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#perovskites — Public Fediverse posts

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

  1. Perfectly symmetrical 2D #perovskites are a newly engineered class of two-dimensional metal halide semiconductors that achieve a near-perfect, distortion-free crystalline structure at room temperature. This exceptional symmetry prevents energy from becoming trapped within the material's soft lattice.
    #MaterialScience #Nanotechnology #Engineering #Physics #sflorg
    sflorg.com/2026/04/ms04032601.

  2. Perfectly symmetrical 2D #perovskites are a newly engineered class of two-dimensional metal halide semiconductors that achieve a near-perfect, distortion-free crystalline structure at room temperature. This exceptional symmetry prevents energy from becoming trapped within the material's soft lattice.
    #MaterialScience #Nanotechnology #Engineering #Physics #sflorg
    sflorg.com/2026/04/ms04032601.

  3. Perfectly symmetrical 2D #perovskites are a newly engineered class of two-dimensional metal halide semiconductors that achieve a near-perfect, distortion-free crystalline structure at room temperature. This exceptional symmetry prevents energy from becoming trapped within the material's soft lattice.
    #MaterialScience #Nanotechnology #Engineering #Physics #sflorg
    sflorg.com/2026/04/ms04032601.

  4. Perfectly symmetrical 2D #perovskites are a newly engineered class of two-dimensional metal halide semiconductors that achieve a near-perfect, distortion-free crystalline structure at room temperature. This exceptional symmetry prevents energy from becoming trapped within the material's soft lattice.
    #MaterialScience #Nanotechnology #Engineering #Physics #sflorg
    sflorg.com/2026/04/ms04032601.

  5. Perfectly symmetrical 2D #perovskites are a newly engineered class of two-dimensional metal halide semiconductors that achieve a near-perfect, distortion-free crystalline structure at room temperature. This exceptional symmetry prevents energy from becoming trapped within the material's soft lattice.
    #MaterialScience #Nanotechnology #Engineering #Physics #sflorg
    sflorg.com/2026/04/ms04032601.

  6. Very nifty approach!

    "Perovskite solar cells (PSCs) with power-conversion efficiencies comparable to established technologies hold huge promise for becoming the future photovoltaic technology, also given their versatility, low-cost and energy-efficient fabrication processes. However, PSCs are not stable under moderate reverse bias, an unavoidable situation under real-world operation, for instance, caused by partial shading of a module or installation with PSCs connected in series. Approaches to address this issue have focused on engineering the device architecture to enhance the breakdown voltage and mitigate the detrimental effects of reverse bias2,5,6. Here we present a completely different approach that fully solves the reverse-bias issue. With our Memsol, we developed a new concept of a solar cell with an integrated memristor, which protects the solar cell and simultaneously works as a bypass element. The memristor is realized by area-selective deposition of an additional metal–insulator stack and shares the perovskite and electrodes with the solar-cell part. Reverse-bias and shading tests show that the Memsol remains stable and automatically toggles between a low-resistance bypass state and full-efficiency solar-cell operation, dependent on the illumination and bias conditions."

    #photovoltaics
    #perovskites
    #memristor

    nature.com/articles/s41586-026

  7. Very nifty approach!

    "Perovskite solar cells (PSCs) with power-conversion efficiencies comparable to established technologies hold huge promise for becoming the future photovoltaic technology, also given their versatility, low-cost and energy-efficient fabrication processes. However, PSCs are not stable under moderate reverse bias, an unavoidable situation under real-world operation, for instance, caused by partial shading of a module or installation with PSCs connected in series. Approaches to address this issue have focused on engineering the device architecture to enhance the breakdown voltage and mitigate the detrimental effects of reverse bias2,5,6. Here we present a completely different approach that fully solves the reverse-bias issue. With our Memsol, we developed a new concept of a solar cell with an integrated memristor, which protects the solar cell and simultaneously works as a bypass element. The memristor is realized by area-selective deposition of an additional metal–insulator stack and shares the perovskite and electrodes with the solar-cell part. Reverse-bias and shading tests show that the Memsol remains stable and automatically toggles between a low-resistance bypass state and full-efficiency solar-cell operation, dependent on the illumination and bias conditions."

    #photovoltaics
    #perovskites
    #memristor

    nature.com/articles/s41586-026

  8. Very nifty approach!

    "Perovskite solar cells (PSCs) with power-conversion efficiencies comparable to established technologies hold huge promise for becoming the future photovoltaic technology, also given their versatility, low-cost and energy-efficient fabrication processes. However, PSCs are not stable under moderate reverse bias, an unavoidable situation under real-world operation, for instance, caused by partial shading of a module or installation with PSCs connected in series. Approaches to address this issue have focused on engineering the device architecture to enhance the breakdown voltage and mitigate the detrimental effects of reverse bias2,5,6. Here we present a completely different approach that fully solves the reverse-bias issue. With our Memsol, we developed a new concept of a solar cell with an integrated memristor, which protects the solar cell and simultaneously works as a bypass element. The memristor is realized by area-selective deposition of an additional metal–insulator stack and shares the perovskite and electrodes with the solar-cell part. Reverse-bias and shading tests show that the Memsol remains stable and automatically toggles between a low-resistance bypass state and full-efficiency solar-cell operation, dependent on the illumination and bias conditions."

    #photovoltaics
    #perovskites
    #memristor

    nature.com/articles/s41586-026

  9. Very nifty approach!

    "Perovskite solar cells (PSCs) with power-conversion efficiencies comparable to established technologies hold huge promise for becoming the future photovoltaic technology, also given their versatility, low-cost and energy-efficient fabrication processes. However, PSCs are not stable under moderate reverse bias, an unavoidable situation under real-world operation, for instance, caused by partial shading of a module or installation with PSCs connected in series. Approaches to address this issue have focused on engineering the device architecture to enhance the breakdown voltage and mitigate the detrimental effects of reverse bias2,5,6. Here we present a completely different approach that fully solves the reverse-bias issue. With our Memsol, we developed a new concept of a solar cell with an integrated memristor, which protects the solar cell and simultaneously works as a bypass element. The memristor is realized by area-selective deposition of an additional metal–insulator stack and shares the perovskite and electrodes with the solar-cell part. Reverse-bias and shading tests show that the Memsol remains stable and automatically toggles between a low-resistance bypass state and full-efficiency solar-cell operation, dependent on the illumination and bias conditions."

    #photovoltaics
    #perovskites
    #memristor

    nature.com/articles/s41586-026

  10. Very nifty approach!

    "Perovskite solar cells (PSCs) with power-conversion efficiencies comparable to established technologies hold huge promise for becoming the future photovoltaic technology, also given their versatility, low-cost and energy-efficient fabrication processes. However, PSCs are not stable under moderate reverse bias, an unavoidable situation under real-world operation, for instance, caused by partial shading of a module or installation with PSCs connected in series. Approaches to address this issue have focused on engineering the device architecture to enhance the breakdown voltage and mitigate the detrimental effects of reverse bias2,5,6. Here we present a completely different approach that fully solves the reverse-bias issue. With our Memsol, we developed a new concept of a solar cell with an integrated memristor, which protects the solar cell and simultaneously works as a bypass element. The memristor is realized by area-selective deposition of an additional metal–insulator stack and shares the perovskite and electrodes with the solar-cell part. Reverse-bias and shading tests show that the Memsol remains stable and automatically toggles between a low-resistance bypass state and full-efficiency solar-cell operation, dependent on the illumination and bias conditions."

    #photovoltaics
    #perovskites
    #memristor

    nature.com/articles/s41586-026

  11. The unusual electronic and optical properties of #perovskites have long been touted as useful for improving solar cells and television screens,

    but these materials have never quite hit the big time.

    Existing approaches have hoovered up all the investment and attention, and perovskites remain confined to specialist applications.

    Now researchers at Empa, ETH Zurich and the Politecnico di Milano are developing a new type of computer component
    that is more powerful and easier to manufacture than its predecessors.

    Inspired by the human brain,
    it is designed to process large amounts of data fast and in an energy-efficient way.

    phys.org/news/2023-03-perovski

  12. The unusual electronic and optical properties of #perovskites have long been touted as useful for improving solar cells and television screens,

    but these materials have never quite hit the big time.

    Existing approaches have hoovered up all the investment and attention, and perovskites remain confined to specialist applications.

    Now researchers at Empa, ETH Zurich and the Politecnico di Milano are developing a new type of computer component
    that is more powerful and easier to manufacture than its predecessors.

    Inspired by the human brain,
    it is designed to process large amounts of data fast and in an energy-efficient way.

    phys.org/news/2023-03-perovski

  13. The unusual electronic and optical properties of #perovskites have long been touted as useful for improving solar cells and television screens,

    but these materials have never quite hit the big time.

    Existing approaches have hoovered up all the investment and attention, and perovskites remain confined to specialist applications.

    Now researchers at Empa, ETH Zurich and the Politecnico di Milano are developing a new type of computer component
    that is more powerful and easier to manufacture than its predecessors.

    Inspired by the human brain,
    it is designed to process large amounts of data fast and in an energy-efficient way.

    phys.org/news/2023-03-perovski

  14. The unusual electronic and optical properties of #perovskites have long been touted as useful for improving solar cells and television screens,

    but these materials have never quite hit the big time.

    Existing approaches have hoovered up all the investment and attention, and perovskites remain confined to specialist applications.

    Now researchers at Empa, ETH Zurich and the Politecnico di Milano are developing a new type of computer component
    that is more powerful and easier to manufacture than its predecessors.

    Inspired by the human brain,
    it is designed to process large amounts of data fast and in an energy-efficient way.

    phys.org/news/2023-03-perovski

  15. The unusual electronic and optical properties of #perovskites have long been touted as useful for improving solar cells and television screens,

    but these materials have never quite hit the big time.

    Existing approaches have hoovered up all the investment and attention, and perovskites remain confined to specialist applications.

    Now researchers at Empa, ETH Zurich and the Politecnico di Milano are developing a new type of computer component
    that is more powerful and easier to manufacture than its predecessors.

    Inspired by the human brain,
    it is designed to process large amounts of data fast and in an energy-efficient way.

    phys.org/news/2023-03-perovski

  16. 🙏 Thank you Dr. Tom Macdonald (University College London) for an excellent invited seminar at INAM (@ujiuniversitat ).

    🔬 The seminar focused on nanomaterials and lead-halide perovskites for next-generation solar cells.

    It was a pleasure to host you at INAM!

    #INAM #UJI #UCL #InvitedSeminar #MaterialsScience #Nanomaterials #Perovskites #SolarCells

  17. 🙏 Thank you Dr. Tom Macdonald (University College London) for an excellent invited seminar at INAM (@ujiuniversitat ).

    🔬 The seminar focused on nanomaterials and lead-halide perovskites for next-generation solar cells.

    It was a pleasure to host you at INAM!

    #INAM #UJI #UCL #InvitedSeminar #MaterialsScience #Nanomaterials #Perovskites #SolarCells

  18. 🙏 Thank you Dr. Tom Macdonald (University College London) for an excellent invited seminar at INAM (@ujiuniversitat ).

    🔬 The seminar focused on nanomaterials and lead-halide perovskites for next-generation solar cells.

    It was a pleasure to host you at INAM!

    #INAM #UJI #UCL #InvitedSeminar #MaterialsScience #Nanomaterials #Perovskites #SolarCells

  19. 🙏 Thank you Dr. Tom Macdonald (University College London) for an excellent invited seminar at INAM (@ujiuniversitat ).

    🔬 The seminar focused on nanomaterials and lead-halide perovskites for next-generation solar cells.

    It was a pleasure to host you at INAM!

    #INAM #UJI #UCL #InvitedSeminar #MaterialsScience #Nanomaterials #Perovskites #SolarCells

  20. 📣 Invited seminar tomorrow at INAM (@ujiuniversitat)

    We welcome Dr. Tom Macdonald (University College London), who will present his work on nanomaterials and lead-halide perovskites for next-generation solar cells, addressing key challenges in efficiency, stability and defect control.

    🗓️ Tomorrow, 23 January (12:00-14:00)
    📍 Salón de Actos, Edificio de Investigación II

    #INAM #UJI #UCL #InvitedSeminar #MaterialsScience #Nanomaterials #Perovskites #SolarCells

  21. 📣 Invited seminar tomorrow at INAM (@ujiuniversitat)

    We welcome Dr. Tom Macdonald (University College London), who will present his work on nanomaterials and lead-halide perovskites for next-generation solar cells, addressing key challenges in efficiency, stability and defect control.

    🗓️ Tomorrow, 23 January (12:00-14:00)
    📍 Salón de Actos, Edificio de Investigación II

    #INAM #UJI #UCL #InvitedSeminar #MaterialsScience #Nanomaterials #Perovskites #SolarCells

  22. 📣 Invited seminar tomorrow at INAM (@ujiuniversitat)

    We welcome Dr. Tom Macdonald (University College London), who will present his work on nanomaterials and lead-halide perovskites for next-generation solar cells, addressing key challenges in efficiency, stability and defect control.

    🗓️ Tomorrow, 23 January (12:00-14:00)
    📍 Salón de Actos, Edificio de Investigación II

    #INAM #UJI #UCL #InvitedSeminar #MaterialsScience #Nanomaterials #Perovskites #SolarCells

  23. 📣 Invited seminar tomorrow at INAM (@ujiuniversitat)

    We welcome Dr. Tom Macdonald (University College London), who will present his work on nanomaterials and lead-halide perovskites for next-generation solar cells, addressing key challenges in efficiency, stability and defect control.

    🗓️ Tomorrow, 23 January (12:00-14:00)
    📍 Salón de Actos, Edificio de Investigación II

    #INAM #UJI #UCL #InvitedSeminar #MaterialsScience #Nanomaterials #Perovskites #SolarCells

  24. Invited seminar next Friday at INAM (@ujiuniversitat).

    Dr. Tom Macdonald (University College London) will speak on nanomaterials and lead-halide perovskites for next-generation solar photovoltaics, with a focus on efficiency, stability and defect control.

    🗓️ 23 January (12:00 - 14:00)
    📍Salón de Actos, Edificio de Investigación II

    #UJI #INAM #UCL #Perovskites #SolarCells #Nanomaterials #RenewableEnergy

  25. Invited seminar next Friday at INAM (@ujiuniversitat).

    Dr. Tom Macdonald (University College London) will speak on nanomaterials and lead-halide perovskites for next-generation solar photovoltaics, with a focus on efficiency, stability and defect control.

    🗓️ 23 January (12:00 - 14:00)
    📍Salón de Actos, Edificio de Investigación II

    #UJI #INAM #UCL #Perovskites #SolarCells #Nanomaterials #RenewableEnergy

  26. Invited seminar next Friday at INAM (@ujiuniversitat).

    Dr. Tom Macdonald (University College London) will speak on nanomaterials and lead-halide perovskites for next-generation solar photovoltaics, with a focus on efficiency, stability and defect control.

    🗓️ 23 January (12:00 - 14:00)
    📍Salón de Actos, Edificio de Investigación II

    #UJI #INAM #UCL #Perovskites #SolarCells #Nanomaterials #RenewableEnergy

  27. Invited seminar next Friday at INAM (@ujiuniversitat).

    Dr. Tom Macdonald (University College London) will speak on nanomaterials and lead-halide perovskites for next-generation solar photovoltaics, with a focus on efficiency, stability and defect control.

    🗓️ 23 January (12:00 - 14:00)
    📍Salón de Actos, Edificio de Investigación II

    #UJI #INAM #UCL #Perovskites #SolarCells #Nanomaterials #RenewableEnergy

  28. Invited seminar next Friday at INAM (@ujiuniversitat).

    Dr. Tom Macdonald (University College London) will speak on nanomaterials and lead-halide perovskites for next-generation solar photovoltaics, with a focus on efficiency, stability and defect control.

    🗓️ 23 January (12:00 - 14:00)
    📍Salón de Actos, Edificio de Investigación II

    #UJI #INAM #UCL #Perovskites #SolarCells #Nanomaterials #RenewableEnergy

  29. Congratulations to our PhD candidate Thais Caroline de Almeida da Silva on the successful Defense of her Thesis today at the @ujiuniversitat ! 🎓✨

    Her work explores microwave-assisted synthesis of perovskite nanocrystals, contributing to scalable and energy-efficient material fabrication.

    Wishing her continued success in her next steps.

    #Perovskites #Optoelectronics #PhDDefense #ScienceForSustainability #INAM #UJI

  30. Congratulations to our PhD candidate Thais Caroline de Almeida da Silva on the successful Defense of her Thesis today at the @ujiuniversitat ! 🎓✨

    Her work explores microwave-assisted synthesis of perovskite nanocrystals, contributing to scalable and energy-efficient material fabrication.

    Wishing her continued success in her next steps.

    #Perovskites #Optoelectronics #PhDDefense #ScienceForSustainability #INAM #UJI

  31. Congratulations to our PhD candidate Thais Caroline de Almeida da Silva on the successful Defense of her Thesis today at the @ujiuniversitat ! 🎓✨

    Her work explores microwave-assisted synthesis of perovskite nanocrystals, contributing to scalable and energy-efficient material fabrication.

    Wishing her continued success in her next steps.

    #Perovskites #Optoelectronics #PhDDefense #ScienceForSustainability #INAM #UJI

  32. Congratulations to our PhD candidate Thais Caroline de Almeida da Silva on the successful Defense of her Thesis today at the @ujiuniversitat ! 🎓✨

    Her work explores microwave-assisted synthesis of perovskite nanocrystals, contributing to scalable and energy-efficient material fabrication.

    Wishing her continued success in her next steps.

    #Perovskites #Optoelectronics #PhDDefense #ScienceForSustainability #INAM #UJI

  33. New lightweight polymer film can prevent corrosion | MIT News

    MIT researchers have developed a lightweight polymer film that is nearly impenetrable to gas molecules, raising the possibility…
    #NewsBeep #News #US #USA #UnitedStates #UnitedStatesOfAmerica #Science #corrosionprevention #MichaelStrano #MITmaterialsscience #perovskites #Polymerfilms #Solarcells
    newsbeep.com/us/290888/

  34. Great talk by Jaco Geuchies at the #Reedijk Symposium of the Leiden Institute of Chemistry. He told us, how his group uses ultrafast spectroscopy to better understand the structure and properties of soft semiconductor materials such as metal-halide #perovskites. pubs.acs.org/doi/full/10.1021/
    #Chemistry

  35. Great talk by Jaco Geuchies at the #Reedijk Symposium of the Leiden Institute of Chemistry. He told us, how his group uses ultrafast spectroscopy to better understand the structure and properties of soft semiconductor materials such as metal-halide #perovskites. pubs.acs.org/doi/full/10.1021/
    #Chemistry

  36. Great talk by Jaco Geuchies at the #Reedijk Symposium of the Leiden Institute of Chemistry. He told us, how his group uses ultrafast spectroscopy to better understand the structure and properties of soft semiconductor materials such as metal-halide #perovskites. pubs.acs.org/doi/full/10.1021/
    #Chemistry

  37. Yet another promising development for #perovskites! Durability has been the biggest barrier to them being viable.
    ecoticias.com/en/solar-cell-re

  38. Yet another promising development for #perovskites! Durability has been the biggest barrier to them being viable.
    ecoticias.com/en/solar-cell-re

  39. Yet another promising development for ! Durability has been the biggest barrier to them being viable.
    ecoticias.com/en/solar-cell-re

  40. Yet another promising development for #perovskites! Durability has been the biggest barrier to them being viable.
    ecoticias.com/en/solar-cell-re

  41. Yet another promising development for #perovskites! Durability has been the biggest barrier to them being viable.
    ecoticias.com/en/solar-cell-re

  42. 📜New preprint: We finally found #THz -driven #StructuralDynamics as ultrafast fingerprints for hidden symmetry breaking in 2D layered (Ruddlesden-Popper) hybrid #Perovskites. Feedback highly appreciated.

    arxiv.org/abs/2503.02529

    Great team effort of by @fhi_mpg_de , @HZDR, @freieuniversitaet , École Polytechnique, ENS Paris-Saclay

  43. 📜New preprint: We finally found #THz -driven #StructuralDynamics as ultrafast fingerprints for hidden symmetry breaking in 2D layered (Ruddlesden-Popper) hybrid #Perovskites. Feedback highly appreciated.

    arxiv.org/abs/2503.02529

    Great team effort of by @fhi_mpg_de , @HZDR, @freieuniversitaet , École Polytechnique, ENS Paris-Saclay

  44. Post-perovskite (Petrology 💎)

    Post-perovskite is a high-pressure phase of magnesium silicate. It is composed of the prime oxide constituents of the Earth's rocky mantle, and its pressure and temperature for stability imply that it is likely to occur in portions of the lowermost few hundred km of Earth's mantle. The post-perovskite phase has implications for the D′′ l...

    en.wikipedia.org/wiki/Post-per

    #PostPerovskite #Petrology #Perovskites #SilicateMinerals #HighPressureScience