Embedded Memories IP

Embedded Memories IP csupport various types of memory, including SRAM, ROM, and Flash, offering fast data access, low latency, and low power consumption for embedded systems.

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Compare 849 Embedded Memories IP from 40 vendors (1 - 10)
  • ReRAM NVM in DB HiTek 130nm BCD
    • 10K cycles endurance
    • >10 years retention at 125°C
    • Ultra-low power consumption
    • Low-cost NVM – requires only two additional masks
    Block Diagram -- ReRAM NVM in DB HiTek 130nm BCD
  • ReRAM NVM in SkyWater 130nm
    • Weebit Resistive RAM (ReRAM) is a new type of Non-Volatile Memory (NVM) that is designed to be the successor to flash memory.
    • Weebit ReRAM IP can provide a high level of differentiation for System-on-Chip (SoC) designs, with performance, power, cost, security, environmental, and a range of additional advantages compared to flash and other NVMs.
    • Weebit’s first ReRAM IP product is available now in SkyWater Technology’s 130nm CMOS process (S130). The technology is fully qualified, available for integration in SkyWater’s users’ SoCs, and ready for production.
    Block Diagram -- ReRAM NVM in SkyWater 130nm
  • MRAM Synthesizable Transactor
    • Supports all the MRAM commands as per the MR2A16A and MR0A08B specifications.
    • Supports Symmetrical high-speed read and write with fast access time.
    • Supports SRAM Compatible timing
    • Supports native non-volatility
    Block Diagram -- MRAM Synthesizable Transactor
  • Single Port High-Speed Multi Bank SRAM Memory Compiler on GF 22FDX+
    • Ultra-Low Leakage - GLOBALFOUNDRIES low-leakage 6T L110 bit cells with High Vt and low leakage periphery to ensure minimal leakage and high yield.  
    • Multi-Bank Architecture - Memory split into 1 to 4 banks for reduced bit line length and enhanced timing. 
    • Ultra Low Power Standby - Built-in source biasing trims standby current to a minimum for data retention. 
    Block Diagram -- Single Port High-Speed Multi Bank SRAM Memory Compiler on GF 22FDX+
  • Dual Port Register File Compiler (1 Read-only port, 1 Write-only port) - GF 22FDX+
    • Uses 8T-TP185SL bit cells. 
    • Isolated Supplies: Periphery and array power domains can be independently powered down in standby mode. 
    • Deep Sleep Standby Mode: Memory retains data at minimal power via internal biasing. 
    Block Diagram -- Dual Port Register File Compiler (1 Read-only port, 1 Write-only port)  - GF 22FDX+
  • High Speed Single Port Compiler on TSMC 40nm ULP
    • Low voltage
    • Ultra low power data retention
    • Self biasing
    • Soft error immunity
    Block Diagram -- High Speed Single Port Compiler on TSMC 40nm ULP
  • Single Port Register File Compiler on N22ULL
    • Ultra-Low Leakage: High VT (HVT) are used to minimize leakage performance. 
    • Bit Cell: Utilizes Foundry’s 6T bit cells to ensure high manufacturing yields 
    • Deep Sleep Mode Retains data a minimal power consumption.   Dedicated standby mode reduces power required to an absolute minimum to retain the memory contents.  
    Block Diagram -- Single Port Register File Compiler on N22ULL
  • Single Port High Speed SRAM Memory Compiler on N22ULL
    • Ultra low power data retention. Memory instances generated by the Bulk 22ULL go into a deep sleep mode that retains data at minimal power consumption.
    • Self biasing. The SP SRAM 22ULL internal self-biasing capabilities provide ease of IP integration.
    • High yield. To ensure high manufacturing yield, bulk 22ULL uses low leakage 6T (0.110µ2) bit cells and is consistent with Design for Manufacturing (DFM) guidelines for the Bulk 22ULL process.
    • High usability. All signal and power pins are available on metal 4 while maintaining routing porosity in metal 4. Power pins can optionally be made available on metal 5 to simplify the power connections at the chip level.
    Block Diagram -- Single Port High Speed SRAM Memory Compiler on N22ULL
  • Single Port Low Voltage SRAM Memory Compiler on N22ULL - Low Power Retention and Column Repair
    • Ultra-Low Leakage: High VT (HVT) are used to minimize leakage performance 
    • Bit Cell: Utilizes Low Leakage 6T bit cells to ensure high manufacturing yields 
    • Ultra Low Power Standby: Internally generated bias voltage for low leakage data retention 
    • Isolated Array and Periphery supplies: Periphery voltage can be shut off to further reduce standby power 
    Block Diagram -- Single Port Low Voltage SRAM Memory Compiler on N22ULL - Low Power Retention and Column Repair
  • Single Port Low Voltage SRAM Memory Compiler on N22ULL
    • Ultra-Low Leakage: High VT (HVT) are used to minimize leakage performance 
    • Bit Cell: Utilizes Low Leakage 6T bit cells to ensure high manufacturing yields 
    • Ultra Low Power Standby: Internally generated bias voltage for low leakage data retention 
    Block Diagram -- Single Port Low Voltage SRAM Memory Compiler on N22ULL
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