Hybrid CMOS Magnetic components and systems for energy efficient non volatile...
Hybrid CMOS Magnetic components and systems for energy efficient non volatile reprogrammable integrated electronics
Spinelectronics merges magnetism and electronics (Nobel Prize 2007). Besides its fundamental interest, it has found applications in hard disk drives (1998) and in non-volatile standalone memories (MRAM, on market since 2006). MRAM...
ver más
¿Tienes un proyecto y buscas un partner? Gracias a nuestro motor inteligente podemos recomendarte los mejores socios y ponerte en contacto con ellos. Te lo explicamos en este video
Proyectos interesantes
DESHYMAG
Towards a fables company for the design of hybrid CMOS magne...
147K€
Cerrado
LAST CHANCE
New super energy efficient non volatile memory manufacturing...
71K€
Cerrado
ELITE
Extended Large 3D Integration TEchnology
6M€
Cerrado
3eFERRO
Energy Efficient Embedded Non volatile Memory Logic based o...
4M€
Cerrado
NOVOFLOP
Non Volatile Magnetic Flip Flop
150K€
Cerrado
PID2021-128410OB-I00
INTERCONVERSION ESPIN-CARGA EN HETEROESTRUCTURAS DE OXIDOS P...
169K€
Cerrado
Fecha límite de participación
Sin fecha límite de participación.
Descripción del proyecto
Spinelectronics merges magnetism and electronics (Nobel Prize 2007). Besides its fundamental interest, it has found applications in hard disk drives (1998) and in non-volatile standalone memories (MRAM, on market since 2006). MRAMs integrate CMOS components with magnetic tunnel junctions (MTJ). The PI and his team are convinced that besides MRAMs, this hybrid CMOS/MTJ technology can yield a totally new approach in the way electronic devices are designed. Most CMOS devices such as microprocessors are based on Von Neumann architecture in which logic and memories are separate components. The unique set of characteristics combined within MTJs: cyclability, switching speed, scalability, makes it possible to conceive novel electronic systems in which logic and memory are intimately combined in non-volatile logic components (non-volatile CPU). Such systems would have outstanding advantages in terms of energy savings, logic-memory communication speed, ultrafast reprogrammability, compactness, design simplicity. The objective of this project is to lay the fundation of this novel approach, which requires addressing both fundamental and more applied issues. The basic issues concern the improvement and reliability of spintronic materials, mastering the speed and coherence of magnetization switching, developing tools for the quantitative interpretation of MTJ properties and for designing hybrid CMOS/MTJ devices. The applied goals are the conception, building and testing of a few illustrative devices demonstrating the outstanding advantages of this technology. A further one is to establish an internationally recognized roadmap for this non-volatile logic. If successful, its impact on European microelectronics and magnetism industry could be huge.