biomedical design

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Challenge the future Delft University of Technology MSc Mechanical Engineering Biomechanical Design (BMD) 1 Master Event

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De voorlichtingsslides van BMD voorlichting in april

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Page 1: BioMedical Design

Challenge the future

Delft University of Technology

MSc Mechanical Engineering

Biomechanical Design (BMD)

1 Master Event

Page 2: BioMedical Design

Challenge the future

Delft University of Technology

Aim Design of technical systems that • interact with biological systems (e.g., the human body) • follow the principles of biological systems (biomimetics) • human movement • human perception • human control • human senso-motoric behaviour • nature’s paradigms and analogues

2 Master Event

Page 3: BioMedical Design

First year (60 EC)

Obligatory courses

(17 EC)

• Control system design

• Multibody dynamics B

• The human controller

• Man-machine systems

• Experimental design,

statistics, and the

human

Specialisation courses

(15–16 EC)

• BioRobotics

• BioInspired Technology

• Automotive Human Factors

• Haptic Interfaces

• Sports Engineering

Elective courses

(27–28 EC)

Discuss the selection with the track coordinator to

create a coherent and personalized programme.

Second year (60 EC)

1st semester

Internschip (15 EC)

Literature study (10 EC)

2nd semester

Graduation project (35 EC)

The MSc trajectory

Page 4: BioMedical Design

Walking robots Football robots Personal robots

Robot hands

inspired by humans/nature cope with humans/nature

BioRobotics

Page 5: BioMedical Design

inspired by humans/nature cope with humans/nature

What will you learn? - Design, simulate, and control robots - Study examples from nature - Model human body & brain as a control system

BioRobotics

Page 6: BioMedical Design

inspired by humans/nature cope with humans/nature

What will you learn? - Design, simulate, and control robots - Study examples from nature - Model human body & brain as a control system

Obligatory courses - Human movement control A: Musculosceletal mechanics - Human movement control B: Neuromuscular control - Control systems lab - Humanoid robots - Control methods for robotics

BioRobotics

Page 7: BioMedical Design

0,05

0,000p

2 0,85R

Surgeon - Instruments/devices system

Patient - Instruments/devices system

Multisteerable tentacles

Underwater adhesives

BioInspired Technology

inspired by humans support humans

Page 8: BioMedical Design

inspired by humans support humans

What will you learn? - Gain knowledge about nature’s mechanical systems - Translate bio-inspiration into bio-compatible systems - Consider force distribution in mechanisms to create tools that are easy and natural to use

BioInspired Technology

Page 9: BioMedical Design

inspired by humans support humans

What will you learn? - Gain knowledge about nature’s mechanical systems - Translate bio-inspiration into bio-compatible systems - Consider force distribution in mechanisms to create tools that are easy and natural to use

Obligatory courses - Bioinspired design - Mechanical design in mechatronics - Humanoid robots - Biomedical engineering design

BioInspired Technology

Page 10: BioMedical Design

inspired by humans support/cope with humans

Automotive Human Factors

Multi-tasking

Traffic accidents

Car instrumentation

Predict human motion

Pe

rso

nal

ity

test

s

Page 11: BioMedical Design

inspired by humans support/cope with humans

What will you learn? - Human motion control - Car-driver system analysis and control - Feedback from the car to the driver - Driver training

Automotive Human Factors

Page 12: BioMedical Design

inspired by humans support/cope with humans

What will you learn? - Human motion control - Car-driver system analysis and control - Feedback from the car to the driver - Driver training

Obligatory courses - Human movement control A: Musculosceletal mechanics - Human movement control B: Neuromuscular control - Automotive crash safety: Active/passive safety systems - Vehicle mechatronics - Vehicle dynamics A

Automotive Human Factors

Page 13: BioMedical Design

2 0,85R

Haptic steering wheel

Haptic gas pedal Master-slave interfaces

Haptic interfaces

inspired by humans support humans

Page 14: BioMedical Design

inspired by humans support humans

What will you learn? -Restore physical interaction (tele-operation) -Simulate physical interaction (medical and automotive simulators) -Enhance physical interaction (additional guidance for rehabilitation or driver support)

Haptic Interfaces

Page 15: BioMedical Design

inspired by humans support humans

Haptic Interfaces

What will you learn? -Restore physical interaction (tele-operation) -Simulate physical interaction (medical and automotive simulators) -Enhance physical interaction (additional guidance for rehabilitation or driver support)

Obligatory courses - Human movement control A: Musculosceletal mechanics

- Human movement control B: Neuromuscular control - Haptic systems design - Systems identification and parameter estimation

Page 16: BioMedical Design

Training

Design of interfaces Understanding the human body

Sports Engineering

inspired by humans support humans

Page 17: BioMedical Design

inspired by humans support humans

What will you learn? -Extreme performance of the human body -Optimization of human-sport equipment interface -Optimization of sport technique

Sports Engineering

Page 18: BioMedical Design

inspired by humans support humans

Sports Engineering

What will you learn? -Extreme performance of the human body -Optimization of human-sport equipment interface -Optimization of sport technique

Obligatory courses - Human movement control A: Musculosceletal mechanics

- Human movement control B: Neuromuscular control - Bio Mechatronics - Tissue Biomechanics of Bone, Cartilage and Tendon - Special topics in sports engineering - 6 to 12 EC from VU (e.g., Intermuscular load sharing)

Page 19: BioMedical Design

BioMechanical Design

HUMAN-MACHINE SYSTEMS

Page 20: BioMedical Design

Research

• Cutting-end knowledge • High-level research • State-of-the-art laboratories

Page 21: BioMedical Design

BMD versus BME

BMD HUMAN-MACHINE

SYSTEMS design of mechanics, control engineering,

biorobotics

BME CLINICAL ASPECTS

clinically oriented, design a/o research in medical industry

Page 22: BioMedical Design

Pre-Master program HBO

More details at studyguide.tudelft.nl

Candidates holding a BSc degree from a Dutch institute of higher education (HBO) may be admitted to the MSc subject after: • completion of a pre-Master's programme (conversion course)

Page 23: BioMedical Design

Pre-Master program HBO

Page 24: BioMedical Design

From other BSc programs

Page 25: BioMedical Design
Page 26: BioMedical Design

Your first employer: Examples

• Shell, Philips, consultants, Tebodin, Corus, Akzo (like any other mechanical engineer) • Universities & research institutes: TNO • Other sectors: Finance, Management, Consultancy, Government •Spin-offs

After the Msc