and risk management in healthcare robotics Practical Focus: Conduct a risk assessment for a robotic-assisted surgical workflow and propose mitigation controls. Module 9: Ethics, Regulation, and Policy in Medical Robotics Overview: Examines the ethical, legal, and regulatory considerations guiding the deployment of robotics in healthcare. Key Topics: Ethical frameworks for autonomous systems in patient care Regulatory standards: FDA, ISO 13485, IEC 60601, and CE certification Patient consent, data privacy, and accountability Robotics liability and professional responsibility Government policies and investment trends in healthcare automation Practical Focus: Review and critique an ethical case study involving AI-assisted robotic surgery. Module 10: Future Trends and Capstone Project Overview: Analyzes emerging innovations and guides participants in developing a strategic implementation plan. Key Topics: Next-generation robotic technologies: swarm robotics, nanorobots, soft robotics Integration with digital twins, AI, and IoT in healthcare systems Robotics-as-a-Service (RaaS) business models in healthcare Global market outlook and innovation opportunities Designing hospital ecosystems powered by robotics and automation Capstone Project: Participants design a comprehensive proposal for implementing an advanced robotic solution in a healthcare setting (e.g., surgical assistance, rehabilitation center, telemedicine, or hospital logistics), covering system architecture, AI integration, safety measures, and cost-benefit analysis.
Who Should Attend
This course is designed for biomedical engineers, healthcare technologists, clinicians, robotics engineers, hospital administrators, AI and automation specialists, rehabilitation therapists, and R&D professionals involved in healthcare innovation, robotics deployment, and medical device design. It is also suitable for policy advisors and healthcare planners seeking to understand the role of robotics in modern health systems.