Summary
Memories are critical components for space applications. They can be separated into three types: mass, cache and program memories. The latter permanently stores a program which can be executed as a MCU boot memory or FPGA configuration non-volatile memory (NVM). In space applications, the program memory is the one which requires the highest reliability, zero error tolerance, and the highest radiation hardness as it is directly related to the system power up. On the other side, as the requirements of system performance increased, integrated circuits (IC) are more and more dense. The recent space program memory requires higher speed and density. For example, the European rad-hard FPGA BRAVE NG-Medium requires at least a 13Mb configuration. The next generations NG-large, and NG-Ultra will require 128Mb and up to 512Mb high speed, low pin-count configuration memories. Currently, for this critical memory, there is no European radiation hardened memory component available.
MNEMOSYNE project aims to develop (design and prototype) the new generation of radiation hardened high density NVM with serial interface based on most-advance and matured European commercially available 22 nm FDSOI Magnetic RAM (MRAM) technology.
Thanks to FDSOI semiconductor structure, this process naturally provides good radiation tolerance. In addition, MRAM technology is naturally SEU immune. Key innovations are:
• The first European RHBD (radiation hardened by design) space NVM with density higher than 1Mb;
• The first World Wide RHBD space NVM with density higher than 16Mb;
• The first European embedded RHBD high performance space NVM IP core on process lower than 65nm;
• The first new generation Spin-Transfer Torque (STT) MRAM for space application;
• The first RHBD applied on 22nm FDSOI on both digital and analog IPs’ for TID & SEE mitigations;
The development of a high density MRAM will reshape the whole memory chips market for space industry and beyond.
MNEMOSYNE project aims to develop (design and prototype) the new generation of radiation hardened high density NVM with serial interface based on most-advance and matured European commercially available 22 nm FDSOI Magnetic RAM (MRAM) technology.
Thanks to FDSOI semiconductor structure, this process naturally provides good radiation tolerance. In addition, MRAM technology is naturally SEU immune. Key innovations are:
• The first European RHBD (radiation hardened by design) space NVM with density higher than 1Mb;
• The first World Wide RHBD space NVM with density higher than 16Mb;
• The first European embedded RHBD high performance space NVM IP core on process lower than 65nm;
• The first new generation Spin-Transfer Torque (STT) MRAM for space application;
• The first RHBD applied on 22nm FDSOI on both digital and analog IPs’ for TID & SEE mitigations;
The development of a high density MRAM will reshape the whole memory chips market for space industry and beyond.
Unfold all
/
Fold all
More information & hyperlinks
| Web resources: | https://cordis.europa.eu/project/id/870415 |
| Start date: | 01-01-2020 |
| End date: | 31-01-2024 |
| Total budget - Public funding: | 3 038 989,00 Euro - 3 038 380,00 Euro |
Cordis data
Original description
Memories are critical components for space applications. They can be separated into three types: mass, cache and program memories. The latter permanently stores a program which can be executed as a MCU boot memory or FPGA configuration non-volatile memory (NVM). In space applications, the program memory is the one which requires the highest reliability, zero error tolerance, and the highest radiation hardness as it is directly related to the system power up. On the other side, as the requirements of system performance increased, integrated circuits (IC) are more and more dense. The recent space program memory requires higher speed and density. For example, the European rad-hard FPGA BRAVE NG-Medium requires at least a 13Mb configuration. The next generations NG-large, and NG-Ultra will require 128Mb and up to 512Mb high speed, low pin-count configuration memories. Currently, for this critical memory, there is no European radiation hardened memory component available.MNEMOSYNE project aims to develop (design and prototype) the new generation of radiation hardened high density NVM with serial interface based on most-advance and matured European commercially available 22 nm FDSOI Magnetic RAM (MRAM) technology.
Thanks to FDSOI semiconductor structure, this process naturally provides good radiation tolerance. In addition, MRAM technology is naturally SEU immune. Key innovations are:
• The first European RHBD (radiation hardened by design) space NVM with density higher than 1Mb;
• The first World Wide RHBD space NVM with density higher than 16Mb;
• The first European embedded RHBD high performance space NVM IP core on process lower than 65nm;
• The first new generation Spin-Transfer Torque (STT) MRAM for space application;
• The first RHBD applied on 22nm FDSOI on both digital and analog IPs’ for TID & SEE mitigations;
The development of a high density MRAM will reshape the whole memory chips market for space industry and beyond.
Status
SIGNEDCall topic
SPACE-10-TEC-2018-2020Update Date
27-10-2022
Images
No images available.
Geographical location(s)
Structured mapping
Unfold all
/
Fold all
H2020-EU.2.1.6.1. Enabling European competitiveness, non-dependence and innovation of the European space sector
