Next-generation electronics
Controlsistor
The Controlsistor is a new generation of switching devices designed to succeed current transistor technologies. It enables switching speeds that can reach or exceed three times those of optimized FinFET and GAAFET architectures, while reducing energy consumption, heat generation, and manufacturing costs. The Controlsistor thus paves the way for a new generation of semiconductor devices that are faster, more efficient, and more cost-effective.
XRAM
XRAM is a next-generation non-volatile memory. Designed to overcome the limitations of traditional memories such as DRAM or Flash, it stands out through extremely low energy consumption and very high read and write speeds.
By comparison, XRAM is up to 30 times faster than current cache memories, approximately 1,500 times faster than DRAM, and more than 100,000 times faster than NAND Flash memory.
It guarantees endurance greater than 1012 cycles as well as data retention of more than 10 years without power. Compatible with existing manufacturing processes, XRAM supports 3D integration, significantly increasing storage density.
KRYNIC
KRYNIC is a next-generation electronic chip architecture designed to push the limits of current systems. It delivers high computing power while reducing energy consumption by up to 50% during intensive use.
On smartphones, it enables speeds up to 30 times faster while extending battery life.
On computers and servers, it enables accelerations of up to 250 times for artificial intelligence and large-scale data analysis.
For graphics cards, this architecture enables performance gains of 10 to 15 times in 3D rendering and artificial intelligence applications while improving energy efficiency.
Advanced Lithography Machine
The advanced lithography machine surpasses EUV photolithography by offering resolutions down to 2 nanometers, with a yield between 85% and 95%. Its average energy consumption is around 30 kilowatts for a complete line, compared with nearly one megawatt for current EUV systems.
This system costs nearly one hundred times less to produce and maintain than an EUV machine, while contributing to improved chip performance and lower manufacturing costs.