The effect of prosthetic alignment on lower limb kinetics in people with a transtibial bone-anchored prosthesis: An experimental within-subject study

The alignment of a bone-anchored prosthesis has consequences for the external moments around the residual joints and implant, and these external moments can lead to serious negative long-term effects. A clear understanding of the relationship between transtibial prosthetic alignment and external joi...

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Published inGait & posture Vol. 117; pp. 274 - 282
Main Authors Groeneveld, Alyssa M.G., Jonkergouw, Niels, Bruijn, Sjoerd M., Houdijk, Han, Kooiman, Vera G.M., Leijendekkers, Ruud A., Prins, Maarten R.
Format Journal Article
LanguageEnglish
Published England Elsevier B.V 01.03.2025
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ISSN0966-6362
1879-2219
1879-2219
DOI10.1016/j.gaitpost.2025.01.010

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Abstract The alignment of a bone-anchored prosthesis has consequences for the external moments around the residual joints and implant, and these external moments can lead to serious negative long-term effects. A clear understanding of the relationship between transtibial prosthetic alignment and external joint and implant moment for bone-anchored prosthetic users is still lacking. What is the effect of systematic frontal plane prosthetic alignment changes on lower limb external joint moments in people with a transtibial bone-anchored prosthesis? Participants underwent gait analysis on an instrumented dual belt treadmill. Between analyses, frontal-plane alignment adjustments were made, shifting the prosthetic foot 2, 4, and 6 mm medial and lateral in relation to the residual limb. The effect of alignment changes on frontal- and sagittal plane external joint moments during the stance phase of gait were assessed at the hip, knee, and implant level, using statistical parametric mapping regression analyses. Twenty-seven unilateral transtibial bone-anchored prosthesis users were included. Alignment changes had a significant effect on external frontal plane knee and implant moments on the prosthetic side, with the largest effect at the level of the implant. Incremental medial and lateral displacements resulted in a progressive increase or decrease of the external adduction moments, respectively. Alignment changes did not significantly affect external moments around the prosthetic hip, non-prosthetic joints in the frontal plane or in any of the evaluated joints or implant in the sagittal plane. Mediolateral foot alignment changes have a considerable effect on the frontal plane external knee and implant moments at the prosthetic side of a transtibial bone-anchored prosthesis. The findings of this study can help prosthetists to anticipate and adjust alignment changes for transtibial BAP users to minimize joint moments before issues arise. •Effects of frontal plane prosthetic alignment changes on gait kinetics were assessed.•Implant and knee joint moments were affected by small alignment changes.•Medial shifts increase external adduction moments at the knee and implant.•Alignment changes did not affect non-prosthetic limb moments.•Findings show the importance of alignment in relation to ipsilateral joint health.
AbstractList The alignment of a bone-anchored prosthesis has consequences for the external moments around the residual joints and implant, and these external moments can lead to serious negative long-term effects. A clear understanding of the relationship between transtibial prosthetic alignment and external joint and implant moment for bone-anchored prosthetic users is still lacking. What is the effect of systematic frontal plane prosthetic alignment changes on lower limb external joint moments in people with a transtibial bone-anchored prosthesis? Participants underwent gait analysis on an instrumented dual belt treadmill. Between analyses, frontal-plane alignment adjustments were made, shifting the prosthetic foot 2, 4, and 6 mm medial and lateral in relation to the residual limb. The effect of alignment changes on frontal- and sagittal plane external joint moments during the stance phase of gait were assessed at the hip, knee, and implant level, using statistical parametric mapping regression analyses. Twenty-seven unilateral transtibial bone-anchored prosthesis users were included. Alignment changes had a significant effect on external frontal plane knee and implant moments on the prosthetic side, with the largest effect at the level of the implant. Incremental medial and lateral displacements resulted in a progressive increase or decrease of the external adduction moments, respectively. Alignment changes did not significantly affect external moments around the prosthetic hip, non-prosthetic joints in the frontal plane or in any of the evaluated joints or implant in the sagittal plane. Mediolateral foot alignment changes have a considerable effect on the frontal plane external knee and implant moments at the prosthetic side of a transtibial bone-anchored prosthesis. The findings of this study can help prosthetists to anticipate and adjust alignment changes for transtibial BAP users to minimize joint moments before issues arise. •Effects of frontal plane prosthetic alignment changes on gait kinetics were assessed.•Implant and knee joint moments were affected by small alignment changes.•Medial shifts increase external adduction moments at the knee and implant.•Alignment changes did not affect non-prosthetic limb moments.•Findings show the importance of alignment in relation to ipsilateral joint health.
The alignment of a bone-anchored prosthesis has consequences for the external moments around the residual joints and implant, and these external moments can lead to serious negative long-term effects. A clear understanding of the relationship between transtibial prosthetic alignment and external joint and implant moment for bone-anchored prosthetic users is still lacking.BACKGROUNDThe alignment of a bone-anchored prosthesis has consequences for the external moments around the residual joints and implant, and these external moments can lead to serious negative long-term effects. A clear understanding of the relationship between transtibial prosthetic alignment and external joint and implant moment for bone-anchored prosthetic users is still lacking.What is the effect of systematic frontal plane prosthetic alignment changes on lower limb external joint moments in people with a transtibial bone-anchored prosthesis?RESEARCH QUESTIONWhat is the effect of systematic frontal plane prosthetic alignment changes on lower limb external joint moments in people with a transtibial bone-anchored prosthesis?Participants underwent gait analysis on an instrumented dual belt treadmill. Between analyses, frontal-plane alignment adjustments were made, shifting the prosthetic foot 2, 4, and 6 mm medial and lateral in relation to the residual limb. The effect of alignment changes on frontal- and sagittal plane external joint moments during the stance phase of gait were assessed at the hip, knee, and implant level, using statistical parametric mapping regression analyses.METHODSParticipants underwent gait analysis on an instrumented dual belt treadmill. Between analyses, frontal-plane alignment adjustments were made, shifting the prosthetic foot 2, 4, and 6 mm medial and lateral in relation to the residual limb. The effect of alignment changes on frontal- and sagittal plane external joint moments during the stance phase of gait were assessed at the hip, knee, and implant level, using statistical parametric mapping regression analyses.Twenty-seven unilateral transtibial bone-anchored prosthesis users were included. Alignment changes had a significant effect on external frontal plane knee and implant moments on the prosthetic side, with the largest effect at the level of the implant. Incremental medial and lateral displacements resulted in a progressive increase or decrease of the external adduction moments, respectively. Alignment changes did not significantly affect external moments around the prosthetic hip, non-prosthetic joints in the frontal plane or in any of the evaluated joints or implant in the sagittal plane.RESULTSTwenty-seven unilateral transtibial bone-anchored prosthesis users were included. Alignment changes had a significant effect on external frontal plane knee and implant moments on the prosthetic side, with the largest effect at the level of the implant. Incremental medial and lateral displacements resulted in a progressive increase or decrease of the external adduction moments, respectively. Alignment changes did not significantly affect external moments around the prosthetic hip, non-prosthetic joints in the frontal plane or in any of the evaluated joints or implant in the sagittal plane.Mediolateral foot alignment changes have a considerable effect on the frontal plane external knee and implant moments at the prosthetic side of a transtibial bone-anchored prosthesis. The findings of this study can help prosthetists to anticipate and adjust alignment changes for transtibial BAP users to minimize joint moments before issues arise.SIGNIFICANCEMediolateral foot alignment changes have a considerable effect on the frontal plane external knee and implant moments at the prosthetic side of a transtibial bone-anchored prosthesis. The findings of this study can help prosthetists to anticipate and adjust alignment changes for transtibial BAP users to minimize joint moments before issues arise.
The alignment of a bone-anchored prosthesis has consequences for the external moments around the residual joints and implant, and these external moments can lead to serious negative long-term effects. A clear understanding of the relationship between transtibial prosthetic alignment and external joint and implant moment for bone-anchored prosthetic users is still lacking. What is the effect of systematic frontal plane prosthetic alignment changes on lower limb external joint moments in people with a transtibial bone-anchored prosthesis? Participants underwent gait analysis on an instrumented dual belt treadmill. Between analyses, frontal-plane alignment adjustments were made, shifting the prosthetic foot 2, 4, and 6 mm medial and lateral in relation to the residual limb. The effect of alignment changes on frontal- and sagittal plane external joint moments during the stance phase of gait were assessed at the hip, knee, and implant level, using statistical parametric mapping regression analyses. Twenty-seven unilateral transtibial bone-anchored prosthesis users were included. Alignment changes had a significant effect on external frontal plane knee and implant moments on the prosthetic side, with the largest effect at the level of the implant. Incremental medial and lateral displacements resulted in a progressive increase or decrease of the external adduction moments, respectively. Alignment changes did not significantly affect external moments around the prosthetic hip, non-prosthetic joints in the frontal plane or in any of the evaluated joints or implant in the sagittal plane. Mediolateral foot alignment changes have a considerable effect on the frontal plane external knee and implant moments at the prosthetic side of a transtibial bone-anchored prosthesis. The findings of this study can help prosthetists to anticipate and adjust alignment changes for transtibial BAP users to minimize joint moments before issues arise.
Author Houdijk, Han
Leijendekkers, Ruud A.
Prins, Maarten R.
Bruijn, Sjoerd M.
Kooiman, Vera G.M.
Groeneveld, Alyssa M.G.
Jonkergouw, Niels
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Keywords Moments
Rehabilitation
Gait
Bone-Anchored Prosthesis
Prosthesis Alignment
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Snippet The alignment of a bone-anchored prosthesis has consequences for the external moments around the residual joints and implant, and these external moments can...
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SubjectTerms Adult
Aged
Artificial Limbs
Biomechanical Phenomena
Bone-Anchored Prosthesis
Female
Gait
Gait - physiology
Gait Analysis
Hip Joint - physiology
Hip Joint - physiopathology
Humans
Knee Joint - physiology
Knee Joint - physiopathology
Lower Extremity - physiopathology
Male
Middle Aged
Moments
Prosthesis Alignment
Prosthesis Design
Rehabilitation
Tibia - surgery
Title The effect of prosthetic alignment on lower limb kinetics in people with a transtibial bone-anchored prosthesis: An experimental within-subject study
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https://dx.doi.org/10.1016/j.gaitpost.2025.01.010
https://www.ncbi.nlm.nih.gov/pubmed/39826413
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