Introduction
Introduction Get started Hello UVM example UVM Phases Part 1 UVM Phases Part 2 UVM Base Classes UVM Object and Core Methods UVM ComponentsBuilding a Testbench
UVM Transaction UVM Sequence UVM Sequencer UVM Driver UVM Monitor UVM Scoreboard UVM Agent UVM Environment UVM TestOther Components
Coverage CollectorExecution Model
UVM Phases ObjectionsCommunication
TLM Basics TLM Blocking Put Port TLM Non-Blocking Put Port TLM Blocking Peek Port Analysis Ports TLM FIFOConfiguration
UVM Factory UVM Config DBRuntime Control
UVM Plusargs Seeds & Reproducibility Verbosity Control Debug Runtime ControlsAdvanced
Virtual Sequences Virtual SequencerUVM RAL
Intro Abstraction Flexibility Comparison Coverage Minimum Requirements Learning Path Register Types First Implementation Register with 2 Fields Register with Reserved Bits Access Policies Part 1 Access Policies Part 2 Access Policies Part 3 Access Policies Part 4 Memory Modeling Register Block Adapter Introduction Adapter Methods Adapter Example Predictor Types Desired and Mirror Values Register Methods Desired Value Mirror ValueUVMArena
Introduction
Introduction Get started Hello UVM example UVM Phases Part 1 UVM Phases Part 2 UVM Base Classes UVM Object and Core Methods UVM ComponentsBuilding a Testbench
UVM Transaction UVM Sequence UVM Sequencer UVM Driver UVM Monitor UVM Scoreboard UVM Agent UVM Environment UVM TestOther Components
Coverage CollectorExecution Model
UVM Phases ObjectionsCommunication
TLM Basics TLM Blocking Put Port TLM Non-Blocking Put Port TLM Blocking Peek Port Analysis Ports TLM FIFOConfiguration
UVM Factory UVM Config DBRuntime Control
UVM Plusargs Seeds & Reproducibility Verbosity Control Debug Runtime ControlsAdvanced
Virtual Sequences Virtual SequencerUVM RAL
Intro Abstraction Flexibility Comparison Coverage Minimum Requirements Learning Path Register Types First Implementation Register with 2 Fields Register with Reserved Bits Access Policies Part 1 Access Policies Part 2 Access Policies Part 3 Access Policies Part 4 Memory Modeling Register Block Adapter Introduction Adapter Methods Adapter Example Predictor Types Desired and Mirror Values Register Methods Desired Value Mirror ValueUVM Getting Started
Learn how to start using UVM without installing tools by using EDA Playground, an online SystemVerilog simulation environment.
Get Started With UVM
At UVMArena, you can start learning UVM without installing any tools on your computer.
In this tutorial, we will use EDA Playground, an online simulation environment that allows you to write and run SystemVerilog and UVM code directly from your browser.
This allows you to focus on learning verification concepts instead of spending time configuring tools.
What is EDA Playground?
EDA Playground is an online platform designed for learning and experimenting with hardware description languages and verification methodologies.
It supports:
- SystemVerilog
- UVM
- Verilog
- VHDL
EDA Playground provides access to industry simulators through a web interface, allowing users to compile and run simulations without local installation.
Why We Use EDA Playground
UVM environments normally require simulator installation, environment configuration, and license setup. These steps can be difficult for beginners.
EDA Playground removes this complexity and allows you to:
- Write code immediately
- Run simulations instantly
- Share examples easily
- Focus on learning UVM concepts
Industry Tools Used for UVM
In professional verification environments, engineers typically use commercial simulators such as:
- Siemens QuestaSim / Questa
- Synopsys VCS
- Cadence Xcelium
The concepts you learn in UVMArena using EDA Playground are directly transferable to these industry tools.
First Step: Open EDA Playground
Go to the EDA Playground website and create a free account.
After logging in:
- Select SystemVerilog / UVM
- Choose a simulator
- Enable the UVM library
- Write your code in the editor
- Click Run
Your First UVM Test
▶ Run Hello UVM on EDAPlaygroundOr copy the following code into EDA Playground. This is the smallest possible UVM test. Its purpose is simply to verify that UVM is running correctly.
`include "uvm_macros.svh"
import uvm_pkg::*;
class hello_test extends uvm_test;
`uvm_component_utils(hello_test)
function new(string name = "hello_test", uvm_component parent = null);
super.new(name, parent);
endfunction
task run_phase(uvm_phase phase);
phase.raise_objection(this);
`uvm_info("HELLO", "Hello from UVM!", UVM_MEDIUM)
phase.drop_objection(this);
endtask
endclass
module tb;
initial begin
run_test("hello_test");
end
endmodule
Expected Result
After clicking Run, you should see a message similar to:
UVM_INFO @ 0: reporter [HELLO] Hello from UVM!
What Just Happened?
- A UVM test was created.
- UVM started execution using
run_test(). - The test printed a message to the simulator log.
- You successfully ran your first UVM simulation.