KIN 515
Anthropometry and Body Composition
Spring 2008
Instructor: M. Daniel Becque, Ph.D.
Office: Davies 117
Phone: 3-3117(w), 529-3307 (h)
Email address: mdbecque@siu.edu
Homepage: http://exphys.siu.edu
Office hours: MW, 12:00-3:00
Class time/place: T, 6:30-9:15, 137
Book: Anthropometrica, Norton and Olds
Objectives
The following objectives must be completed, typed and handed in as a report on March 25.
1. Each student will have a full anthropometric profile completed of themselves in class.
2. Using his/her own data, each student will complete a 4-way fractionation, somatotype, anthropometric assessment of body fat, and ponderal somatogram. The body fat estimate should be made with 3 unrelated equations and the ponderal somatogram must be completed with 2 different sets of reference data.
3. Each student will complete a full anthropometric profile on 2 other students in the class. Also, the student will measure 9 skinfolds, twice on 2 occasions.
4. Using the triceps skinfold and the sum of 9 skinfolds, each student will calculate his/her ICC and TEM. Each student will compare his/her findings with the data presented in class.
The following objectives will be completed during the second half of the class.
5. The student will understand all aspects of the underwater weighing technique of measuring body volume.
6. The student will understand the assumptions and problems of converting body density to body fatness.
7. The student will understand the technique and assumptions made when estimating body composition with total body water, CT, MRI, TOBEC, DEXA, and BIA.
8. Each student will have their residual lung volume and body volume measured by underwater weighing.
Tentative Evaluation
Landmark quiz 15%
Anthropometric report 40%
Final exam 40%
Participation 5%
Tentative schedule
|
Date |
Topic |
Reading |
|
Week 1 |
Intro, Essential Anatomy and Landmarks |
C1 |
|
Week 2 |
Measurements, Sexual dimorphism |
C2 |
|
Week 3 |
Quiz, ICC and TEM, measurements |
C3 |
|
Week 4 |
Scaling, measurements |
C5 |
|
Week 5 |
Somatotypes, measurements |
C6 |
|
Week 6 |
Ponderal somatogram, measurements |
handout |
|
Week 7 |
Anthropometric estimation, body image |
C7, 9 |
|
Week 8 |
Sport Perfomance |
C11 |
|
|
Spring Break |
|
|
Week 9 |
Health |
C12 |
|
Week 10 |
UWW - technique |
|
|
Week 11 |
Body density to % fat |
C8 |
|
Week 12 |
In class hydrodensitometry |
|
|
Week 13 |
K40 and Total body water |
|
|
Week 14 |
CT/MRI |
|
|
Week 15 |
TOBEC/DEXA |
|
|
Final exam |
Tuesday, May 6, 8:00 – 10:00 pm |
|
References for the 2nd half
RF Goldman and ER Buskirk. Body volume measurement by underwater weighing: description of a method.
ER Buskirk. Underwater weighing and body density: A review of procedures.
FI Katch et al. Estimation of body volume by underwater weighing: description of a simple method.
R Akers and ER Buskirk. An underwater weighing system utilizing “force cube” transducers.
FI Katch. Practice curves and errors of measurement in estimating underwater weight by hydrostatic weighing.
JH Wilmore et al. A further simplification of a method for determination of residual lung volume.
EN Rathbun and N Pace. The determination of total body fat by means of body specific gravity.
MF Morales et al. Theoretical considerations regarding the major body tissue components.
WE Siri. The gross composition of the body.
AD Martin. Chapter 3: Gross tissue masses in human adults.
AD Martin. Chapter 4: The estimation of body fat.
JMA Raaij et al. New equations for estimating body fat mass in pregnancy from body density or total body water.
TG Lohman. Applicability of body composition techniques and constants for children and youths.
HP Sheng and RA Huggins. A review of body composition studies with emphasis on total body water and fat.
HC Lukaski and PE Johnson. A simple inexpensive method of determining total body water using a tracer dose of D2O and infrared absorption of biological fluids.
E Presta et al. Measurement of total body electrical conductivity: a new method for estimation of body composition.
SB Heymsfield et al. Dual photon absorptiometry: comparison of bone mineral and soft tissue mass measurements in vivo with established methods.
HC Lukaski et al. Validation of tetrapolar bioelectrical impedance method to assess human body composition.
Emergency Procedures. Southern Illinois University Carbondale is committed to providing a safe and healthy environment for study and work. Because some health and safety circumstances are beyond our control, we ask that you become familiar with the SIUC Emergency Response Plan and Building Emergency Response Team (BERT) program. Emergency response information is available on posters in buildings on campus, available on BERT’s website at www.bert.siu.edu, Department of Safety’s website www.dps.siu.edu (disaster drop down) and in Emergency Response Guidelines pamphlet. Know how to respond to each type of emergency.
Instructors will provide guidance and direction to students in the classroom in the event of an emergency affecting your location. It is important that you follow these instructions and stay with your instructor during an evacuation or sheltering emergency. The Building Emergency Response Team will provide assistance to your instructor in evacuating the building or sheltering within the facility.