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System Design Engineering

Model the SoC
Before You
Build It.

Silicon Patterns creates high-fidelity SystemC Digital Twins of your SoC — enabling parallel software development, risk-free validation, and faster time-to-market before a single gate is synthesized.

Faster SW Bring-up
60%
Risk Reduction
0
Respin Cost
REAL SoC RTL · Physical GDS · Tape-out DIGITAL TWIN SystemC · TLM 2.0 CPU Core GPU Accel MEM Subsys I/O Fabric NoC Interconnect ↕ SYNCHRONIZED
What We Deliver

Build the Virtual SoC First — Then Go Silicon

Our SystemC Digital Twin methodology creates a cycle-approximate or transaction-accurate virtual model of your SoC. Software teams start development months earlier. Hardware risks are caught before tape-out. The result: fewer respins, lower cost, and faster market entry.

SystemC TLM 2.0 models for CPU, memory, DMA, peripherals, and custom IPs
Virtual Platform (VP) delivery for early software bring-up and OS boot
Cycle-approximate performance modeling for bandwidth and latency analysis
Power modeling and thermal analysis at the system level
Digital twin-to-RTL consistency verification
Silicon IP portfolio: RTL, Analog, and Verification IPs ready to integrate
Modeling Levels
TLM (Transaction Level)
Fastest simulation, ideal for early SW bring-up and architecture exploration
Cycle-Approximate
Performance modeling, cache simulation, DMA timing validation
Pin-Accurate
Pre-silicon validation, driver verification, interrupt testing
Traditional Approach
SW team waits for silicon — 12+ months delay
Design bugs found late — expensive respins
Architecture validated only after RTL is complete
Power budgets estimated, not simulated
Parallel development impossible without hardware
With Digital Twin
SW development starts day 1 — parallel to HW
Architecture bugs caught before any RTL is written
Performance modeled and validated in weeks
Power simulated at system level before tapeout
Eliminates or minimizes silicon respins
Core Services

Full System Design Engineering Portfolio

SystemC / TLM 2.0 Modeling

Full SoC virtual platform development in SystemC with TLM 2.0 sockets — CPU cores, bus fabric, memory controllers, DMA, and peripherals.

SystemCTLM 2.0Virtual Platform

Performance Modeling

Cycle-approximate performance simulation — bandwidth analysis, latency profiling, memory bottleneck identification, and architecture trade-off exploration.

Perf AnalysisBW ModelingLatency

SoC Architecture Design

Chip-level architecture exploration, IP selection, interface definition, clock/reset topology, power domain planning, and die-size estimation.

ArchitectureIP SelectionPower Domains

Silicon IP Portfolio

Access to Silicon Patterns' library of proven RTL, Analog, and Verification IPs — PCIe, DDR, USB, Ethernet, DSP, and more — production-ready.

PCIeDDRUSBEthernet

Power Architecture

System-level power modeling, DVFS planning, power domain isolation strategies, and leakage analysis before committing to RTL implementation.

DVFSPower DomainsLeakage

Emulation & Prototyping

FPGA-based SoC prototyping, Veloce/Palladium emulation setup, and hardware/software co-validation for pre-silicon confidence.

VeloceFPGA ProtoPalladium
Our Process

From Spec to Virtual SoC in Weeks

01

Spec Ingestion

Review hardware specification, identify key performance indicators, power targets, and SW requirements that the digital twin must model.

02

Architecture & Model Plan

Define TLM abstraction level, block list, interface contracts, and simulation infrastructure — aligned with your project timeline and goals.

03

Digital Twin Build

Develop SystemC models block by block, integrate into a virtual platform, and validate against reference models or existing silicon data.

04

SW Handoff & Maintenance

Deliver the virtual platform to your SW team, provide integration support, and maintain model accuracy as the hardware design evolves.

Ready to Start?

Build Faster, Smarter Silicon with Digital Twins

Let us model your SoC in SystemC — so your software team never waits for hardware again.