X-FAB Silicon Foundries
1020 Mw X Fab And Attopsemi I Fuse On Rf Soi Promo

OTP Memory IP Is Qualified on X-FAB’s 130-nm RF-SOI Process

Oct. 7, 2020
Attopsemi’s I-fuse one-time-programmable technology, combined with X-FAB’s RF-optimized process technology, aims to satisfy the memory requirements of 5G technology.

With an eye toward integrating digital content with analog trimming or data storage in next-generation 5G New Radio deployments, X-FAB Silicon Foundries has joined forces with Attopsemi to qualify the latter’s I-fuse one-time-programmable (OTP) IP on X-FAB’s XR013 130-nm RF-SOI process. As a result, designers can now incorporate a compact, robust OTP block into the core XR013 technology module, but without any additional or custom processing. With read operation possible at both 2.5 V and 1.8 V for MIPI compatibility, the collaboration satisfies the memory requirements of 5G technology.

X-FAB’s XR013 is an open-platform, 130-nm technology that’s optimized for RF applications including cellular infrastructure, Wi-Fi connectivity, automotive V2X communications, IoT, and more. A key benefit of using Attopsemi’s I-fuse OTP memory on the XR013 RF platform is the flexibility with which RF products can address different regional market requirements via a single chip design (as different configurations can be stored). This will lead to project development cost savings, as well as facilitating inventory management.

Attopsemi’s I-fuse, a fuse-based OTP technology, is said to be far more reliable with much smaller cell size and programming current than typical electrical-fuse technology. It limits programming current below a catastrophic breaking point as opposed to breaking a fuse, and uses a junction diode instead of MOS as a program selector in an OTP cell.

The qualified Attopsemi I-fuse OTP solution is available for clients from X-FAB’s customer portal.

X-FAB Silicon Foundries, www.xfab.com

Sponsored Recommendations

In-Circuit Antenna Verification

April 19, 2024
In this video, Brian Walker, Senior RF Design Engineer at Copper Mountain Technologies, shows how there can be significant variation of the performance of a PCB-mounted antenna...

UHF to mmWave Cavity Filter Solutions

April 12, 2024
Cavity filters achieve much higher Q, steeper rejection skirts, and higher power handling than other filter technologies, such as ceramic resonator filters, and are utilized where...

Wideband MMIC Variable Gain Amplifier

April 12, 2024
The PVGA-273+ low noise, variable gain MMIC amplifier features an NF of 2.6 dB, 13.9 dB gain, +15 dBm P1dB, and +29 dBm OIP3. This VGA affords a gain control range of 30 dB with...

Fast-Switching GaAs Switches Are a High-Performance, Low-Cost Alternative to SOI

April 12, 2024
While many MMIC switch designs have gravitated toward Silicon-on-Insulator (SOI) technology due to its ability to achieve fast switching, high power handling and wide bandwidths...