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Soft Tissue Anchoring Performance, Biomechanical Properties, and Tissue Reaction of a New Hernia Mesh Engineered to Address Hernia Occurrence and Recurrence.

Publication ,  Journal Article
Ibrahim, MM; Green, JL; Everitt, J; Ruppert, D; Glisson, R; Leopardi, F; Risoli, T; Kuchibhatla, M; Reynolds, R; Levinson, H
Published in: J Med Device
December 1, 2019

One opportunity to reduce hernia occurrence and recurrence rates (currently estimated to be 30% at 10 years postoperatively) is by enhancing the ability of hernia meshes to anchor into tissue to prevent mesh migration, mesh contraction, and mesh tearing away from tissue. To address this, we developed a novel moderate-weight, macroporous, polypropylene mesh (termed the T-line mesh) with mesh extensions to optimize anchoring. We examined the physical properties, biomechanical performance, and biocompatibility of this novel mesh versus a predicate mesh anchored with #0-suture. The physical properties of the T-line mesh and predicate mesh were measured using American Society for Testing and Materials (ASTM) standards. Meshes were implanted into a swine hernia model and harvested after one day to determine anchoring strength of the meshes in the perioperative period. A separate group was implanted into a swine hernia model and harvested at 30 days and 90 days for semiquantitative histological analysis of biocompatibility. T-line mesh physical properties were similar to commonly used moderate-weight meshes in thickness and areal density. The T-line mesh outperformed the predicate mesh in all mechanical testing (P < 0.05). In the perioperative period, the T-line mesh was ∼275% stronger (P < 0.001) than the standard of care. Histological analysis of biocompatibility demonstrated no significant difference between the T-line mesh and predicate mesh (P > 0.05). The T-line mesh is a novel hernia mesh that outperforms a predicate mesh in mechanical and biomechanical performance testing while exhibiting similar biocompatibility. The T-line mesh has the potential to reduce hernia occurrence and recurrence caused by mechanical failure.

Duke Scholars

Published In

J Med Device

DOI

ISSN

1932-6181

Publication Date

December 1, 2019

Volume

13

Issue

4

Start / End Page

0450021 / 0450029

Location

United States

Related Subject Headings

  • Biomedical Engineering
  • 4003 Biomedical engineering
  • 1103 Clinical Sciences
  • 0903 Biomedical Engineering
 

Citation

APA
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MLA
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Ibrahim, M. M., Green, J. L., Everitt, J., Ruppert, D., Glisson, R., Leopardi, F., … Levinson, H. (2019). Soft Tissue Anchoring Performance, Biomechanical Properties, and Tissue Reaction of a New Hernia Mesh Engineered to Address Hernia Occurrence and Recurrence. J Med Device, 13(4), 0450021–0450029. https://doi.org/10.1115/1.4043740
Ibrahim, Mohamad M., Jason L. Green, Jeffrey Everitt, David Ruppert, Richard Glisson, Frank Leopardi, Thomas Risoli, Maragatha Kuchibhatla, Randall Reynolds, and Howard Levinson. “Soft Tissue Anchoring Performance, Biomechanical Properties, and Tissue Reaction of a New Hernia Mesh Engineered to Address Hernia Occurrence and Recurrence.J Med Device 13, no. 4 (December 1, 2019): 0450021–29. https://doi.org/10.1115/1.4043740.
Ibrahim MM, Green JL, Everitt J, Ruppert D, Glisson R, Leopardi F, et al. Soft Tissue Anchoring Performance, Biomechanical Properties, and Tissue Reaction of a New Hernia Mesh Engineered to Address Hernia Occurrence and Recurrence. J Med Device. 2019 Dec 1;13(4):0450021–9.
Ibrahim, Mohamad M., et al. “Soft Tissue Anchoring Performance, Biomechanical Properties, and Tissue Reaction of a New Hernia Mesh Engineered to Address Hernia Occurrence and Recurrence.J Med Device, vol. 13, no. 4, Dec. 2019, pp. 0450021–29. Pubmed, doi:10.1115/1.4043740.
Ibrahim MM, Green JL, Everitt J, Ruppert D, Glisson R, Leopardi F, Risoli T, Kuchibhatla M, Reynolds R, Levinson H. Soft Tissue Anchoring Performance, Biomechanical Properties, and Tissue Reaction of a New Hernia Mesh Engineered to Address Hernia Occurrence and Recurrence. J Med Device. 2019 Dec 1;13(4):0450021–0450029.

Published In

J Med Device

DOI

ISSN

1932-6181

Publication Date

December 1, 2019

Volume

13

Issue

4

Start / End Page

0450021 / 0450029

Location

United States

Related Subject Headings

  • Biomedical Engineering
  • 4003 Biomedical engineering
  • 1103 Clinical Sciences
  • 0903 Biomedical Engineering