Sanoja Laboratory

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1 to 5 of 5 Results

Designing Soft and Tough Multiple-Network Elastomers: Impact of RDRPs on Filler Network Architecture and Fracture Toughness Aug 11, 2025 Dookhith, Aaliyah Z; Zhang, Zidan; ganesan, venkat; Sanoja, Gabriel, 2025, "Designing Soft and Tough Multiple-Network Elastomers: Impact of RDRPs on Filler Network Architecture and Fracture Toughness", https://doi.org/10.18738/T8/OVB8P1, Texas Data Repository, V1 Polymer networks are crucial for engineering and biomedical applications; however, their excessive brittleness in the absence of viscoelastic dissipation limits their use in applications requiring high temperatures and water concentrations. Multiple-networks, consisting of a stif...
Impact of Reversible Deactivation Radical Polymerizations (RDRPs) on the Gelation, Phase Separation, and Mechanical Properties of Polymer Networks Aug 11, 2025 Dookhith, Aaliyah; Zhang, Zidan; Ganesan, Venkat, 2025, "Impact of Reversible Deactivation Radical Polymerizations (RDRPs) on the Gelation, Phase Separation, and Mechanical Properties of Polymer Networks", https://doi.org/10.18738/T8/SGLQMD, Texas Data Repository, V1 Polymer networks are widely used in engineering and biomedical applications because they can sustain large deformations. However, their mechanical properties, particularly at large strains, remain challenging to design within their molecular architecture through conventional synt...
Tailoring Rate- and Temperature-Dependent Fracture of Polyether Networks with Organoaluminum Catalysts Dec 9, 2022 Sanoja, Gabriel, 2022, "Tailoring Rate- and Temperature-Dependent Fracture of Polyether Networks with Organoaluminum Catalysts", https://doi.org/10.18738/T8/YDYNVY, Texas Data Repository, V1 Polyethers are ubiquitous in engineering and biomedical applications because their oxygen rich backbone allows them to interact with a variety of polar small molecules such as ions, gases, and pharmaceuticals. These materials are also able to sustain large reversible deformations...
Controlling Architecture and Mechanical Properties in Polyether Networks with Organo-aluminum Catalysts May 17, 2022 Dookhith, Aaliyah; Lynd, Nathaniel; Creton, Costantino; Sanoja, Gabriel, 2022, "Controlling Architecture and Mechanical Properties in Polyether Networks with Organo-aluminum Catalysts", https://doi.org/10.18738/T8/UGXGTB, Texas Data Repository, V1 Soft materials can sustain large, elastic, and reversible deformations; finding widespread use as elastomers and hydrogels. These materials constitute 3-D polymer networks and are typically synthesized by cross-linking polymer chains or copolymerizing monomer and cross-linker. Se...
Why is Mechanical Fatigue different from Toughness in Elastomers? The Role of Polymer Chain Scission Jul 9, 2021 Sanoja, Gabriel; Xavier Morelle; Jean Comtet; C. Joshua Yeh; Matteo Ciccotti; Costantino Creton, 2021, "Why is Mechanical Fatigue different from Toughness in Elastomers? The Role of Polymer Chain Scission", https://doi.org/10.18738/T8/XPDHOL, Texas Data Repository, V1 Although elastomers often experience 10-100 million cycles prior to failure, there is currently a limited understanding of their resistance to fatigue crack propagation. We tagged soft and tough double-network elastomers with mechanofluorescent probes, and quantified damage by sa...

Designing Soft and Tough Multiple-Network Elastomers: Impact of RDRPs on Filler Network Architecture and Fracture Toughness

Aug 11, 2025

Dookhith, Aaliyah Z; Zhang, Zidan; ganesan, venkat; Sanoja, Gabriel, 2025, "Designing Soft and Tough Multiple-Network Elastomers: Impact of RDRPs on Filler Network Architecture and Fracture Toughness", https://doi.org/10.18738/T8/OVB8P1, Texas Data Repository, V1

Polymer networks are crucial for engineering and biomedical applications; however, their excessive brittleness in the absence of viscoelastic dissipation limits their use in applications requiring high temperatures and water concentrations. Multiple-networks, consisting of a stif...

Impact of Reversible Deactivation Radical Polymerizations (RDRPs) on the Gelation, Phase Separation, and Mechanical Properties of Polymer Networks

Aug 11, 2025

Dookhith, Aaliyah; Zhang, Zidan; Ganesan, Venkat, 2025, "Impact of Reversible Deactivation Radical Polymerizations (RDRPs) on the Gelation, Phase Separation, and Mechanical Properties of Polymer Networks", https://doi.org/10.18738/T8/SGLQMD, Texas Data Repository, V1

Polymer networks are widely used in engineering and biomedical applications because they can sustain large deformations. However, their mechanical properties, particularly at large strains, remain challenging to design within their molecular architecture through conventional synt...

Tailoring Rate- and Temperature-Dependent Fracture of Polyether Networks with Organoaluminum Catalysts

Dec 9, 2022

Sanoja, Gabriel, 2022, "Tailoring Rate- and Temperature-Dependent Fracture of Polyether Networks with Organoaluminum Catalysts", https://doi.org/10.18738/T8/YDYNVY, Texas Data Repository, V1

Polyethers are ubiquitous in engineering and biomedical applications because their oxygen rich backbone allows them to interact with a variety of polar small molecules such as ions, gases, and pharmaceuticals. These materials are also able to sustain large reversible deformations...

Controlling Architecture and Mechanical Properties in Polyether Networks with Organo-aluminum Catalysts

May 17, 2022

Dookhith, Aaliyah; Lynd, Nathaniel; Creton, Costantino; Sanoja, Gabriel, 2022, "Controlling Architecture and Mechanical Properties in Polyether Networks with Organo-aluminum Catalysts", https://doi.org/10.18738/T8/UGXGTB, Texas Data Repository, V1

Soft materials can sustain large, elastic, and reversible deformations; finding widespread use as elastomers and hydrogels. These materials constitute 3-D polymer networks and are typically synthesized by cross-linking polymer chains or copolymerizing monomer and cross-linker. Se...

Why is Mechanical Fatigue different from Toughness in Elastomers? The Role of Polymer Chain Scission

Jul 9, 2021

Sanoja, Gabriel; Xavier Morelle; Jean Comtet; C. Joshua Yeh; Matteo Ciccotti; Costantino Creton, 2021, "Why is Mechanical Fatigue different from Toughness in Elastomers? The Role of Polymer Chain Scission", https://doi.org/10.18738/T8/XPDHOL, Texas Data Repository, V1

Although elastomers often experience 10-100 million cycles prior to failure, there is currently a limited understanding of their resistance to fatigue crack propagation. We tagged soft and tough double-network elastomers with mechanofluorescent probes, and quantified damage by sa...

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