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BP11101 PTMC, Poly(trimethylene carbonate), Lauryl Ester Terminated, IV: 5.0–6.0 dl/g, Mw: 378–477 kDa

Catalogue Number BP11101
Composition HO-PTMC-COOR
Form Granule

This product is lauryl ester-terminated poly(trimethylene carbonate) (PTMC), a biocompatible polymer with controlled intrinsic viscosity and molecular weight. It is an amorphous polymer that exhibits good biocompatibility and biodegradability. At body temperature, it remains in a rubbery state with inherent elasticity. During production, quantitative spectroscopic analysis and Ubbelohde viscometer testing are employed to ensure consistent product performance. The systematic quality control process guarantees its reliable integration into medical-grade prototypes and other advanced applications where material performance and reproducibility are critical. Binary or multi-component copolymers of PTMC with other polymers (such as PLA, PLGA, PCL, 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 lauryl ester termination influence the degradation behaviour of PTMC?

The lauryl ester termination reduces hydrolytic attack on polymer chains, leading to a moderated degradation profile. This adjustment is beneficial for biomedical applications where controlled resorption rates are essential, thereby maintaining material integrity over a designated period.

What storage conditions are recommended for PTMC in granule form to maintain its properties?

It is advisable to store the material in a cool, dry environment with minimal humidity exposure. This prevents moisture uptake and potential premature degradation. Use sealed containers and handle under clean conditions to avoid contamination.

Are there specific processing conditions that optimise the performance of this polymer?

Optimal performance is achieved when processing under controlled temperature conditions that prevent thermal degradation. Melt processing at carefully monitored temperatures combined with inert atmospheres helps maintain the defined IV range and molecular weight distribution.

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