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Advanced 3D Kinematics 1st YEAR

• To be able to define and calculate local joint coordinate systems • To be able to use and understand different calibration methods and their limitations • To be able to translate technical motion descriptions into clinically relevant units • To apply the above to experimental data. Be aware of, and understand, interpretation difficulties related to Euler decompositions • To interpret and comment on methods as described in the literature

Sjoerd Bruijn - Associate Professor Biomechanics

Sjoerd Bruijn - Associate Professor Biomechanics

More about Sjoerd Bruijn
Sjoerd Bruijn

Course Description

In this course students are introduced to the fundamentals of three-dimensional kinematics, as well as the (more or less) standard application methods. The course can be seen as an extension of the Applied Biomechanics course where students worked with a 3D model and pre-processed algorithms. In this course, students will have to program the (basic) algorithms from scratch and / or construct script files that use Matlab toolbox applications. Much attention is paid to the interpretation of 3-D kinematics results and the pitfalls an confusions related to the (mis)use of 3-D methods.

The course will comprise three separate blocks focusing on:

  1. the definition and use of local coordinate systems in the calculation of osteokinematics;
  2. the use of technical marker sets as well as the practical implications of data processing, especially correcting for missing markers and;
  3. the calculation procedures for obtaining helical axes, needed for the definition of functional axes-based coordinate systems.

Study Characteristics

  • Discipline: Human Movement Sciences: Sport, Exercise and Health (Research)
  • Type of education: Lectures, computer practicals and tutorials
    The three computer practicals are obligatory, but are not separately assessed. The first two blocks / practicals there are linked to optional in-term assessments. Each practical will contribute for 20% to the final score.
  • Academic skill: N/A
  • Graduate School: N/A
  • Start date: TBD
  • End date: TBD
  • Minimum number of students: N/A
  • Maximum number of students: N/A
  • Admission criteria: Contact the course coordinator for information on admission criteria: prof. dr. H.E.J. Veeger
  • Concluding assessment: N/A
  • Assessment type: N/A
  • With Certificate: N/A
  • Schedule info: N/A
  • Number of lessons: N/A
  • Total course duration in hrs.: N/A
  • Sign up period: N/A
  • Anticipated hrs of study: N/A
  • Available to: PhD students VU (and VU RMA students)
  • Course Description & Study Characteristics

    Course Description

    In this course students are introduced to the fundamentals of three-dimensional kinematics, as well as the (more or less) standard application methods. The course can be seen as an extension of the Applied Biomechanics course where students worked with a 3D model and pre-processed algorithms. In this course, students will have to program the (basic) algorithms from scratch and / or construct script files that use Matlab toolbox applications. Much attention is paid to the interpretation of 3-D kinematics results and the pitfalls an confusions related to the (mis)use of 3-D methods.

    The course will comprise three separate blocks focusing on:

    1. the definition and use of local coordinate systems in the calculation of osteokinematics;
    2. the use of technical marker sets as well as the practical implications of data processing, especially correcting for missing markers and;
    3. the calculation procedures for obtaining helical axes, needed for the definition of functional axes-based coordinate systems.

    Study Characteristics

    • Discipline: Human Movement Sciences: Sport, Exercise and Health (Research)
    • Type of education: Lectures, computer practicals and tutorials
      The three computer practicals are obligatory, but are not separately assessed. The first two blocks / practicals there are linked to optional in-term assessments. Each practical will contribute for 20% to the final score.
    • Academic skill: N/A
    • Graduate School: N/A
    • Start date: TBD
    • End date: TBD
    • Minimum number of students: N/A
    • Maximum number of students: N/A
    • Admission criteria: Contact the course coordinator for information on admission criteria: prof. dr. H.E.J. Veeger
    • Concluding assessment: N/A
    • Assessment type: N/A
    • With Certificate: N/A
    • Schedule info: N/A
    • Number of lessons: N/A
    • Total course duration in hrs.: N/A
    • Sign up period: N/A
    • Anticipated hrs of study: N/A
    • Available to: PhD students VU (and VU RMA students)

Would you like to register or want to know more?

Please contact the course coordinator Sjoerd Bruijn:

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