Page 68 - R2017 Final_BE Biomedical Curriculum and Syllabus - REC
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Department of BME, REC

               UNIT I        INTRODUCTION TO MECHANICS                                                    9
               Introduction-  Scalars  and  vectors,  Statics:  Force  types,  Resolution  and  composition  of  forces,
               Resultant of forces, moments of force and couple, vector method for resultant force determination,
               parallel forces in space, equilibrium of coplanar forces Dynamics: Basic principles- Linear motion,
               Newton’s  laws  of  motion,  Impulse  and  Momentum,  Work  and  Energy  Kinetics:  Calculation  of
               velocity and acceleration, Kinematics: Link segment models, Force transducers and force plates.
               Introduction to Constitutive equations

               UNIT II        MECHANICS OF BIOFLUIDS                                                      9
               Intrinsic  fluid  properties:  Density,  Viscosity,  Compressibility  and  Surface  Tension  Viscometers:
               Capillary,  Coaxial  cylinder  and  cone  and  plate;  Rheological  properties  of  blood,  Pressure-flow
               relationship  for  Non-Newtonian  Fluids:  Power  law  fluid,  Bingham  Plastic,  Casson’s  fluid;  Fluid
               mechanics  in  straight  tube:  Flow  development,  Viscous  and  Turbulent  Sheer  Stress,  Effect  of
               pulsatility,  Boundary  Layer  Separation.  Structure  of  blood  vessels,  material  properties  and
               modelling of Blood vessels Heart: Material characterization of cardiac muscle, Native heart valves:
               Mechanical properties and valve dynamics, Prosthetic heart valve fluid dynamics.

               UNIT III      MECHANICS OF BIOSOLIDS                                                       9
               Constitutive  equation  of  visco  elasticity:  Maxwell  &  Voight  models  –  anisotropy.  Hard  Tissues:
               Structure, blood circulation, elasticity and strength, visco elastic properties, functional adaptation
               Soft  Tissues:  Structure,  functions,  material  properties  and  modelling  of  Soft  Tissues:  Cartilage,
               Tendons  and  Ligaments  Skeletal  Muscle:  Muscle  action,  Hill’s  models,  mathematical  modelling
               Bone fracture mechanics.

               UNIT IV       BIOMECHANICS OF JOINTS                                                       9
               Skeletal joints, forces and stresses in human joints, Analysis of rigid bodies in equilibrium, Free
               body  diagrams,  Structure  of  joints,  Types  of  joints,  Biomechanical  analysis  of  elbow,  shoulder,
               spinal column, hip, knee and ankle.  Biotribology: Lubrication of synovial and prosthetic joints Total
               knee and hip joint replacement.

               UNIT V        ERGONOMICS AND KINESIOLOGY                                                   9
               Introduction  to  Finite  Element  Analysis,  finite  element  analysis  of  lumbar  spine;  Ergonomics:
               Musculoskeletal disorders, Ergonomic principles contributing to good workplace design, Design of
               a  Computer  work  station;  Whole  body  vibrations,  Hand  transmitted  vibrations.  Gait  analysis,
               Kinesiological EMG; Sports biomechanics: Motion analysis using video, Isokinetic dynamometry,
               Computer simulation modelling in sports.

                                                                                        TOTAL: 45 PERIODS
               OUTCOMES:
               On completion of the course students will be able to
                   •  Solve the dynamics and fluid mechanics problems.
                   •  Explain the mechanics of physiological systems.
                   •  Analyze the biomechanical systems.
                   •  Work with the knowledge of Ergonomics.
                   •  Design orthopaedic applications.

               TEXT BOOKS:
                   1.  Y.C. Fung, “Bio-Mechanics- Mechanical Properties of Tissues”, Springer-Verlag, 1998.
                   2.  Marcelo Epstein, “The Elements of Continuum Biomechanics”, ISBN: 978-1-119-99923-2,
                      2012.
                   3.  Neil J. Mansfeild, “Human Response to Vibration”, CRC Press, 2005.


               Curriculum and Syllabus | B.E Biomedical Engineering | R 2017                       Page 68
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