PCIe 4.0 Serdes PHY IP Silicon Proven in TSMC 7nm
The high-bandwidth applications benefit from the low power, multi-lane, and high-performance PCIe 4.0 PHY IP's design.
- TSMC
- 7nm
- N7+
- In Production
PCIe 4.0 Serdes PHY IP Silicon Proven in TSMC 7nm
The high-bandwidth applications benefit from the low power, multi-lane, and high-performance PCIe 4.0 PHY IP's design.
PCIe 5.0 Serdes PHY IP, Silicon Proven in TSMC 16FFC
For high-bandwidth applications, the PCIe 5.0 PHY IP offers excellent performance, multi-lane capabilities, and low power design.
LPDDR4/ DDR4/ DDR3L PHY IP - 1866Mbps (Silicon Proven in TSMC 28HPC+)
The LPDDR4/ DDR4/ DDR3L Combo PHY IP offers low latency and supports throughput of up to 1866Mbps.
Embedded OTP (One-Time Programmable) IP, 8x32 bits for 1.2V/2.5V LP
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx8 bits for 1.2V/6V/32V HV
eMemory's NeoBit OTP (One-Time Programmable) IP can be implemented seamlessly in various CMOS technologies such as logic, mixed-m…
Embedded OTP (One-Time Programmable) IP, 8Kx8 bits for 1.2V/5V/32V HV
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx8 bits for 1.1V/8V/25V HV
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx8 bits for 1.1V/8V/25V HV
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx8 bits for 1.1V/8V/25V HV
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx8 bits for 1.1V/6V/32V HV
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx8 bits for 1.1V/6V/32V HV
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx32 bits for 0.9V/2.5V ULP
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx32 bits for 0.9V/2.5V ULP
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx32 bits for 0.9V/2.5V ULP
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx32 bits for 0.9V/2.5V ULP
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx32 bits for 0.9V/2.5V ULP
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx32 bits for 0.9V/2.5V ULP
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx32 bits for 0.9V/2.5V eFlash_ULP
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx32 bits for 0.9V/1.8V RF_HPC_PLUS_ULL
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.
Embedded OTP (One-Time Programmable) IP, 8Kx32 bits for 0.9V/1.8V HPC_PLUS
NeoFuse is a small-form factor logic NVM technology with the advantages of working on low power and being reliable and secure.