Pelvic Floor Biomechanics
and Gynecological Mechanics

Mechanical testing provides essential insight into the structural behaviour of pelvic floor tissues, gynecological soft tissues, and engineered biomaterials designed to support pelvic function. Quantifying tensile, biaxial, and shear properties helps advance research in tissue mechanics, regenerative materials, and pelvic support structures.
A pelvic floor sample being shear tested on the UniVert 1kN for pelvic floor biomechanics research

Overview of Pelvic Floor Biomechanics

Pelvic floor and gynecological tissues exhibit complex, nonlinear mechanical behaviour driven by collagen architecture, elastin content, and microstructural organization. These tissues support pelvic organs, maintain structural stability, and respond to dynamic physiological loads.

Accurate mechanical characterization is essential for evaluating the performance and safety of new materials and for understanding how native tissues respond under load.

Importance of Mechanical Testing in Pelvic Floor and Gynecological Research

Mechanical testing provides quantitative benchmarks that guide the development of biomaterials and engineered tissues in pelvic floor biomechanics research.

These data help validate biomaterial designs and provide insight into how tissues adapt or fail under physiological demands.

Recommended CellScale Instruments for Pelvic Floor Biomechanics Testing

A sample being tensile tested on the UniVert with the Scientific Camera setup

UniVert

Used for uniaxial tensile, compression, and shear testing of pelvic connective tissues, engineered scaffolds, and supportive biomaterials.

The BioTester 5000 setup with BioRakes

BioTester

Ideal for biaxial testing of pelvic floor and gynecological tissues where planar anisotropy, fiber orientation and nonlinear stretching behaviour are critical.

A closeup view of a sample under compression testing with the secondary camera installed on the MicroTester G2

MicroTester

Suitable for micro-scale samples, thin tissue layers, or early stage engineered constructs requiring precise, low force measurements.

Testing Methods for Gynecological and Pelvic Floor Biomechanics

Tensile Testing

Evaluates strength, stiffness, and extensibility of connective tissues and scaffolds

Biaxial Testing

Captures multidirectional stiffness and fibre alignment in sheetlike tissues

Shear Testing

Characterizes sliding resistance and interface mechanics

Compression Testing

Assesses bulk tissue behaviour under load

Viscoelastic & Time-Dependent Testing

Measures relaxation, creep, and time dependent recovery

Representative Sample Types

Native tissues

Relevant Publications Related to the Pelvic Tissue Engineering Field

Postpartum biomechanical adaptations of the anterior abdominal wall in a rat model: Implications for diastasis rectus abdominis

Lax M, Morgan M, et al.

Clinical Biomechanics

BioTester

Tensile Testing

Musculoskeletal Tissue Engineering & MechanicsPelvic Floor and Gynecological Biomechanics

2026

Étude pilote : caractérisation biomécanique des tissus d’endométriose

Saiag N, Touboul C, et al.

26e Congrès Français de Mécanique

BioTester

Hydrated and Temperature Controlled TestingMicro-Mechanical TestingTensile TestingViscoelastic & Time-Dependent Testing

Fibrosis & Tissue RemodelingMechanotransductionPelvic Floor and Gynecological Biomechanics

2025

3D Printed Mesh Geometry Modulates Immune Response and Interface Biology in Mouse and Sheep Model: Implications for Pelvic Floor Surgery

Paul K, Darzi S, et al.

Advanced Science

UniVert

Fatigue TestingTensile Testing

Membranes and Thin Films MechanicsPelvic Floor and Gynecological BiomechanicsPolymers and Elastomers Testing

2025

Advance Your Pelvic Biomechanics Research

CellScale instruments support mechanical evaluation of pelvic floor tissues, gynecological constructs, and biomaterials. Contact our team to identify the best testing platform for your research needs.

Contact Sales

Product of Interest: