SBIR-STTR Award

64MB+ Radiation-Hardened, Non-Volatile Memory for Space
Award last edited on: 1/9/2015

Sponsored Program
SBIR
Awarding Agency
DOD : AF
Total Award Amount
$899,595
Award Phase
2
Solicitation Topic Code
AF141-250
Principal Investigator
Robert Patti

Company Information

Tezzaron Semiconductor Corporation

1415 Bond Street Suite 111
Naperville, IL 60563
   (630) 505-0404
   info@tezzaron.com
   www.tezzaron.com
Location: Multiple
Congr. District: 06
County: DuPage

Phase I

Contract Number: ----------
Start Date: ----    Completed: ----
Phase I year
2014
Phase I Amount
$149,757
ReRAM has made significant progress over the last few years and is ready for development by early adopters. Tezzaron proposes to create a multilayer 3D assembled ReRAM memory device using Rambus ReRAM technology and Honeywell RH wafers. The phase II target device will be radiation hardened, low power, non-volatile and have a density in excess of 512Mbits.

Benefit:
A ReRAM device offers great advantages over other current non-volatile radiation hardened devices. The ReRAM has fast read and write with low power. The low write currents scale with technology making the ReRAM a viable choice for current and future semiconductor technology nodes. The ReRAM memory cell is virtually unaffected by radiation making it a good choice for space applications. These same attributes also make the targeted device valuable for a large number of applications in aviation and automotive fields.

Keywords:
ReRAM, RRAM, memory,

Phase II

Contract Number: ----------
Start Date: ----    Completed: ----
Phase II year
2015
Phase II Amount
$749,838
In Phase II Tezzaron will design a 2 layer 8Mb ReRAM (RRAM) memory device, extendable to 17 layers or 128Gb as a test chip or 1Gb as a final device. The first layer of the design is a controller layer with power control, drivers, user interface circuitry (i.e. peripheral circuitry), and sense amplifiers. The second layer of the design holds the memory cells and minimal circuitry to allow signal multiplexing of the through silicon vias (TSVs) that vertically connect the stack. This memory cell layer can be stacked serially, up to 16 memory cell layers, to yield a 17 layer device. Each memory cell layer will have 8Mb of user memory, exclusive of the built-in error detection and correction coding and the redundant memory bits. The interface will support the Honeywell x8 and x16 memory interface, the FPGA download mode interface, and a DDR2 DRAM compatible interface.

Benefit:
The benefits of this program will include the availability of resistive memory for harsh environments as well as making a non-volatile ReRAM process technology add-on (split-fab) generally available to commercial entities. ReRAM technology is generally considered to be the best technology to succeed Flash memory. The higher performance and greater endurance will also alter most future computer designs by providing a new storage class memory that has SSD like density with near DRAM access speed. This will revolutionize machine architecture and reduce compute power requirements. The split-fab option will permit semiconductor foundry customers to add ReRAM non-volatile memory to their devices as a 3rd party post fabrication process not effecting the original primary foundry processes. As most leading edge foundry processes don't offer a reprogrammable non-volatile memory option, this will make possible new hardware with higher density, lower power and much improved security.