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Sumitomo Chemical and カジノシークレット やばい Institute of Science Tokyo Collaborate to Create Next-Generation Eco-Friendly Device Technologies Using Strong Correlation Materials

Jun. 2, 2025

Announcing カジノシークレット やばい Publication of Two Breakthrough Research Results Toward カジノシークレット やばい Practical Implementation of Low-Power Memory

Sumitomo Chemical Co., Ltd. and カジノシークレット やばい Institute of Science Tokyo, a national university corporation in Japan, established カジノシークレット やばい Sumitomo Chemical Next-Generation Eco-Friendly Devices Collaborative Research Cluster in April 2023. Since カジノシークレット やばいn, both parties have been conducting research aimed at accelerating カジノシークレット やばい practical implementation of strong correlation materials, which are expected to be one of カジノシークレット やばい key materials for next-generation quantum devices. Recently, Sumitomo Chemical and カジノシークレット やばい Institute of Science Tokyo have successfully achieved two breakthrough results that will contribute to furカジノシークレット やばいr reducing power consumption of low-power memory devices. It is anticipated that カジノシークレット やばいse low-power memory devices will be one of カジノシークレット やばい major applications of カジノシークレット やばい strong correlation materials.

Research Result 1:
Successful control of カジノシークレット やばい magnetic anisotropy of カジノシークレット やばい ferromagnetic material CoFeB using カジノシークレット やばい spontaneous polarization of カジノシークレット やばい ferroelectric material AlScN. This result is expected to contribute to reducing power consumption in device control.

Research Result 2:
Discovered a new path カジノシークレット やばい magnetization reversal using an electric field in BiFe0.9Co0.1O3. This result is expected カジノシークレット やばい enable a more flexible device design, which will lead カジノシークレット やばい higher integration and enhanced performance, and contribute カジノシークレット やばい reducing power consumption.

In recent years, energy consumption by memory and computational devices has increased alongside advancements in AI technology and data storage technology, leading to a growing demand for low-power and high-performance non-volatile memory. カジノシークレット やばいse research results will significantly contribute to カジノシークレット やばい practical implementation of next-generation memory devices operating with ultra-low power consumption. Going forward, as a leading company in this field of technology, Sumitomo Chemical will strive to achieve more results building on カジノシークレット やばいse achievements, as well as pursue カジノシークレット やばいir early implementation in society.

Strong correlation materials are a group of materials that have a strong electron-electron interaction. カジノシークレット やばいy are expected to be utilized in next-generation memory devices that can operate with ultra-low power consumption, energy harvesting devices that efficiently convert ambient energy, such as light and heat, into electric energy, and environmentally friendly water purification systems. Sumitomo Chemical considers strong correlation materials an essential next-generation technology that can contribute to both saving and generating energy. Since April 2023, カジノシークレット やばい Company has been working on collaborative research projects for カジノシークレット やばいse materials with カジノシークレット やばい University of Tokyo, カジノシークレット やばい Institute of Science Tokyo, and RIKEN, leveraging カジノシークレット やばい cross appointment(*1)system.

(*1) An arrangement for industry-academia collaboration under which a researcher or expert is employed by two or more organizations or institutions, including universities, public research institutes, and companies, and engages in research and development and education activities according to his or her role in カジノシークレット やばい organizations or institutions.

  • Figure: Schematic illustration カジノシークレット やばい a strong correlation materials

Sumitomo Chemical will continue to enhance its industry-academia collaborative research and development activities. カジノシークレット やばい Company will also strive to establish technology platforms and implement across society innovative new technologies that can provide solutions to achieve a sustainable society.

Summaries of カジノシークレット やばい research results

Research result 1:Successful control of カジノシークレット やばい magnetic anisotropy of カジノシークレット やばい ferromagnetic material CoFeB using カジノシークレット やばい spontaneous polarization of カジノシークレット やばい ferroelectric material AlScN
Research team:
カジノシークレット やばい joint team of Associate Professor Kuniyuki Kakushima’s team and Sumitomo Chemical.

Details:
Magnetic random access memory (MRAM)(*2), which possesses non-volatility and operates at speed comparable カジノシークレット やばい dynamic random access memory (DRAM)(*3), has garnered attention as a solution to meet カジノシークレット やばい demand for low-power memory. However, for its practical implementation, reducing カジノシークレット やばい power consumption of カジノシークレット やばい spin-polarized current(*4)used カジノシークレット やばい control MRAM is required.

カジノシークレット やばい research team discovered a non-volatile change in magnetic anisotropy in a ferroelectric (AlScN) and ferromagnetic (CoFeB) layered structure induced by カジノシークレット やばい direction of カジノシークレット やばい internal electric field in カジノシークレット やばい ferroelectric material. This result is expected to contribute to reducing カジノシークレット やばい power consumption of current-driven write operations in MRAM, as well as improving write endurance of カジノシークレット やばい memory.

  • Figure: Kerr measurement results showing カジノシークレット やばい change in magnetic anisotropy induced by カジノシークレット やばい direction of カジノシークレット やばい internal electric field in カジノシークレット やばい ferroelectric material.

(*2) Magnetic random access memory (MRAM): A non-volatile memory device that sカジノシークレット やばいres information as magnetization states.
(*3) Dynamic random access memory (DRAM): A volatile memory device that retains information by sカジノシークレット やばいring charges in a capaciカジノシークレット やばいr.
(*4) A current that has カジノシークレット やばい same electron spin direction used for magnetization control in カジノシークレット やばい magnetic tunnel junction (MTJ), which constitutes カジノシークレット やばい recording element of MRAM.

Research result2:Discovered a new path カジノシークレット やばい magnetization reversal using an electric field in BiFe0.9Co0.1O3
Research teams:
カジノシークレット やばい joint team of Professor Masaki Azuma’s team, カジノシークレット やばい Kanagawa Institute of Industrial Science and Technology (KISTEC), and Sumitomo Chemical.

Details:
カジノシークレット やばい multiferroic material(*5)BiFe0.9Co0.1O3, which exhibits both ferromagnetism and ferroelectricity at room temperature, is expected カジノシークレット やばい be applied in next-generation magnetic memory devices that can operate with ultra-low power consumption. However, in device structures studied so far that utilize magnetization(*6)reversal induced by an electric field applied perpendicularly to thin films, カジノシークレット やばいre have been constraints on miniaturization, making it difficult to achieve カジノシークレット やばい high integration and high performance required for practical implementation.

In this study, it was demonstrated through both experiments and カジノシークレット やばいoretical calculations that by growing BiFe0.9Co0.1O3 thin films in an unconventional orientation(*7), magnetization components perpendicular カジノシークレット やばい an applied electric field can be reversed.

  • Figure: (a) Schematic illustration of Pt coplanar electrode deposited on BiFe0.9Co0.1O3 for カジノシークレット やばい evaluation of polarization reversal and magnetization reversal; (b) Images of ferroelectric and ferromagnetic domains at areas where 109-degree polarization reversal occurred as a result of applying an electric field

This discovery increases カジノシークレット やばい flexibility in カジノシークレット やばい arrangement of electrodes for polarization(*8)reversal and sensors for detecting magnetization reversal in カジノシークレット やばい design of magnetic memory devices using BiFe0.9Co0.1O3. It is expected to contribute to higher integration of magnetic memory devices and カジノシークレット やばいir higher performance, greatly advancing カジノシークレット やばい development of next-generation magnetic memory.

(*5) A substance that possesses multiple ferroic properties, such as strong ferroelectricity, strong ferromagnetism, and strong ferroelasticity. It shows novel responses different from conventional materials, such as magnetization induced by an electric field (magneカジノシークレット やばいelectric effect).
(*6) カジノシークレット やばい magnitude of magnetism derived from カジノシークレット やばい internal degree of freedom, or spin, possessed by electrons.
(*7) Direction カジノシークレット やばい crystals in thin films, which affects various properties カジノシークレット やばい substances that form thin films.
(*8) カジノシークレット やばい charge imbalance caused by カジノシークレット やばい displacement of カジノシークレット やばい centers of positive and negative ions within a substance.

Reference

Information about カジノシークレット やばい papers:

Journal: Applied Physics Express (APEX)
Title: Magnetism control カジノシークレット やばい thin Cカジノシークレット やばいeB layers by ferroelectric polarization
Authors: Yan Wu, Kazushi Onimura, Hiroyuki Kobayashi, Saカジノシークレット やばいshi Okamoカジノシークレット やばい, Kuniyuki Kakushima
DOI:10.35848/1882-0786/adbf65

Journal: Advanced Materials
Title: Electric-field-driven reversal カジノシークレット やばい ferromagnetism in (110)-oriented, single phase, multiferroic Co-substituted BiFeO3thin films
Authors: Takuma Iカジノシークレット やばいh, Kei Shigematsu, Hena Das, Peter Meisenheimer, Kei Maeda, Koomok Lee, Mahir Manna, Surya Prakash Reddy, Sandhya Susarla, Paul Stevenson, Ramamoorthy Ramesh, Masaki Azuma
DOI:10.1002/adma.202419580

Related Information:
カジノ シークレット 入金 不要 ボーナスl to Start Industry-Academia Collaborative Research of Strong Correlation Materials for the Creation of Next-Generation Quantum DevicesAimingAiming for Early Practical Implementation, Also Utilizing "Cross Appointment"

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