Applying foam sheets to uncured silicone shells before curing eliminates seams and wrinkles that cause capsular contracture.
Applying distractive force to expand breast tissue and increase vascularity improves autologous fat graft survival while reducing necrosis.
A tissue expander uses a diaphragm valve channel to enable rapid fluid injection into the expansion chamber.
Porous foam layers in a breast implant reduce weight by up to 50% to prevent tissue atrophy and sagging.
Decellularized nipple grafts retain structural proteins to repopulate tissue with keratinocytes, preventing projection loss and necrosis.
An absorbable matrix brassiere reinforces the circum-mammary ligament to maintain breast projection and shape.
Segmented small-volume spherical implants and pre-operative sizers address localized tissue deficits after lumpectomy.
Bonded elastic patches and an internal plug seal implant openings upon tube removal, preventing fluid leakage while maintaining a low profile.
Segmented shell bodies with fluid chambers allow independent volume adjustment, resolving the trade-off between adaptability and manufacturing complexity.
Segmented biomaterial particles conform to irregular resection cavities, resolving asymmetry and reducing fat necrosis risks.
A magnetic port locator tool detects the precise location of an injection port within an implantable medical device.
Segmented P4HB implants resolve stretching resistance and cost trade-offs by providing a temporary, fully absorbable scaffold that reduces surgical trauma.
Vortex flow from angular tubes ensures thorough coverage and debris removal, reducing capsular contracture risk.
Segmented degradable mesh implant creates void volume for tissue regeneration while maintaining mechanical strength to prevent bottoming out.
An inflatable tissue expander integrates a flat mesh attachment flap extending beyond the inferior shell edge to secure the pectoralis muscle.
High molecular weight silicon polyols cure into a biostable gel matrix that reduces solvent extractables and prevents low molecular weight PDMS leakage.