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BP11078 PCL, poly(ε-caprolactone), Lauryl Ester Terminated, IV: 0.5–1.0 dl/g, Mw: 42–112 kDa

Catalogue Number BP11078
Composition HO-PCL-COOR
Form Powder

This product is lauryl ester-terminated poly(ε-caprolactone) (PCL), a biocompatible polymer characterised by controlled intrinsic viscosity and molecular weight. Stanford Advanced Materials (SAM) employs quantitative spectroscopy and Ubbelohde viscometer analysis during production to ensure product consistency. The systematic quality control process supports its reliable integration into medical-grade prototypes and other advanced applications where material performance and reproducibility are critical. Binary or multi-component copolymers of PCL with other polymers (such as PLA, PLGA, PTMC, PEG, MPEG, etc.) at various ratios can be customised according to customer requirements. Products with other specific molecular weight ranges or custom ester end groups are also available upon request.

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FAQ

How does the molecular weight range affect processing conditions for this polymer?

The specified molecular weight range of 42–112 kDa influences melt viscosity and chain entanglement, which in turn impacts extrusion and moulding parameters. A balanced range permits adjustment in processing temperatures and shear rates, resulting in consistent part quality in both laboratory and industrial settings.

What role does inherent viscosity (IV) play in the performance of this material?

The IV value of 0.5–1.0 dl/g reflects the polymer chain length and its flow behaviour. This parameter is critical in applications where mechanical strength and degradation rate must be balanced. Adjusting the IV can help tailor the material for specific biomedical or packaging functions.

Are there any specific storage considerations for a powder-form polymer such as this?

Powder-form polymers should be stored in a dry, temperature-controlled environment to prevent moisture uptake and thermal degradation. Using airtight containers with desiccants minimises contamination and maintains the polymer’s physical properties over extended periods.

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