Digital design from architecture to implementation.
Harmonie Design Labs develops digital architectures, synthesizable RTL, and implementation-ready digital designs for custom ASIC, SoC, FPGA, and semiconductor development programs.
We support projects from early functional definition through RTL development, verification, synthesis, physical implementation, and integration with the complete IC architecture.
Customers can engage us for a dedicated digital block, the complete digital section of an ASIC, or targeted engineering support within an existing semiconductor development flow.
- Digital system architecture
- RTL development in Verilog and SystemVerilog
- Synthesizable digital IP development
- Control logic and state-machine design
- Clock and reset architecture
- Clock-domain crossing design and analysis
- Low-power digital design techniques
- RTL linting and design-quality assessment
- Synthesis and timing analysis
- Digital physical implementation
From functional requirements to implementation-ready RTL
Reliable digital design begins before the first line of RTL is written.
System functions, interfaces, timing requirements, clock domains, reset behaviour, power constraints, data flow, and verification objectives must be defined as part of the architecture.
Harmonie Design Labs works with customer engineering teams to translate these requirements into a structured digital design that can be implemented, verified, integrated, and maintained throughout the ASIC development process.
Define the Digital Architecture
We analyse the required functions, data paths, control structures, interfaces, clock domains, reset strategy, throughput, latency, power targets, and integration constraints.These requirements are translated into block diagrams, interface definitions, design rules, and a practical RTL development plan.
Develop and Verify the RTL
We implement the digital architecture using synthesizable and verification-oriented RTL.The design is continuously checked for functional correctness, coding quality, clock-domain behaviour, reset integrity, synthesis compatibility, and compliance with the approved specification.Verification begins alongside implementation rather than after RTL completion.
Implement and Integrate
The verified RTL is prepared for synthesis, timing closure, physical implementation, and integration into the complete ASIC or SoC.Depending on the project scope, we support synthesis, floor planning, clock-tree implementation, place-and-route, timing sign-off, design-rule closure, and delivery of the final implementation database.
Front-End and Back-End Digital Engineering
Digital IC development covers two closely connected engineering areas. Harmonie Design Labs can support either stage independently or manage the complete digital implementation flow.
Front-end architecture decisions directly affect back-end performance. For this reason, implementation constraints are considered from the beginning of the RTL development process.
Typical activities include:
- Digital architecture
- RTL development
- Control and data-path design
- Logic synthesis
- Floor planning
- Power planning
- Placement and routing
- Signal-integrity and power analysis
Typical Engagement Models
Harmonie Design Labs supports different types of digital design engagement depending on the customer’s internal capabilities and project stage.
Complete Digital Sub-System
We develop the complete digital section of an ASIC or SoC, from architecture and RTL through verification and implementation.
Dedicated RTL or IP Block
We deliver a defined digital function for integration into a wider semiconductor design.
The scope may include architecture, RTL, testbench, documentation, synthesis constraints, and integration support.
Existing RTL Review and Improvement
We assess an existing RTL design for coding quality, synthesis compatibility, timing risk, clock-domain issues, reset behaviour, and maintainability.
Digital Back-End Support
We take verified RTL through synthesis, physical implementation, timing closure, and sign-off.
FPGA Prototyping
We implement selected functions or the wider digital architecture on FPGA to support early system validation, firmware development, interface testing, or technical risk reduction.
Why Digital Design Quality Matters
A digital design can be functionally correct in simulation and still create serious problems during implementation or integration.
Addressing these risks early reduces implementation uncertainty and prevents late-stage redesign.
Our digital methodology connects architecture, RTL, verification, synthesis, and physical implementation so that the design is developed with the complete silicon objective in mind.
Common risks include:
- Unclear or incomplete functional requirements
- Improper clock-domain crossings
- Inconsistent reset behaviour
- RTL that synthesizes inefficiently
- Timing constraints introduced too late
- Architectures that cannot reach target frequency
- Excessive power or area consumption
- Integration problems between digital blocks
- Limited observability during verification and bring-up
- RTL that is difficult to maintain or reuse
Frequently asked questions
Our primary RTL development languages are Verilog and SystemVerilog. Other languages or existing customer codebases can be evaluated according to the project requirements.
Yes. We can develop a dedicated synthesizable block for integration into an existing ASIC, SoC, or FPGA program. Deliverables can include RTL, testbench, documentation, synthesis constraints, and integration support.
Yes. We can review existing RTL for functional structure, coding quality, clock-domain behaviour, reset strategy, synthesis compatibility, timing risk, and maintainability.
Yes. Depending on the scope, we can support synthesis, floor planning, place-and-route, clock-tree implementation, static timing analysis, physical verification, and final sign-off.
Yes. We can adapt to the customer’s toolchain, coding standards, repository structure, review process, verification methodology, and delivery requirements.
Yes. FPGA prototyping can be used for proof of concept, early functional validation, firmware development, interface evaluation, and reduction of technical risk before ASIC implementation.
Yes. Digital engineering can be integrated with ASIC Design, High-Temperature IC Design, TDC-Based Solutions, Verification, Lab Validation, and Embedded & FPGA Engineering.
