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BP10970 OH-PLLA-OH, Medium Molecular Weight Grades, IV: 1–3 dl/g, Mw: 90–480 kDa

Catalogue Number BP10970
Composition OH-PLLA-OH
Form Powder

OH-PLLA-OH is the medium molecular weight grade within our hydroxyl-terminated poly(L-lactic acid) series. Featuring an intrinsic viscosity ranging from 1 to 3 dl/g and a molecular weight between 90 and 480 kDa, this product is characterised by hydroxyl groups at both ends. Stanford Advanced Materials (SAM) employs advanced polymerisation control and rigorous GPC/DSC analysis to ensure consistent molecular weight distribution, degradation behaviour, and end-group functionality across all batches, making it both a reliable and versatile functional material.

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FAQ

What is the core advantage of this medium molecular weight, hydroxyl-terminated PLLA compared to other PLLA variants?

Its intermediate molecular weight (90–480 kDa) provides a balanced profile of processability, moderate mechanical strength, and a predictable degradation rate. Combined with its dual hydroxyl end groups, it offers both structural versatility and ease of chemical modification, making it an ideal building block for tailored material design.

How does the intrinsic viscosity range influence processing and end-use properties?

The intrinsic viscosity range of 1–3 dl/g ensures manageable melt or solution viscosity for various processing techniques, while still providing sufficient chain entanglement to impart structural integrity in the final product. This balance supports applications requiring both formability and performance.

What functional benefits do the hydroxyl groups at both ends provide?

The symmetric hydroxyl termination enables effective chain extension, cross-linking, and functional grafting. This renders the polymer highly adaptable as a macro-initiator, a compatibiliser in blends, or a reactive component in coatings and composites, where controlled interfacial interaction is essential.

In which types of applications does this material excel?

It excels in biomedical and functional material applications such as tissue engineering scaffolds, controlled drug delivery matrices, degradable coatings, and as a reactive additive in polymer formulations where tunable degradation and surface functionality are required.

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