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BP11107 PTMC, Poly(trimethylene carbonate), Hydroxyl Terminated, IV: 3.0–4.0 dl/g, Mw: 198–285 kDa

Catalogue Number BP11107
Composition HO-PTMC-OH
Form Granule

This product is hydroxyl-terminated poly(trimethylene carbonate) (PTMC-OH), a biocompatible polymer with controlled intrinsic viscosity and molecular weight. It is an amorphous polymer that exhibits excellent biocompatibility and biodegradability. At body temperature, it remains in a rubbery state, offering inherent elasticity. During production, quantitative spectroscopic analysis and Ubbelohde viscometer testing are employed to ensure consistent product performance and hydroxyl functionality. The systematic quality control process guarantees reliable integration into medical-grade prototypes and other advanced applications where material performance, reproducibility, and predictable reactivity are critical.

The presence of terminal hydroxyl groups enables further chemical modification, chain extension, or covalent conjugation with other functional molecules, making it highly versatile for the synthesis of block copolymers, cross-linked networks, or biofunctionalised materials. 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 alternative end-group functionalities are also available upon request.

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FAQ

How does the molecular weight range affect the polymer’s processing behaviour?

The molecular weight range from 198 to 285 kDa influences the polymer’s viscosity and melt strength. Lower molecular weights generally ease processing, while the higher end can enhance mechanical integrity. Adjustments in processing conditions may be required to achieve the desired workability.

What role does the hydroxyl termination play in the material’s performance?

Hydroxyl termination affects polymer chain interactions and reactivity. It can facilitate further functionalisation or crosslinking, which is critical in applications requiring tailored degradation rates and mechanical properties. Precise control over hydroxyl groups contributes to consistent performance in biomedical applications.

What storage conditions are recommended for this material?

To maintain its characteristics, store the product in a moisture-controlled, low-humidity environment at room temperature. Avoid exposure to contaminants and oxidation by using sealed, inert gas packaging where possible. Proper storage ensures stability and prolongs shelf life.

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