August 1, 2003The Journal of Physical Chemistry B

Relationship between the Mechanical Properties and Topology of Cross-Linked Polymer Molecules: Parallel Strands Maximize the Strength of Model Polymers and Protein Domains

Q: What is the clinical evidence from this study?

Study design: Other. Intervention: Simulated cross-linked polymer chains with parallel strands vs. Randomly cross-linked chains. Primary outcome: Resistance to unfolding (unfolding work and force).

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Key result

Simulated parallel cross-linked polymers maximize unfolding resistance over random chains via all-or-none unfolding.

Population

Cross-linked polymer chains and protein domains (e.g., immunoglobulin-like domains in muscle protein titin)

Comparison

Tensile loading simulations vs Randomly cross-linked chains

Design

Preclinical

Authors

KEKilho EomSungkyunkwan University PLPai-Chi LiNational Taiwan University DMDmitrii E. MakarovThe University of Texas at Austin

Discussion

Member takes

Implication

Parallel-strand topologies may optimize polymer toughness; hypothesis-generating for titin-inspired biomaterials pending experimental validation.

Structured PICO

Population

Cross-linked polymer chains and protein domains (e.g., immunoglobulin-like domains in muscle protein titin)

Exposure

Tensile loading simulations

Comparator

Randomly cross-linked chains

Outcome

Resistance to unfolding (unfolding work and force)

Simulations reveal that parallel strands in cross-linked polymers and proteins maximize mechanical strength and resistance to unfolding.

Cite This Study

Eom et al. (2003) studied this question. Simulated cross-linked polymer chains with parallel strands vs. Randomly cross-linked chains was evaluated on Resistance to unfolding (unfolding work and force). Simulated cross-linked polymer chains with parallel strands maximized unfolding work and force, unfolding in an all-or-none fashion compared to the sequential unfolding of randomly cross-linked chains.

synapsesocial.com/papers/6aa2055b43c640b0446ee3bb https://doi.org/10.1021/jp035178x

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August 1, 2003The Journal of Physical Chemistry B

Relationship between the Mechanical Properties and Topology of Cross-Linked Polymer Molecules: Parallel Strands Maximize the Strength of Model Polymers and Protein Domains

View Full Paper

Ask AI

Bookmark

Key result

Simulated parallel cross-linked polymers maximize unfolding resistance over random chains via all-or-none unfolding.

Population

Cross-linked polymer chains and protein domains (e.g., immunoglobulin-like domains in muscle protein titin)

Comparison

Tensile loading simulations vs Randomly cross-linked chains

Design

Preclinical

Authors

KEKilho EomSungkyunkwan University PLPai-Chi LiNational Taiwan University DMDmitrii E. MakarovThe University of Texas at Austin

Discussion

Member takes

Implication

Parallel-strand topologies may optimize polymer toughness; hypothesis-generating for titin-inspired biomaterials pending experimental validation.

Structured PICO

Population

Cross-linked polymer chains and protein domains (e.g., immunoglobulin-like domains in muscle protein titin)

Exposure

Tensile loading simulations

Comparator

Randomly cross-linked chains

Outcome

Resistance to unfolding (unfolding work and force)

Simulations reveal that parallel strands in cross-linked polymers and proteins maximize mechanical strength and resistance to unfolding.

Cite This Study

synapsesocial.com/papers/6aa2055b43c640b0446ee3bb https://doi.org/10.1021/jp035178x

Also Consider

Synapse has enriched 4 closely related papers on similar clinical questions. Consider them for comparative context:

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