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#polymerchemistry — Public Fediverse posts

Live and recent posts from across the Fediverse tagged #polymerchemistry, aggregated by home.social.

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  1. _Hideki Shirakawa, Who Helped Turn a Lab Error Into a Nobel, Dies at 90_

    “…someone accidentally added 1,000 times too much catalyst to the reaction to create the polyacetylene. Instead of getting a black powdery substance, as expected, the result was a silvery film that looked more like metal than plastic. Dr. Shirakawa was intrigued by the result and began studying the unusual material to better understand its properties.”

    Most of my lab mistakes turned out to be mere blunders. I don't recall ever stumbling upon something *interesting* as a result… how about y'all?

    #Chemistry #PolymerChemistry #Chemiverse

    nytimes.com/2026/09/04/science

  2. _Hideki Shirakawa, Who Helped Turn a Lab Error Into a Nobel, Dies at 90_

    “…someone accidentally added 1,000 times too much catalyst to the reaction to create the polyacetylene. Instead of getting a black powdery substance, as expected, the result was a silvery film that looked more like metal than plastic. Dr. Shirakawa was intrigued by the result and began studying the unusual material to better understand its properties.”

    Most of my lab mistakes turned out to be mere blunders. I don't recall ever stumbling upon something *interesting* as a result… how about y'all?

    #Chemistry #PolymerChemistry #Chemiverse

    nytimes.com/2026/09/04/science

  3. _Hideki Shirakawa, Who Helped Turn a Lab Error Into a Nobel, Dies at 90_

    “…someone accidentally added 1,000 times too much catalyst to the reaction to create the polyacetylene. Instead of getting a black powdery substance, as expected, the result was a silvery film that looked more like metal than plastic. Dr. Shirakawa was intrigued by the result and began studying the unusual material to better understand its properties.”

    Most of my lab mistakes turned out to be mere blunders. I don't recall ever stumbling upon something *interesting* as a result… how about y'all?

    #Chemistry #PolymerChemistry #Chemiverse

    nytimes.com/2026/09/04/science

  4. _Hideki Shirakawa, Who Helped Turn a Lab Error Into a Nobel, Dies at 90_

    “…someone accidentally added 1,000 times too much catalyst to the reaction to create the polyacetylene. Instead of getting a black powdery substance, as expected, the result was a silvery film that looked more like metal than plastic. Dr. Shirakawa was intrigued by the result and began studying the unusual material to better understand its properties.”

    Most of my lab mistakes turned out to be mere blunders. I don't recall ever stumbling upon something *interesting* as a result… how about y'all?

    nytimes.com/2026/09/04/science

  5. _Hideki Shirakawa, Who Helped Turn a Lab Error Into a Nobel, Dies at 90_

    “…someone accidentally added 1,000 times too much catalyst to the reaction to create the polyacetylene. Instead of getting a black powdery substance, as expected, the result was a silvery film that looked more like metal than plastic. Dr. Shirakawa was intrigued by the result and began studying the unusual material to better understand its properties.”

    Most of my lab mistakes turned out to be mere blunders. I don't recall ever stumbling upon something *interesting* as a result… how about y'all?

    #Chemistry #PolymerChemistry #Chemiverse

    nytimes.com/2026/09/04/science

  6. Tokyo University of Science develops 137 MJ/m3 tough glassy polymer

    KEY POINTSTokyo University of Science develops glassy polymer reaching about 137 MJ/m3 toughness and 0.9 GPa Young’s modulusBulky…
    #EuropeSays #Japan #JP #Tokyo #DaisukeAoki #DMAP #glassypolymer #KojiArimitsu #Macromolecules #MaterialsScience #polymerchemistry #TokyoUniversityofScience
    europesays.com/japan/86669/

  7. A novel metastable polymer material designed for light-based 3D printing that can be rapidly disassembled into its constituent molecular building blocks for reuse.
    #MaterialsScience #MacromolecularChemistry #PolymerChemistry #sflorg
    sflorg.com/2026/08/ms08192601.

  8. A novel metastable polymer material designed for light-based 3D printing that can be rapidly disassembled into its constituent molecular building blocks for reuse.
    #MaterialsScience #MacromolecularChemistry #PolymerChemistry #sflorg
    sflorg.com/2026/08/ms08192601.

  9. A novel metastable polymer material designed for light-based 3D printing that can be rapidly disassembled into its constituent molecular building blocks for reuse.
    #MaterialsScience #MacromolecularChemistry #PolymerChemistry #sflorg
    sflorg.com/2026/08/ms08192601.

  10. A novel metastable polymer material designed for light-based 3D printing that can be rapidly disassembled into its constituent molecular building blocks for reuse.
    #MaterialsScience #MacromolecularChemistry #PolymerChemistry #sflorg
    sflorg.com/2026/08/ms08192601.

  11. A novel metastable polymer material designed for light-based 3D printing that can be rapidly disassembled into its constituent molecular building blocks for reuse.
    #MaterialsScience #MacromolecularChemistry #PolymerChemistry #sflorg
    sflorg.com/2026/08/ms08192601.

  12. MIT engineers have developed a fully recyclable, elastic yarn constructed entirely from polyethylene, a thermoplastic polymer commonly found in everyday packaging. This novel material mimics the strength and flexibility of conventional spandex while eliminating the need for complex chemical separation during the recycling process.
    #MaterialsScience #PolymerChemistry #MechanicalEngineering #sflorg
    sflorg.com/2026/07/ms07272602.

  13. MIT engineers have developed a fully recyclable, elastic yarn constructed entirely from polyethylene, a thermoplastic polymer commonly found in everyday packaging. This novel material mimics the strength and flexibility of conventional spandex while eliminating the need for complex chemical separation during the recycling process.
    #MaterialsScience #PolymerChemistry #MechanicalEngineering #sflorg
    sflorg.com/2026/07/ms07272602.

  14. MIT engineers have developed a fully recyclable, elastic yarn constructed entirely from polyethylene, a thermoplastic polymer commonly found in everyday packaging. This novel material mimics the strength and flexibility of conventional spandex while eliminating the need for complex chemical separation during the recycling process.
    #MaterialsScience #PolymerChemistry #MechanicalEngineering #sflorg
    sflorg.com/2026/07/ms07272602.

  15. MIT engineers have developed a fully recyclable, elastic yarn constructed entirely from polyethylene, a thermoplastic polymer commonly found in everyday packaging. This novel material mimics the strength and flexibility of conventional spandex while eliminating the need for complex chemical separation during the recycling process.
    #MaterialsScience #PolymerChemistry #MechanicalEngineering #sflorg
    sflorg.com/2026/07/ms07272602.

  16. MIT engineers have developed a fully recyclable, elastic yarn constructed entirely from polyethylene, a thermoplastic polymer commonly found in everyday packaging. This novel material mimics the strength and flexibility of conventional spandex while eliminating the need for complex chemical separation during the recycling process.
    #MaterialsScience #PolymerChemistry #MechanicalEngineering #sflorg
    sflorg.com/2026/07/ms07272602.

  17. An international research team has developed innovative organic polymer solar cells characterized by high elasticity, mechanical strength, and an energy conversion efficiency of 19.25%.
    #MaterialsScience #Photovoltaics #PolymerChemistry #sflorg
    sflorg.com/2026/06/ms06172601.

  18. An international research team has developed innovative organic polymer solar cells characterized by high elasticity, mechanical strength, and an energy conversion efficiency of 19.25%.
    #MaterialsScience #Photovoltaics #PolymerChemistry #sflorg
    sflorg.com/2026/06/ms06172601.

  19. An international research team has developed innovative organic polymer solar cells characterized by high elasticity, mechanical strength, and an energy conversion efficiency of 19.25%.
    #MaterialsScience #Photovoltaics #PolymerChemistry #sflorg
    sflorg.com/2026/06/ms06172601.

  20. An international research team has developed innovative organic polymer solar cells characterized by high elasticity, mechanical strength, and an energy conversion efficiency of 19.25%.
    #MaterialsScience #Photovoltaics #PolymerChemistry #sflorg
    sflorg.com/2026/06/ms06172601.

  21. An international research team has developed innovative organic polymer solar cells characterized by high elasticity, mechanical strength, and an energy conversion efficiency of 19.25%.
    #MaterialsScience #Photovoltaics #PolymerChemistry #sflorg
    sflorg.com/2026/06/ms06172601.

  22. By introducing weaker molecular bonds, known as mechanophores, into common plastics and rubbers, chemists can substantially increase the materials' ability to absorb energy and resist sudden, destructive impacts.
    #PolymerChemistry #MaterialsScience #MechanicalEngineering #sflorg
    sflorg.com/2026/06/chm06032601

  23. By introducing weaker molecular bonds, known as mechanophores, into common plastics and rubbers, chemists can substantially increase the materials' ability to absorb energy and resist sudden, destructive impacts.
    #PolymerChemistry #MaterialsScience #MechanicalEngineering #sflorg
    sflorg.com/2026/06/chm06032601

  24. By introducing weaker molecular bonds, known as mechanophores, into common plastics and rubbers, chemists can substantially increase the materials' ability to absorb energy and resist sudden, destructive impacts.
    #PolymerChemistry #MaterialsScience #MechanicalEngineering #sflorg
    sflorg.com/2026/06/chm06032601

  25. By introducing weaker molecular bonds, known as mechanophores, into common plastics and rubbers, chemists can substantially increase the materials' ability to absorb energy and resist sudden, destructive impacts.
    #PolymerChemistry #MaterialsScience #MechanicalEngineering #sflorg
    sflorg.com/2026/06/chm06032601

  26. By introducing weaker molecular bonds, known as mechanophores, into common plastics and rubbers, chemists can substantially increase the materials' ability to absorb energy and resist sudden, destructive impacts.
    #PolymerChemistry #MaterialsScience #MechanicalEngineering #sflorg
    sflorg.com/2026/06/chm06032601

  27. MOPEG gels are a novel class of porous polymer gels that selectively recognize specific target molecules and convert these invisible, microscopic interactions into visible, macroscale deformations such as changes in color, shape, and physical stiffness.
    #MaterialsScience #SupramolecularChemistry #PolymerChemistry #sflorg
    sflorg.com/2026/05/ms05222601.

  28. MOPEG gels are a novel class of porous polymer gels that selectively recognize specific target molecules and convert these invisible, microscopic interactions into visible, macroscale deformations such as changes in color, shape, and physical stiffness.
    #MaterialsScience #SupramolecularChemistry #PolymerChemistry #sflorg
    sflorg.com/2026/05/ms05222601.

  29. MOPEG gels are a novel class of porous polymer gels that selectively recognize specific target molecules and convert these invisible, microscopic interactions into visible, macroscale deformations such as changes in color, shape, and physical stiffness.
    #MaterialsScience #SupramolecularChemistry #PolymerChemistry #sflorg
    sflorg.com/2026/05/ms05222601.

  30. MOPEG gels are a novel class of porous polymer gels that selectively recognize specific target molecules and convert these invisible, microscopic interactions into visible, macroscale deformations such as changes in color, shape, and physical stiffness.
    #MaterialsScience #SupramolecularChemistry #PolymerChemistry #sflorg
    sflorg.com/2026/05/ms05222601.

  31. MOPEG gels are a novel class of porous polymer gels that selectively recognize specific target molecules and convert these invisible, microscopic interactions into visible, macroscale deformations such as changes in color, shape, and physical stiffness.
    #MaterialsScience #SupramolecularChemistry #PolymerChemistry #sflorg
    sflorg.com/2026/05/ms05222601.

  32. Periodicity-aware deep learning for polymers

    Abramson, J. et al. Accurate structure prediction of biomolecular interactions with AlphaFold 3. Nature 630, 493–500 (2024). Article  Google…
    #UnitedStates #US #USA #america #Computationalmethods #COMPUTERSCIENCE #general #Polymerchemistry #science #technology #unitedstatesofamerica
    europesays.com/2581972/

  33. 🔋There is a small chance that rechargeable #lithium batteries will ignite, leak or even explode.🧯

    How to make them safer?

    Giuseppe Portale, Ass. Prof. of #Polymerchemistry and #Physics at the UG, and his team are building safer small coin batteries using solid #polymers.🪙

    Read our 3rd story on #batterydevelopers of #FSE 👇
    🔗 rug.nl/fse/news/science-in-foc

    🧪 #SciComm #ScienceNewsroom #lithiumbattery #polymerscience #research #polymer #chemistry #ScientistsOnMastodon @universityofgroningen

  34. 🔋There is a small chance that rechargeable #lithium batteries will ignite, leak or even explode.🧯

    How to make them safer?

    Giuseppe Portale, Ass. Prof. of #Polymerchemistry and #Physics at the UG, and his team are building safer small coin batteries using solid #polymers.🪙

    Read our 3rd story on #batterydevelopers of #FSE 👇
    🔗 rug.nl/fse/news/science-in-foc

    🧪 #SciComm #ScienceNewsroom #lithiumbattery #polymerscience #research #polymer #chemistry #ScientistsOnMastodon @universityofgroningen

  35. 🔋There is a small chance that rechargeable #lithium batteries will ignite, leak or even explode.🧯

    How to make them safer?

    Giuseppe Portale, Ass. Prof. of #Polymerchemistry and #Physics at the UG, and his team are building safer small coin batteries using solid #polymers.🪙

    Read our 3rd story on #batterydevelopers of #FSE 👇
    🔗 rug.nl/fse/news/science-in-foc

    🧪 #SciComm #ScienceNewsroom #lithiumbattery #polymerscience #research #polymer #chemistry #ScientistsOnMastodon @universityofgroningen

  36. 🔋There is a small chance that rechargeable #lithium batteries will ignite, leak or even explode.🧯

    How to make them safer?

    Giuseppe Portale, Ass. Prof. of #Polymerchemistry and #Physics at the UG, and his team are building safer small coin batteries using solid #polymers.🪙

    Read our 3rd story on #batterydevelopers of #FSE 👇
    🔗 rug.nl/fse/news/science-in-foc

    🧪 #SciComm #ScienceNewsroom #lithiumbattery #polymerscience #research #polymer #chemistry #ScientistsOnMastodon @universityofgroningen

  37. 🔋There is a small chance that rechargeable #lithium batteries will ignite, leak or even explode.🧯

    How to make them safer?

    Giuseppe Portale, Ass. Prof. of #Polymerchemistry and #Physics at the UG, and his team are building safer small coin batteries using solid #polymers.🪙

    Read our 3rd story on #batterydevelopers of #FSE 👇
    🔗 rug.nl/fse/news/science-in-foc

    🧪 #SciComm #ScienceNewsroom #lithiumbattery #polymerscience #research #polymer #chemistry #ScientistsOnMastodon @universityofgroningen

  38. Registration for this year’s #ChemSciSymposium closes soon. Join us virtually to reconnect with fellow researchers and hear from leading speakers, as we dive into the discoveries that will shape the future of #PolymerChemistry.

    Book your place: invt.io/1txbnmjggzn

    #Chemistry #Conference #VirtualConference #Symposia #Polymers #PolymerChemistry

  39. Registration for this year’s #ChemSciSymposium closes soon. Join us virtually to reconnect with fellow researchers and hear from leading speakers, as we dive into the discoveries that will shape the future of #PolymerChemistry.

    Book your place: invt.io/1txbnmjggzn

    #Chemistry #Conference #VirtualConference #Symposia #Polymers #PolymerChemistry

  40. Registration for this year’s #ChemSciSymposium closes soon. Join us virtually to reconnect with fellow researchers and hear from leading speakers, as we dive into the discoveries that will shape the future of #PolymerChemistry.

    Book your place: invt.io/1txbnmjggzn

    #Chemistry #Conference #VirtualConference #Symposia #Polymers #PolymerChemistry

  41. Registration for this year’s #ChemSciSymposium closes soon. Join us virtually to reconnect with fellow researchers and hear from leading speakers, as we dive into the discoveries that will shape the future of #PolymerChemistry.

    Book your place: invt.io/1txbnmjggzn

    #Chemistry #Conference #VirtualConference #Symposia #Polymers #PolymerChemistry

  42. Registration for this year’s #ChemSciSymposium closes soon. Join us virtually to reconnect with fellow researchers and hear from leading speakers, as we dive into the discoveries that will shape the future of #PolymerChemistry.

    Book your place: invt.io/1txbnmjggzn

    #Chemistry #Conference #VirtualConference #Symposia #Polymers #PolymerChemistry

  43. Registration for this year’s #ChemSciSymposium closes soon. Join us virtually to reconnect with fellow researchers and hear from leading speakers, as we dive into the discoveries that will shape the future of #PolymerChemistry.

    Book your place: rsc.li/ChemSci23-sm

    We've now sold out of in person places, but you can still join us online. Virtual attendees will get access to recordings of the scientific talks that they can watch on demand.

    #chemistry

  44. Registration for this year’s #ChemSciSymposium closes soon. Join us virtually to reconnect with fellow researchers and hear from leading speakers, as we dive into the discoveries that will shape the future of #PolymerChemistry.

    Book your place: rsc.li/ChemSci23-sm

    We've now sold out of in person places, but you can still join us online. Virtual attendees will get access to recordings of the scientific talks that they can watch on demand.

    #chemistry

  45. Registration for this year’s #ChemSciSymposium closes soon. Join us virtually to reconnect with fellow researchers and hear from leading speakers, as we dive into the discoveries that will shape the future of #PolymerChemistry.

    Book your place: rsc.li/ChemSci23-sm

    We've now sold out of in person places, but you can still join us online. Virtual attendees will get access to recordings of the scientific talks that they can watch on demand.

    #chemistry