Low Latency DRAM Synthesizable Transactor

Overview

Low Latency DRAM Synthesizable Transactor provides a smart way to verify the Low Latency DRAM component of a SOC or a ASIC in Emulator or FPGA platform. The SmartDV's Low Latency DRAM Synthesizable Transactor is fully compliant with standard Low Latency DRAM Specification and provides the following features.

Key Features

  • Supports 100% of Low Latency DRAM protocol standard Low Latency DRAM specifications
  • Supports 8 internal banks
  • Supports all mode registers programming
  • Supports programmable read latency and row cycle time
  • Supports address multiplexing
  • Supports all the Low Latency DRAM commands as per the specs
  • Supports programmable burst lengths
  • Supports data mask for write commands
  • Checks for following:
    • Check-points include power on, initialization and power off rules
    • State based rules, active command rules
    • Read/Write command rules etc
    • All timing violations
  • Supports power down features
  • Supports self refresh features
  • Supports DLL
  • Supports ODT (on-die termination)
  • Supports all types of timing and protocol violation detection
  • Protocol checker fully compliant with Low Latency DRAM specification
  • Models, detects and notifies the test bench of significant events such as transactions, warnings, timing and protocol violations

Benefits

  • Compatible with testbench writing using SmartDV's VIP
  • All UVM sequences/testcases written with VIP can be reused
  • Runs in every major emulators environment
  • Runs in custom FPGA platforms

Block Diagram

Low Latency DRAM Synthesizable Transactor
 Block Diagram

Deliverables

  • Synthesizable transactors
  • Complete regression suite containing all the Low Latency DRAM testcases
  • Examples showing how to connect various components, and usage of Synthesizable Transactor
  • Detailed documentation of all DPI, class, task and function's used in verification env
  • Documentation contains User's Guide and Release notes

Technical Specifications

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Semiconductor IP