Lateral Foot-Movement Times in Sitting and Standing Postures

Abstract

This study examined the effects of foot-side, sex, movement amplitude, and target width on lateral and nonvisually controlled foot-movement time with a reciprocal foot-tapping task in sitting and standing postures. 9 male and 9 female right-foot dominant undergraduates (ages 20 to 25 years) with no reported physical and health problems with their lower limbs voluntarily participated. Analysis indicated foot-movement time in a standing posture was much faster than that in a sitting posture. Target width and movement amplitude had significant effects on foot-movement time, while the effects of foot-side and sex were not significant. Multiple regression models with inclusion of the significant factors were examined which should be useful in predicting foot-movement time required for different tasks in sitting and standing postures. Possible applications of the results may be made to the design of work and foot controls in terms of the related task factors for person-machine interfaces with two or more pedals.

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References

Aoki

Furuya

Kinoshita

(2005) Finger-tapping ability in male and female pianists and nonmusician controls. Motor Control, 9, 23ndash;39.

Bandy

W. D.

Dunleavy

(1996) Adaptability of skeletal muscle: Response to increased and decreased use. In Zachazewski

J. E.

Magee

D. J.

Quillen

W. S.

(Eds.), Athletic injuries and rehabilitation. Philadelphia, PA: Saunders. Pp. 55–70.

Carey

D. P.

Smith

D. T.

Shepherd

J. W.

Skriver

Ord

Rutland

(2001) Footedness in world soccer: An analysis of France ‘98. Journal of Sports Science, 19, 855ndash;864.

Chaffin

D. B.

Andersson

G. B. J.

Martin

B. J.

(2006) Occupational biomechanics. (4th ed.) Hoboken, NJ: Wiley-Interscience. Pp. 11–36.

Coren

(1993) The lateral preference inventory for measurement of handedness, footedness, eyedness, and earedness: Norms for young adults. Bulletin of the Psychonomic Society, 31, 1ndash;3.

Drury

C. G.

(1975) Application of Fitts' law to foot-pedal design. Human Factors, 17, 368ndash;373.

Gan

K. C.

Hoffmann

E. R.

(1988) Geometrical conditions for ballistic and visually controlled movements. Ergonomics, 31, 829ndash;839.

Haslegrave

C. M.

(2004) Force exertion. In Delleman

N. J.

Haslegrave

C. M.

Chaffin

D. B.

(Eds.), Working postures and movements: Tools for evaluation and engineering. Boca Raton, FL: CRC Press. Pp. 367–402.

Hoffmann

E. R.

(1991) A comparison of hand and foot movement times. Ergonomics, 34, 397ndash;406.

10.

Kreighbaum

(1985) Anatomy and kinesiology. In Van Gelder

(Ed.), Aerobic dance-exercise instructor manual. San Diego, CA: IDEA Found.

11.

Kreighbaum

Barthels

K. M.

(1996) Biomechanics: A qualitative approach for studying human movement. (4th ed.) Boston, MA: Allyn & Bacon. Pp. 193–227.

12.

Kroemer

K. H. E.

(1971) Foot operation of controls. Ergonomics, 14, 333ndash;361.

13.

Kutner

M. H.

Nachtsheim

C. J.

Neter

(2005) Applied linear statistical models. (5th ed.) Boston, MA: McGraw-Hill Irwin.

14.

Nutt

J. G.

Lea

E. S.

Houten

L. V.

Schuff

R. A.

Sexton

G. J.

(2000) Determinants of tapping speed in normal control subjects and subjects with Parkinson's disease: Different effects of brief and continued practice. Movement Disorders, 15, 843ndash;849.

15.

Rovers

A. F.

van Essen

H. A.

(2005) FootIO—design and evaluation of a device to enable foot interaction over a computer network. Proceedings of the First Joint Eurohaptics Conference and Symposium on Haptic Interfaces for Virtual Environment and Teleoperator Systems. Pp. 521–522.

16.

van Veelen

M. A.

Snijders

C. J.

van Leeuwen

Goossens

R. H. M.

Kazemier

(2003) Improvement of foot pedals used during surgery based on new ergonomic guidelines. Surgical Endoscopy and Other Interventional Techniques, 17, 1086ndash;1091.