Science / Platform

Engineering macromolecules
for muscle protection

Bottlebrush molecular architecture opens a differentiated physical approach to stabilizing mechanically stressed cell membranes.

The biological challenge

A fragile membrane sits at the center of muscle damage

The sarcolemma is the membrane surrounding each muscle fiber. In Duchenne muscular dystrophy, the absence of functional dystrophin makes this membrane vulnerable to repeated contraction-induced damage.

This damage allows dysregulated movement of ions and other molecules across the membrane, contributing to progressive loss of functional muscle tissue.

The Elymus platform

Elymers™ are engineered bottlebrush macromolecules designed to combine nanoscale architecture with membrane engagement

Architecture

A branched macromolecule format creates a dense, tunable molecular structure.

Engagement

Amphiphilic structures are designed to interact with the lipid bilayer.

Protection

The intended result is physical membrane stabilization under mechanical stress.

Mechanism overview

Elymer™ proposed mechanism
of action

Hypothesis on action of the macromolecule on the lipid bilayer: patch, repair and heal.

Elymer™ proposed mechanism of action: a gap in the lipid bilayer lets ions flux across it, the macromolecule adsorbs and patches the gap, the bilayer repairs, and the macromolecule desorbs leaving a healed membrane
01Patch

Evidence framework

From molecular behavior to physiological performance

01Molecular characterization02Membrane-binding studies03Cellular protection04Preclinical physiology