Architecture
Product & System Architecture
Translate workloads, interfaces, operating conditions, and commercial goals into a structured semiconductor product architecture.
Semiconductor & VLSI
Silicon engineering shaped by product requirements and verified design intent.
Lumentix supports semiconductor products from system architecture and digital design through RTL verification, implementation readiness, and embedded integration.
Design quality begins before RTL.
Clear requirements, interfaces, constraints, and verification intent create a stronger path to implementation.
RTL
synthesizable digital design
UVM
structured verification
PPA
performance, power, area
Edge
hardware-software integration
Engineering capabilities
A connected VLSI path from architecture to implementation readiness.
Engage a focused design or verification capability, or coordinate the full digital engineering flow around one product objective.
Design
Digital Microarchitecture
Partition functions into practical pipelines, control paths, memory structures, and reusable subsystems.
RTL
RTL & IP Development
Create synthesizable digital logic and integration-ready IP with clear interfaces, constraints, and design intent.
Verify
Functional Verification
Build verification plans, test environments, assertions, regressions, and coverage evidence around design risk.
PPA
Synthesis & Timing Readiness
Prepare constraints and analyze implementation feedback to improve frequency, area, power, and timing feasibility.
Integrate
Embedded & Edge Integration
Connect silicon capabilities with firmware, device interfaces, edge AI workloads, and system-level validation.
Business outcome
Connect intelligent software, automated workflows, embedded systems, and silicon implementation.
Architecture discipline
Connect workload behavior to compute, memory, interfaces, and implementation constraints.
Lumentix frames semiconductor design decisions in the context of the complete product, including embedded software and edge AI deployment.
Define measurable latency, throughput, power, area, and reliability targets.
Partition functions across processors, accelerators, memory, firmware, and RTL.
Specify interfaces and data movement before integration risk expands.
Use verification and implementation feedback to refine architecture decisions.
Business outcome
Verified design intent with a credible path to physical implementation.
Silicon workflow
Treat design, verification, and implementation as one evidence-driven loop.
Requirements guide microarchitecture, RTL expresses the design intent, verification measures confidence, and implementation feedback keeps the product feasible.
Interface and register specifications aligned across teams.
Reusable RTL with explicit clock, reset, and constraint assumptions.
Verification plans tied to features, risks, assertions, and coverage.
Synthesis, timing, power, and area feedback incorporated before handoff.
Engineering flow
Four connected stages keep the semiconductor program moving with clarity.
Each stage produces reviewable decisions and evidence for the next, reducing ambiguity across product, design, verification, and integration teams.
01
Define
Capture workloads, interfaces, constraints, risks, and measurable acceptance criteria.
02
Architect
Partition the system across software, firmware, digital IP, memory, and compute resources.
03
Implement
Develop RTL and integration logic with synthesis and downstream implementation in view.
04
Verify
Build evidence through assertions, coverage, regressions, performance analysis, and review.
Start the conversation
Bring your semiconductor or VLSI program to Lumentix.
Share the workload, architecture, RTL, verification, implementation, or embedded integration challenge. We will help define the next engineering milestone.