The Kinematics of Breasts Implanted With a Reduced Mass Implant: A Pilot Study

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The Kinematics of Breasts Implanted With a Reduced Mass Implant: A Pilot Study. / Norris, Michelle; Jones, Melissa; Mills, Chris et al.
In: Aesthetic surgery journal, Vol. 40, No. 5, 14.04.2020, p. NP253-NP262.

Research output: Contribution to journalArticlepeer-review

HarvardHarvard

Norris, M, Jones, M, Mills, C, Blackmore, T, Inglefield, C & Wakefield-Scurr, J 2020, 'The Kinematics of Breasts Implanted With a Reduced Mass Implant: A Pilot Study', Aesthetic surgery journal, vol. 40, no. 5, pp. NP253-NP262. https://doi.org/10.1093/asj/sjz239

APA

Norris, M., Jones, M., Mills, C., Blackmore, T., Inglefield, C., & Wakefield-Scurr, J. (2020). The Kinematics of Breasts Implanted With a Reduced Mass Implant: A Pilot Study. Aesthetic surgery journal, 40(5), NP253-NP262. https://doi.org/10.1093/asj/sjz239

CBE

Norris M, Jones M, Mills C, Blackmore T, Inglefield C, Wakefield-Scurr J. 2020. The Kinematics of Breasts Implanted With a Reduced Mass Implant: A Pilot Study. Aesthetic surgery journal. 40(5):NP253-NP262. https://doi.org/10.1093/asj/sjz239

MLA

Norris, Michelle et al. "The Kinematics of Breasts Implanted With a Reduced Mass Implant: A Pilot Study". Aesthetic surgery journal. 2020, 40(5). NP253-NP262. https://doi.org/10.1093/asj/sjz239

VancouverVancouver

Norris M, Jones M, Mills C, Blackmore T, Inglefield C, Wakefield-Scurr J. The Kinematics of Breasts Implanted With a Reduced Mass Implant: A Pilot Study. Aesthetic surgery journal. 2020 Apr 14;40(5):NP253-NP262. doi: 10.1093/asj/sjz239

Author

Norris, Michelle ; Jones, Melissa ; Mills, Chris et al. / The Kinematics of Breasts Implanted With a Reduced Mass Implant : A Pilot Study. In: Aesthetic surgery journal. 2020 ; Vol. 40, No. 5. pp. NP253-NP262.

RIS

TY - JOUR

T1 - The Kinematics of Breasts Implanted With a Reduced Mass Implant

T2 - A Pilot Study

AU - Norris, Michelle

AU - Jones, Melissa

AU - Mills, Chris

AU - Blackmore, Tim

AU - Inglefield, Chris

AU - Wakefield-Scurr, Joanna

N1 - © 2019 The Aesthetic Society. Reprints and permission: journals.permissions@oup.com.

PY - 2020/4/14

Y1 - 2020/4/14

N2 - BACKGROUND: Breast implants may increase breast skin tension and interact with surrounding tissues to alter breast position and motion during dynamic activity. Reducing implant mass and changing implant location (submuscular/subglandular) may also affect breast kinematics and the subsequent loads on breast structures.OBJECTIVES: The aim of this pilot study was to describe the kinematics of breasts augmented with reduced-mass implants during standing, walking, and running, compared with natural breasts, and to provide insight into how implant location (submuscular/subglandular) alters breast kinematics.METHODS: Two breast augmentation participants (12-15 months postsurgery: 32AA presurgery, anatomical submuscular 255 cc B-Lite reduced-mass implant; 32A presurgery, anatomical subglandular 285 cc B-Lite reduced-mass implant) and 2 natural-breasted participants of similar breast size and anthropometrics were recruited. Nipple and torso positional data were recorded with electromagnetic sensors during standing, walking, and running. Nipple kinematics relative to the torso were calculated.RESULTS: The B-Lite participants both displayed greater nipple projection and elevation during standing and a 50% reduction in nipple acceleration during walking, when compared with their natural counterparts. During running, the B-Lite subglandular participant displayed decreased nipple kinematics compared with her natural counterpart and lower nipple kinematics compared with the B-Lite submuscular participant during walking and running.CONCLUSIONS: A combination of implant location (subglandular) and reduced mass minimized nipple kinematics during running. Reducing nipple kinematics during dynamic activity may decrease the loading on breast structures, helping to decrease ptosis and increase the longevity of procedure outcomes.

AB - BACKGROUND: Breast implants may increase breast skin tension and interact with surrounding tissues to alter breast position and motion during dynamic activity. Reducing implant mass and changing implant location (submuscular/subglandular) may also affect breast kinematics and the subsequent loads on breast structures.OBJECTIVES: The aim of this pilot study was to describe the kinematics of breasts augmented with reduced-mass implants during standing, walking, and running, compared with natural breasts, and to provide insight into how implant location (submuscular/subglandular) alters breast kinematics.METHODS: Two breast augmentation participants (12-15 months postsurgery: 32AA presurgery, anatomical submuscular 255 cc B-Lite reduced-mass implant; 32A presurgery, anatomical subglandular 285 cc B-Lite reduced-mass implant) and 2 natural-breasted participants of similar breast size and anthropometrics were recruited. Nipple and torso positional data were recorded with electromagnetic sensors during standing, walking, and running. Nipple kinematics relative to the torso were calculated.RESULTS: The B-Lite participants both displayed greater nipple projection and elevation during standing and a 50% reduction in nipple acceleration during walking, when compared with their natural counterparts. During running, the B-Lite subglandular participant displayed decreased nipple kinematics compared with her natural counterpart and lower nipple kinematics compared with the B-Lite submuscular participant during walking and running.CONCLUSIONS: A combination of implant location (subglandular) and reduced mass minimized nipple kinematics during running. Reducing nipple kinematics during dynamic activity may decrease the loading on breast structures, helping to decrease ptosis and increase the longevity of procedure outcomes.

U2 - 10.1093/asj/sjz239

DO - 10.1093/asj/sjz239

M3 - Article

C2 - 31504162

VL - 40

SP - NP253-NP262

JO - Aesthetic surgery journal

JF - Aesthetic surgery journal

SN - 1090-820X

IS - 5

ER -