SystemVerilog
ToolSystemVerilog is used in the provided evidence as both a hardware implementation language and a verification language for processor-oriented projects. The evidence shows it used to implement a 5-stage pipelined MIPS processor, to build UVM testbench components, to model object-oriented verification transactions, to express constrained-random stimulus rules, and to write assertions for formal verification.
First seen 5/25/2026
Last seen 8/6/2026
Evidence 60 chunks
Wiki v2
WIKI
SystemVerilog
SystemVerilog is presented in the evidence as a language used across digital hardware design and verification. In one example repository, it is used to implement a 5-stage pipelined MIPS processor with hazard handling, alongside a UVM verification testbench containing a randomizing instruction generator, monitor, and coverage collector.[1]
Role in hardware design
NEIGHBORHOOD
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35 connectionsThe object-oriented solution is implemented using SystemVerilog classes and constraints.
The paper mentions SystemVerilog as a related system using the same constraint principles.
The paper uses SystemVerilog as the hardware verification language for the test bench.
The object-oriented verification solution is implemented using SystemVerilog.
The object-oriented verification solution uses SystemVerilog for implementation.
SystemVerilog is the language used to implement CRV with UVM.
Transactions are modeled as SystemVerilog classes with properties, constraints, and methods.
ConfigDrivenV's UVM testbench is implemented in SystemVerilog.
The RAL is a SystemVerilog application package used to automate creation of a high-level abstraction layer for memory-mapped registers.
SystemVerilog is used to implement the UVM testbench.
UVM is based on SystemVerilog libraries and standard.
OVM is based on a SystemVerilog standard similar to UVM.
The MIPS-CPU project is implemented using SystemVerilog.
The gameboyprocessor class is written in SystemVerilog using its OO class syntax.
The test bench is written in SystemVerilog.
SystemVerilog is mentioned as a design and verification language that supports constrained random test benches.
SystemVerilog implements constrained randomization functionality for digital design verification.
The CRT test bench architecture is built on SystemVerilog.
SystemVerilog employs register transfer level code to describe logic functionality.
AUX code in SystemVerilog is developed to abstract memories.
The CRT Test Bench is built on SystemVerilog as its underlying language.
SystemVerilog employs RTL code to describe logic functionality.
SystemVerilog as a language implements the interface construct for testbench-DUT connectivity.
SystemVerilog implements clocking blocks as a language construct for race-free timing control.
SystemVerilog implements modports as a language construct for enforcing direction safety in interfaces.
SystemVerilog assertions (SVA) are used in property checking on JasperGold.
SystemVerilog is a mainstay of ASIC and processor verification.
Constrained-random scenarios are described using SystemVerilog constraint syntax.
SystemVerilog assertions are used to capture ISA-specified behavior for formal verification.
The SystemVerilog random sequence generator is a language feature of SystemVerilog.
The foreach array constraint technique is a feature of SystemVerilog.
Constraint-based branch stimulus is implemented using SystemVerilog constraints and foreach constructs.
Instruction scenario generation uses SystemVerilog constraints and dynamic arrays.
The paper uses SystemVerilog for functional and constraint verification.
riscv-formal uses SystemVerilog/Verilog for instruction-level formal checks.
CITATIONS
9 sources9 citations — click to expand
[1] SystemVerilog is used to implement a 5-stage pipelined MIPS processor with hazard handling and a UVM testbench containing a randomizing instruction generator, monitor, and coverage collector. Peggy-Gits/MIPS-CPU
[2] Processor verification faces challenges including complex instruction sets, multiple pipeline stages, execution strategies, instruction parallelism, scalar/vector operations, and many corner cases; SystemVerilog random sequence generation can create random instruction sequences, and an object-oriented solution can be implemented using SystemVerilog and VMM-style base classes. Applying constrained-random verification to microprocessors
[3] SystemVerilog supports object-oriented data abstraction, class objects with properties and methods, and randomization built into an object framework; operations, instructions, and instruction scenarios can be modeled as classes. Applying constrained-random verification to microprocessors
[4] A SystemVerilog transaction class can include properties, constraints, and methods; examples include displaying an instruction in assembly syntax and packing it into binary representation. Applying constrained-random verification to microprocessors
[5] MIPS instruction rules such as slot restrictions, ERET pairing, and same-register write restrictions can be translated into SystemVerilog constraints, with separate constraint blocks allowing individual control. Applying constrained-random verification to microprocessors
[6] SystemVerilog can describe constraints on instruction scenarios using dynamic arrays of instruction objects, and foreach array constraints are useful for scenario-related constraints. Applying constrained-random verification to microprocessors
[7] Scenario generators can use constrained-random, directed-random, and directed scenarios, including constrained arithmetic sequences, preloaded memory values, and pre-assembled program traces. Applying constrained-random verification to microprocessors
[8] SystemVerilog and UVM are described as mainstays of ASIC verification; UVM is a framework for constrained-random instruction generation, but coverage can miss operand and microarchitectural combinations. RISC-V Microarchitecture Verification Approaches
[9] Formal verification can check ISA-specified behavior, usually expressed as SystemVerilog assertions. RISC-V Microarchitecture Verification Approaches