Literature DB >> 19450247

Arch height change during sit-to-stand: an alternative for the navicular drop test.

Thomas G McPoil¹, Mark W Cornwall, Lynn Medoff, Bill Vicenzino, Kelly K Fosberg, Dana Hilz.

Abstract

Correction to McPoil TG, Cornwall MW, Medoff L, Vicenzion B, Fosberg K, Hilz D. Arch height change during sit-to-stand: an alternative for the navicular drop test. Journal of Foot and Ankle Research 2008; 1:3.

Year: 2009 PMID： 19450247 PMCID： PMC2687426 DOI： 10.1186/1757-1146-2-17

Source DB: PubMed Journal: J Foot Ankle Res ISSN： 1757-1146 Impact factor: 2.303

Correction

Correction to be made on the spelling of an author's name and email address in the publication of this work [1], as the mistake was not caught prior to publication. The name to be corrected is Kelly K. Fosberg and the correct corresponding email address is kellykaydpt@yahoo.com.

1 in total

1. Arch height change during sit-to-stand: an alternative for the navicular drop test.

Authors: Thomas G McPoil; Mark W Cornwall; Lynn Medoff; Bill Vicenzino; Kelly Forsberg; Dana Hilz
Journal: J Foot Ankle Res Date: 2008-07-28 Impact factor: 2.303

1 in total

4 in total

4. The effect of short foot exercise using visual feedback on the balance and accuracy of knee joint movement in subjects with flexible flatfoot.

Authors: Ju Sang Kim; Mi Young Lee
Journal: Medicine (Baltimore) Date: 2020-03 Impact factor: 1.817

4 in total

Arch height change during sit-to-stand: an alternative for the navicular drop test.

Correction

1. Arch height change during sit-to-stand: an alternative for the navicular drop test.

1. The navicular position test - a reliable measure of the navicular bone position during rest and loading.

2. Reproducibility of and sex differences in common orthopaedic ankle and foot tests in runners.

3. The relationship of foot and ankle mobility to the frontal plane projection angle in asymptomatic adults.

4. The effect of short foot exercise using visual feedback on the balance and accuracy of knee joint movement in subjects with flexible flatfoot.