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Synopsys Memory IP

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Compare 361 IP from 6 vendors (1 - 10)
  • ARC EM9D 32-bit DSP Enhanced Processor core based on the ARCv2DSP ISA with CCM and XY Memory
    • Dual 32x16 XMAC component supports up to two 32x16 MAC operations per instructions and supports all the 32x16 & dual 16x16 MAC instructions
    • Dual XMAC built in shifters and 80-bit accumulators allow pseudo floating-point operations to be performed which greatly expanded dynamic range
    • RAM configuration optimized for efficient area and power
    • Improved system efficiency with enhanced ARM® AMBA® AXI™/AHB™ bus bridges
    Block Diagram -- ARC EM9D 32-bit DSP Enhanced Processor core based on the ARCv2DSP ISA with CCM and XY Memory
  • ARC EM11D Enhanced 32-bit processor core, ARCv2DSP ISA with Cache and XY Memory
    • Dual 32x16 XMAC component supports up to two 32x16 MAC operations per instructions and supports all the 32x16 & dual 16x16 MAC instructions
    • Dual XMAC built in shifters and 80-bit accumulators allow pseudo floating-point operations to be performed which greatly expanded dynamic range
    • RAM configuration optimized for efficient area and power
    • Improved system efficiency with enhanced ARM® AMBA® AXI™/AHB™ bus bridges
    Block Diagram -- ARC EM11D Enhanced 32-bit processor core, ARCv2DSP ISA with Cache and XY Memory
  • Inline Memory Encryption (IME) Security Module - for DDR/LPDDR
    • Data confidentiality with independent cryptographic support for read & write channels
    • Standards compliant: NIST SP800-38E, IEEE Std. 1619-2018
    • FIPS 140-3 certification support
    • Per region protection (index or address based)
    Block Diagram -- Inline Memory Encryption (IME) Security Module - for DDR/LPDDR
  • Memory management unit (MMU) option for ARC HS5x and HS6x processors
    • Dual-issue, 64-bit processors for high-performance embedded applications
    • 52-bit physical and 64-bit virtual addressing
    • Up to 5400 DMIPS and 11,088 CoreMark per core at 1.8 GHz on 16FFC (worst case conditions, single-core configuration
    • Multicore Processor versions with up to 12 CPU cores and up to 16 hardware accelerators
    Block Diagram -- Memory management unit (MMU) option for ARC HS5x and HS6x processors
  • L2 cache/cluster shared memory option for multicore versions of ARC HS5x and HS6x processors
    • Dual-issue, 64-bit processors for high-performance embedded applications
    • 52-bit physical and 64-bit virtual addressing
    • Up to 5400 DMIPS and 11,088 CoreMark per core at 1.8 GHz on 16FFC (worst case conditions, single-core configuration
    • Multicore Processor versions with up to 12 CPU cores and up to 16 hardware accelerators
    Block Diagram -- L2 cache/cluster shared memory option for multicore versions of ARC HS5x and HS6x processors
  • Performance Enhanced version of DDR Enhanced Memory Ctl (uMCTL2) supporting DDR4, DDR3, DDR2, LPDDR4, LPDDR3, and LPDDR2
    • Select a complete multi-ported Enhanced Universal DDR Memory Controller offering 1 to 16 host ports, or join a third-party scheduler to a single-port Enhanced Universal Protocol Controller
    • Support for JEDEC standard DDR2, DDR3, DDR4, LPDDR/Mobile DDR, LPDDR2, LPDDR3, and LPDDR4 SDRAMs
    • Compatible with all Synopsys DDR PHYs (excluding DDR2/DDR PHYs) using DFI-compliant interfaces
    Block Diagram -- Performance Enhanced version of DDR Enhanced Memory Ctl (uMCTL2) supporting DDR4, DDR3, DDR2, LPDDR4, LPDDR3, and LPDDR2
  • LPDDR6/5X/5 PHY V2 - TSMC N6
    • The LPDDR6/5X/5 PHY IP enables ASICs, ASSPs, system-on-chips (SoCs), and system-in-package applications requiring high-performance LPDDR6, LPDDR5X, and/or LPDDR5 SDRAM interfaces operating at up to 14.4 Gbps
    • With flexible configuration options, the LPDDR6/5X/5 PHY IP can be used in a variety of applications supporting LPDDR6, LPDDR5X, and/or LPDDR5 SDRAMs, precisely targeting the specific power, performance, and area (PPA) requirements of these systems
    • LPDDR6 SDRAM’s combination of high bandwidth, capacity, low power, and cost effectiveness makes LPDDR6/5X/5 SDRAMs an attractive solution for traditional and new markets
    • The LPDDR6/5X/5 PHY IP is designed to appeal to a variety of applications including: * Traditional mobile environments * Consumer products * Automotive solutions * Artificial intelligence * Data center applications
    Block Diagram -- LPDDR6/5X/5 PHY V2 - TSMC N6
  • LPDDR6/5X/5 PHY V2 - TSMC N5A for Automotive, ASIL B Random, AEC-Q100 Grade 2
    • The LPDDR6/5X/5 PHY IP enables ASICs, ASSPs, system-on-chips (SoCs), and system-in-package applications requiring high-performance LPDDR6, LPDDR5X, and/or LPDDR5 SDRAM interfaces operating at up to 14.4 Gbps
    • With flexible configuration options, the LPDDR6/5X/5 PHY IP can be used in a variety of applications supporting LPDDR6, LPDDR5X, and/or LPDDR5 SDRAMs, precisely targeting the specific power, performance, and area (PPA) requirements of these systems
    • LPDDR6 SDRAM’s combination of high bandwidth, capacity, low power, and cost effectiveness makes LPDDR6/5X/5 SDRAMs an attractive solution for traditional and new markets
    • The LPDDR6/5X/5 PHY IP is designed to appeal to a variety of applications including: * Traditional mobile environments * Consumer products * Automotive solutions * Artificial intelligence * Data center applications
    Block Diagram -- LPDDR6/5X/5 PHY V2 - TSMC N5A for Automotive, ASIL B Random, AEC-Q100 Grade 2
  • LPDDR6/5X/5 PHY V2 - TSMC N5
    • The LPDDR6/5X/5 PHY IP enables ASICs, ASSPs, system-on-chips (SoCs), and system-in-package applications requiring high-performance LPDDR6, LPDDR5X, and/or LPDDR5 SDRAM interfaces operating at up to 14.4 Gbps
    • With flexible configuration options, the LPDDR6/5X/5 PHY IP can be used in a variety of applications supporting LPDDR6, LPDDR5X, and/or LPDDR5 SDRAMs, precisely targeting the specific power, performance, and area (PPA) requirements of these systems
    • LPDDR6 SDRAM’s combination of high bandwidth, capacity, low power, and cost effectiveness makes LPDDR6/5X/5 SDRAMs an attractive solution for traditional and new markets
    • The LPDDR6/5X/5 PHY IP is designed to appeal to a variety of applications including: * Traditional mobile environments * Consumer products * Automotive solutions * Artificial intelligence * Data center applications
    Block Diagram -- LPDDR6/5X/5 PHY V2 - TSMC N5
  • LPDDR6/5X/5 PHY V2 - TSMC N4P
    • The LPDDR6/5X/5 PHY IP enables ASICs, ASSPs, system-on-chips (SoCs), and system-in-package applications requiring high-performance LPDDR6, LPDDR5X, and/or LPDDR5 SDRAM interfaces operating at up to 14.4 Gbps
    • With flexible configuration options, the LPDDR6/5X/5 PHY IP can be used in a variety of applications supporting LPDDR6, LPDDR5X, and/or LPDDR5 SDRAMs, precisely targeting the specific power, performance, and area (PPA) requirements of these systems
    • LPDDR6 SDRAM’s combination of high bandwidth, capacity, low power, and cost effectiveness makes LPDDR6/5X/5 SDRAMs an attractive solution for traditional and new markets
    • The LPDDR6/5X/5 PHY IP is designed to appeal to a variety of applications including: * Traditional mobile environments * Consumer products * Automotive solutions * Artificial intelligence * Data center applications
    Block Diagram -- LPDDR6/5X/5 PHY V2 - TSMC N4P
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