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Excellence In HUMAN FINGURE PROTYPE(S-EHFP-5284)

  • Last updated Oct, 2026
  • Certified Course

Course Includes

  • Duration2 Months
  • Enrolled0
  • Lectures50
  • Videos0
  • Notes0
  • CertificateYes

What you'll learn

The Human Finger Prototype course is a practical robotics and mechatronics program designed to introduce learners to the development of a robotic finger that imitates basic human finger movements. The course combines mechanical design, electronics, microcontrollers, servo motors, sensors, and programming to create a functional finger prototype.

Students learn how human finger movement can be translated into robotic motion using servo motors and sensors such as flex sensors. The course also introduces gesture-based control, multiple-joint coordination, robotic hand concepts, and human-robot interaction through hands-on prototype development.

What You Will Learn

  • Fundamentals of human finger and robotic movement
  • Basic anatomy and mechanics of finger joints
  • Robotic finger structure and mechanical design
  • Arduino microcontroller programming
  • Servo motor control
  • Finger joint movement and calibration
  • Flex sensor interfacing
  • Sensor-based finger control
  • Gesture and motion control concepts
  • Multiple-joint coordination
  • Robotic hand prototype development
  • Human-robot interaction concepts
  • Power and circuit management
  • Prototype troubleshooting and testing
  • Development of a working Human Finger Prototype

Who Can Join?

  • School students
  • Robotics beginners
  • STEM learners
  • Engineering and diploma students
  • Electronics students
  • Mechanical and mechatronics students
  • Arduino beginners
  • Robotics enthusiasts
  • Students interested in assistive robotics
  • Students interested in prosthetic and robotic hand technologies

Prerequisite

Basic computer knowledge and logical thinking are helpful. Basic electronics or programming knowledge is an advantage but not mandatory. No previous experience in robotic hand development is required.

Course Outcome

After completing this course, learners will be able to:

  • Understand the basic mechanics of human fingers and robotic fingers.
  • Design and assemble a simple robotic finger mechanism.
  • Control servo motors using a microcontroller.
  • Interface flex and other basic sensors.
  • Convert sensor input into robotic finger movement.
  • Program bending and extension movements.
  • Coordinate multiple robotic joints.
  • Develop basic gesture-controlled robotic movement.
  • Calibrate mechanical and electronic components.
  • Troubleshoot common prototype problems.
  • Build and demonstrate a functional Human Finger Prototype.

Career & Learning Opportunities

  • Robotics Project Assistant
  • Robotics Technician – Entry Level
  • Mechatronics Project Trainee
  • Embedded Systems Trainee
  • Electronics Project Trainee
  • Robotic Hand Project Assistant
  • Assistive Robotics Project Trainee
  • Automation Trainee
  • Robotics Lab Assistant
  • STEM/Robotics Trainer – Entry Level
  • Prototype Development Assistant


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Course Syllabus

Module 1: Introduction to Human Finger Prototype

  • Introduction to robotic finger systems
  • Concept of a human finger prototype
  • Applications of robotic fingers
  • Human hand and finger movement
  • Basic working principles
  • Types of robotic finger mechanisms
  • Components required for the prototype

Module 2: Human Finger Anatomy & Movement

  • Basic structure of a human finger
  • Finger joints and movement
  • Bending and extension
  • Degrees of freedom
  • Movement limitations
  • Understanding human hand mechanics
  • Translating human movement into robotic movement

Module 3: Robotics & Electronics Fundamentals

  • Basic robotics concepts
  • Voltage, current and resistance
  • Electronic components
  • Resistors, LEDs and switches
  • Breadboard fundamentals
  • Basic circuit connections
  • Power supply concepts

Module 4: Prototype Design & Mechanical Structure

  • Robotic finger structure
  • Finger segment design
  • Joint mechanisms
  • Mechanical linkages
  • Material selection
  • 3D-printed and prototype components
  • Mechanical assembly concepts

Module 5: Microcontroller Fundamentals

  • Introduction to microcontrollers
  • Arduino overview
  • Arduino board components
  • Digital and analog pins
  • Input and output devices
  • Microcontroller connections
  • Basic control applications

Module 6: Servo Motors & Actuators

  • Introduction to servo motors
  • Types of servo motors
  • Servo motor components
  • Servo angle control
  • Torque and load concepts
  • Connecting servo motors
  • Testing servo movement

Module 7: Robotic Finger Joint Control

  • Finger joint movement
  • Servo-based joint control
  • Bending and straightening
  • Movement range
  • Multiple joint coordination
  • Joint calibration
  • Programming finger movements

Module 8: Arduino Programming for Finger Prototype

  • Arduino IDE
  • Program structure
  • Variables and data types
  • Conditional statements
  • Loops and functions
  • Servo programming
  • Uploading and testing programs

Module 9: Sensors for Human Finger Prototype

  • Introduction to sensors
  • Flex sensors
  • Force sensors
  • Potentiometers
  • Motion sensors
  • Sensor interfacing
  • Reading sensor values
  • Sensor calibration

Module 10: Flex Sensor-Based Finger Control

  • Working of flex sensors
  • Measuring finger bending
  • Flex sensor connections
  • Analog signal reading
  • Mapping sensor values to servo angles
  • Finger movement programming
  • Testing flex-controlled movement

Module 11: Gesture & Motion Control

  • Introduction to gesture control
  • Hand movement detection
  • Gesture-based finger movement
  • Sensor-based commands
  • Mapping gestures to actions
  • Real-time movement control
  • Testing gesture responses

Module 12: Multiple Finger & Hand Mechanisms

  • Multiple robotic fingers
  • Coordinated finger movement
  • Thumb mechanism concepts
  • Hand palm structure
  • Multi-servo control
  • Synchronizing multiple joints
  • Basic robotic hand prototype

Module 13: Human-Robot Interaction

  • Human-controlled robotic movement
  • Wearable control concepts
  • Gesture-based interaction
  • Sensor-based communication
  • User input and robot response
  • Interactive robotic systems
  • Practical HRI applications

Module 14: Advanced Finger Control

  • Precise servo positioning
  • Smooth finger movement
  • Speed and acceleration control
  • Multiple servo coordination
  • Movement sequences
  • Feedback-based control concepts
  • Advanced programming techniques

Module 15: Power Supply & Circuit Management

  • Power requirements for servo motors
  • Battery selection
  • Voltage regulation
  • Separate motor and controller power concepts
  • Power distribution
  • Circuit protection
  • Safe power management

Module 16: Troubleshooting & Calibration

  • Servo calibration
  • Sensor calibration
  • Mechanical alignment
  • Wiring problems
  • Motor and servo issues
  • Programming errors
  • Sensor reading problems
  • Prototype testing and maintenance

Module 17: Applications of Robotic Finger Systems

  • Prosthetic technology concepts
  • Assistive robotics
  • Educational robotics
  • Human-machine interaction
  • Robotic hand development
  • Rehabilitation technology concepts
  • Industrial gripping applications
  • Research and development applications

Module 18: Human Finger Prototype Project Design

  • Project planning
  • Mechanical design
  • Component selection
  • Circuit design
  • Sensor and servo integration
  • Programming workflow
  • Testing and improvement
  • Project documentation

Module 19: Practical Human Finger Prototype Projects

  • Single robotic finger
  • Servo-controlled finger
  • Flex sensor-controlled finger
  • Gesture-controlled finger
  • Multi-joint robotic finger
  • Multiple finger prototype
  • Basic robotic hand prototype

Module 20: Final Human Finger Prototype Project

  • Complete mechanical assembly
  • Servo and sensor integration
  • Arduino programming
  • Finger movement calibration
  • Gesture or sensor-based control
  • Testing and troubleshooting
  • Final prototype demonstration
  • Practical assessment


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