eFPGA IP Cores v5

Overview

These eFPGAs are high-density embedded programmable logic IPs for use in SoCs or ASICs. They are designed to address various markets and applications. The eFPGA IP cores empower designers to define the specific resources required for their applications needs.

Available as Soft RTL or Hard GDSII IP.

Menta is committed to maximizing process portability, so our eFPGAs have been silicon-proven on more technology nodes than any other eFPGA vendor. Menta supports any CMOS foundry and node from 350nm to 5nm or less. To date, Menta eFPGAs have been successfully manufactured on technologies as diverse as: STM130, STM65, TSMC 28HPC+, TSMC 12FFC and GLOBALFOUNDRIES 12LP. Menta eFPGAs are qualified on GLOBALFOUNDRIES® 32 SOI and 14LPP. Menta is also a 22 FDXcelerator Partner. Menta IPs are currently being delivered on XFAB 180nm, STM28 FDSOI and others.

Key Features

  • Secrets protection: With Menta eFPGA you can wait to deliver your most proprietary technology to end-customers as a field-upgrade, minimizing any opportunity for competitors to reverse engineer your product.
  • Costs reduction: At higher production volumes, onboard FPGAs quickly become cost prohibitive. With Menta eFPGA you integrate on-board FPGA functionality on-chip, saving manufacturing costs and board-space, while fully maintaining field-upgradability.
  • Higher performance: With Menta eFPGA, sacrifices in board-space, I/O latency, and bandwidth disappear, as you bring those accelerators on-chip, without the limitations/overhead due I/O padcount or chip-to-chip communication interfaces.
  • Lower power consumption: In a COT FPGA, all the extra to the programmable logic, such as high-speed interfaces, PLL, and controllers consume around half of the power. All our power saving advances lead an algorithm on a Menta eFPGA IP to consume between 10 and 50% of the power of the same algorithm on a FPGA.
  • Design insurance: Maximizing flexibility requires maximizing process-portability. Menta eFPGA is the only 100% standard-cell based solution and this approach enables rapidly porting your eFPGA to whatever new process geometry/variant you desire, using the same automated, standard EDA flow as for the rest of your SoC. Menta, using our industry gold-standard Synopsys-based implementation flow, enables portability within just weeks.
  • Security: In today’s global, multi-player design-chain, preserving IP/trade secrets is more critical and challenging than ever. With Menta eFPGA you can wait to deliver your most proprietary technology to end-customers as a field-upgrade, minimizing any opportunity for competitors to reverse engineer your product.

Benefits

  • Unparalleled process-portability: Menta eFPGA is the only 100% standard-cell based solution. Menta’s standard-cell based approach enables rapidly porting your eFPGA to whatever new process geometry/variant you desire, using the same automated, standard EDA flow as for the rest of your SoC.
  • Design Adaptive: Menta allows customers to specify the number of embedded Logic blocks (eLBs), number/type of DSPs, RAMs, number/type of interconnects, as well as different power-saving features. Menta offers designers a variety of DSP-arithmetic logic blocks to incorporate within its eFPGAs, and continued to expansion based on customer requirements.
  • Easy to integrate: Menta designed its eFPGA so that it can be verified at various levels: using formal verification for mapped applications, system simulation with SDF timing information, and even gate-level simulation post place-and-route. Bitstream loading can be simulated and verified as well. We call it Trusted eFPGA.
  • Cost: At higher production volumes, on-board FPGAs quickly become cost-prohibitive. With Menta eFPGA you integrate on-board FPGA functionality on-chip, saving manufacturing costs and board-space, while fully maintaining field-upgradability. Similarly, if your company in the past has relied on SoCs, Menta eFPGA enables you to minimize the number of chip-variants, time-to-market, and dynamically adapt to evolving standards.
  • Robustness: At Menta, we believe that different problems require different solutions. Therefore, our customers can define the exact resources required for their application.
  • Programming Software: Menta created this specially “targeted” programming software-tool to generate the bitstream that targets/optimizes your RTL specifically to the Menta eFPGA architecture. Menta does not rely on 3rd party software tools which target “generic” FPGA architectures, thus delivering suboptimal results. Menta’s independent software development frees Origami Programmer from any export-control and patent litigation issues.

Block Diagram

eFPGA IP Cores v5 Block Diagram

Technical Specifications

Foundry, Node
Any CMOS process
Maturity
Delivered on 10+ processes at 4 foundries
Availability
Today
GLOBALFOUNDRIES
In Production: 14nm LPP
Pre-Silicon: 12nm , 14nm , 14nm LPE , 14nm LPP , 20nm LPM , 22nm , 22nm FDX , 28nm , 28nm FDSOI , 28nm HPP , 28nm LPH , 28nm SLP , 32nm , 40nm LP , 55nm , 55nm LPX , 65nm , 65nm LP , 65nm LPe , 90nm , 90nm LP , 130nm , 130nm HP , 130nm LP , 130nm LV , 180nm , 180nm LL , 180nm LL , 180nm LP , 180nm LP , 250nm , 250nm LPE , 350nm
Silicon Proven: 14nm LPP , 32nm
LFoundry
Pre-Silicon: 150nm , 350nm
Renesas
Pre-Silicon: 40nm , 55nm , 90nm , 150nm
SMIC
Pre-Silicon: 14nm , 28nm , 28nm HK , 28nm HKC+ , 28nm PS , 40nm LL , 55nm G , 55nm LL , 65nm LL , 90nm G , 90nm LL , 110nm G , 130nm EEPROM , 130nm G , 130nm LL , 130nm LV , 150nm G , 150nm LV , 160nm G , 160nm LL , 180nm EEPROM , 180nm G , 180nm LL , 250nm G
Samsung
Pre-Silicon: 7nm , 8nm , 10nm , 14nm , 28nm FDS , 28nm LPH , 28nm LPP , 32nm LP , 45nm LP , 65nm LP , 90nm LP
Silterra
Pre-Silicon: 90nm , 130nm , 180nm
TSMC
Pre-Silicon: 7nm , 12nm , 16nm , 28nm HPM
Silicon Proven: 28nm HPCP
Tower
Pre-Silicon: 130nm , 180nm , 180nm , 180nm , 500nm
UMC
Pre-Silicon: 14nm , 28nm , 28nm HLP , 28nm HPC , 28nm HPM , 28nm LP , 40nm , 40nm LP , 55nm , 65nm LL , 65nm LP , 65nm SP , 80nm , 90nm G , 90nm LL , 90nm SP , 110nm , 130nm , 150nm , 162nm , 180nm , 250nm , 350nm
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Semiconductor IP