MRS Meetings and Events

 

SB05.09.05 2024 MRS Spring Meeting

Comparison of Tensile Properties of Amniotic Membranes Sterilized with Different Techniques

When and Where

Apr 24, 2024
5:00pm - 7:00pm

Flex Hall C, Level 2, Summit

Presenter

Co-Author(s)

Molly Post1,Abbigail Poland1,Olivia Logan1,Isabella Sledge1,Babak Safavieh1,Mora Melican1

Tides Medical1

Abstract

Molly Post1,Abbigail Poland1,Olivia Logan1,Isabella Sledge1,Babak Safavieh1,Mora Melican1

Tides Medical1
The amniotic membrane has gained recognition as a promising biomaterial in the field of regenerative medicine. The market offers a diverse range of placental membrane products designed for various applications. When evaluating and characterizing the numerous amniotic products available, it becomes crucial to ensure that each product aligns with the specific user requirements, particularly concerning the mechanical characteristics for wound care applications. One effective method for testing this characteristic involves tensile testing. In this study, the Instron 5544 was used to test tensile strength of two different amniotic products. A standardized and optimized procedure for conducting tensile tests on amniotic products has not been previously well-established. This study addresses this gap by introducing a standardized test method for the tensile testing of dehydrated amniotic membrane. Through this study, we compare the handling capabilities of Artacent Wound®, a dual layer amniotic scaffold, sterilized with electron beam (e-beam) sterilization, to Artacent Wound® sterilized using an alternative sterilization technique.<br/> <br/>Multiple sterilization techniques, such as gamma irradiation, ethylene oxide (ETO) gas sterilization, e-beam, and several other approaches have been utilized to remove potential pathogens for products derived from human placentas. However, the sterilization method can lead to diverse impacts on the material's mechanical characteristics. To ensure that the mechanical properties are maintained with the alternative sterilization technique, the Artacent Wound® product is compared to the e-beam sterilized Artacent Wound® product.<br/><br/>Tensile tests were performed on two different Artacent Wound® products (one with e-beam sterilization and one with an alternative sterilization technique), and the products were tested for Failure Stress (MPa), Failure Strain (%), and Young’s Modulus (MPa). The tests were used to characterize and better understand the product’s mechanical properties and how the sterilization techniques impact these properties. By developing a method to test tensile strength for amniotic products, new products and new processing steps can be easily tested to determine the mechanical impacts to the product.

Keywords

biological | biomaterial

Symposium Organizers

Eric Glowacki, Central European Institute of Technology
Philipp Gutruf, University of Arizona
John Ho, National University of Singapore
Flavia Vitale, University of Pennsylvania

Symposium Support

Bronze
Diener Electronic GmbH + Co. KG

Session Chairs

Philipp Gutruf
Flavia Vitale

In this Session

SB05.09.02
Biodegradable Gel Electrolyte for Self-Electrified Implantable Biomedical Devices

SB05.09.03
Design, Simulation and Fabrication of Novel Flat-Wire Braided Flow Diverter for Cerebral Aneurysm

SB05.09.04
Porous, Antibacterial and Biocompatible GO/n-HAp/bacterial cellulose/β-glucan Biocomposite Scaffold for Bone Tissue Engineering

SB05.09.05
Comparison of Tensile Properties of Amniotic Membranes Sterilized with Different Techniques

SB05.09.06
An Open-Source Platform for Clinical Autonomic Neuromodulation Therapies

SB05.09.07
A Cellulose Aerogel-Based Drug Delivery System using Punica Granatum Extracts - Invention to Innovation

SB05.09.08
Comparative Analysis of Sterilization Methods for Placenta-Based Products using an Animal Model

SB05.09.09
Soft, Bioresorbable, Transparent Microelectrode Array Platform for Heart Disease Diagnosis and Treatment

SB05.09.10
Structural and Biological Characteristics of a Novel Hydroxyapatite–Sodium Alginate-Based Biocomposite Material for Dental Implants

SB05.09.13
Highly Conductive and Ultra-Thin Elastic Silver-Nanosheet Membrane for Neural Recording

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Publishing Alliance

MRS publishes with Springer Nature