Skip to main content
construction release_alert
Scholars@Duke will be down for maintenance for approximately one hour starting Tuesday, 11/11 @1pm ET
cancel

Experimentally Induced Knee Effusion Does Not Simulate Sustained Ground Reaction Force Profiles During Overground Walking.

Publication ,  Journal Article
Collins, K; Pietrosimone, B; Lindsay, T; Myers, H; Ceraulo, AS; Lau, BC; Lemus, SA; Pietrosimone, LS
Published in: J Appl Biomech
September 22, 2025

Less dynamic limb-level loading is observed bilaterally in individuals who have undergone unilateral anterior cruciate ligament reconstruction (ACLR) and is linked with the development and progression of knee osteoarthritis. Experimentally induced knee effusion (EIKE) models have been used to study biomechanical effects of knee injury, showing decreased quadriceps activation and lesser peak limb-level loading (ie, vertical ground reaction force [vGRF]) during stair descent and decreased knee extensor torque during overground walking. However, it is unknown whether EIKE acutely induces less dynamic limb-level loading during overground walking. Therefore, this study's purpose was to investigate bilateral effects of unilateral EIKE on limb-level loading throughout stance. Ten individuals completed 5 gait trials at their habitual walking speed pre-EIKE and post-EIKE. Functional waveform analyses compared time-normalized vGRFs, anteroposterior GRFs, and mediolateral GRFs normalized to body weight (BW) pre-EIKE and post-EIKE. EIKE resulted in less dynamic anteroposterior GRFs from 16% to 24% of stance (mean difference: 2%BW) and no change in vGRFs of the effused limb. The contralateral limb demonstrated greater vGRFs from 6% to 35% of stance (mean difference: 10%BW) and greater anteroposterior GRFs from 13% to 19% of stance (mean difference: -2%BW). Our results indicate that unilateral EIKE does not simulate bilateral sustained compressive loading profiles previously linked to knee osteoarthritis.

Duke Scholars

Published In

J Appl Biomech

DOI

EISSN

1543-2688

Publication Date

September 22, 2025

Start / End Page

1 / 6

Location

United States

Related Subject Headings

  • Sport Sciences
  • 4207 Sports science and exercise
  • 4003 Biomedical engineering
  • 3202 Clinical sciences
  • 1106 Human Movement and Sports Sciences
  • 0913 Mechanical Engineering
  • 0903 Biomedical Engineering
 

Citation

APA
Chicago
ICMJE
MLA
NLM
Collins, K., Pietrosimone, B., Lindsay, T., Myers, H., Ceraulo, A. S., Lau, B. C., … Pietrosimone, L. S. (2025). Experimentally Induced Knee Effusion Does Not Simulate Sustained Ground Reaction Force Profiles During Overground Walking. J Appl Biomech, 1–6. https://doi.org/10.1123/jab.2025-0013
Collins, Katherine, Brian Pietrosimone, Timothy Lindsay, Heather Myers, Anthony S. Ceraulo, Brian C. Lau, Sergio A. Lemus, and Laura S. Pietrosimone. “Experimentally Induced Knee Effusion Does Not Simulate Sustained Ground Reaction Force Profiles During Overground Walking.J Appl Biomech, September 22, 2025, 1–6. https://doi.org/10.1123/jab.2025-0013.
Collins K, Pietrosimone B, Lindsay T, Myers H, Ceraulo AS, Lau BC, et al. Experimentally Induced Knee Effusion Does Not Simulate Sustained Ground Reaction Force Profiles During Overground Walking. J Appl Biomech. 2025 Sep 22;1–6.
Collins, Katherine, et al. “Experimentally Induced Knee Effusion Does Not Simulate Sustained Ground Reaction Force Profiles During Overground Walking.J Appl Biomech, Sept. 2025, pp. 1–6. Pubmed, doi:10.1123/jab.2025-0013.
Collins K, Pietrosimone B, Lindsay T, Myers H, Ceraulo AS, Lau BC, Lemus SA, Pietrosimone LS. Experimentally Induced Knee Effusion Does Not Simulate Sustained Ground Reaction Force Profiles During Overground Walking. J Appl Biomech. 2025 Sep 22;1–6.

Published In

J Appl Biomech

DOI

EISSN

1543-2688

Publication Date

September 22, 2025

Start / End Page

1 / 6

Location

United States

Related Subject Headings

  • Sport Sciences
  • 4207 Sports science and exercise
  • 4003 Biomedical engineering
  • 3202 Clinical sciences
  • 1106 Human Movement and Sports Sciences
  • 0913 Mechanical Engineering
  • 0903 Biomedical Engineering