PLGA Acid Capped (PLGA-COOH, 85:15), MW 10K is a carboxyl-terminated poly(D,L-lactide-co-glycolide) copolymer. Its lactide-rich 85:15 composition and reactive COOH end group specifically support controlled drug delivery, bioconjugation, and functional polymer development.
Key Features and Benefits
- Acid Capped: Provides a terminal carboxylic acid group for conjugation and further functionalization.
- 85:15 PLGA Ratio: High lactide content supports slower water uptake and extended degradation.
- MW 10K: Offers low molecular weight for efficient processing and flexible formulation development.
- Reactive COOH Group: Supports coupling with amines after activation using standard carbodiimide chemistry.
- Controlled Degradation: Lactide-rich composition supports controlled hydrolytic degradation and sustained drug-release profiles.
- Biodegradable: PLGA hydrolyzes into lactic acid and glycolic acid under physiological conditions.
Applications
- Controlled Drug Delivery: Supports sustained drug release through biodegradable polymer matrices.
- Bioconjugation: Enables attachment of peptides, proteins, targeting ligands, and other amine-containing molecules.
- Nanoparticles: Forms functional PLGA nanoparticles for drug delivery and formulation research.
- Microparticles: Supports biodegradable microspheres and other controlled-release particle systems.
- Polymer Modification: Provides a reactive COOH group for introducing linkers, ligands, and functional molecules.
Storage and Handling
- Storage: Store at –20 °C in a fully sealed container under dry and dark conditions.
- Handling: Protect from moisture, light, and excessive heat to maintain molecular weight and polymer performance.
PLGA Acid Capped (PLGA-COOH, 85:15), MW 10K combines lactide-rich PLGA with reactive carboxyl functionality. It specifically supports controlled drug delivery, surface modification, bioconjugation, and functional biodegradable polymer development.
AxisPharm offers 5000+ PEG Linkers with high purity. Different kinds of PEG Reagents may be available by custom synthesis.