EmbeddedVLSI-Design Labs delivers end-to-end IC design expertise — RTL development, FPGA prototyping, SoC integration, physical design, and embedded firmware — for semiconductor companies, startups, and R&D labs.
From architecture definition through physical signoff — every stage of the silicon design lifecycle covered.
Floorplanning, placement, CTS, routing, and multi-corner multi-mode signoff for complex digital ICs.
SystemVerilog RTL coding, UVM testbenches, constrained random verification, and formal property checking.
Rapid prototyping on Xilinx UltraScale+ and Intel Agilex FPGAs with board bring-up and HLS support.
Bare-metal and RTOS-based firmware for ARM Cortex-M/A and RISC-V — BSP, HAL, and secure boot.
System-level SoC architecture, IP integration, AXI/TileLink bus fabric design, and PPA optimization.
STA, IR drop, EM analysis, power estimation, and MCMM signoff for production tape-out readiness.
EmbeddedVLSI-Design Labs is a specialized electronics design consultancy focused exclusively on embedded systems and VLSI design. We partner with semiconductor companies, startups, and R&D labs to deliver production-ready silicon and firmware.
Our team brings deep expertise across the full IC design stack — from architecture and RTL through physical design, verification, and tape-out — with hands-on experience at leading semiconductor fabs and EDA environments.
We operate lean, communicate clearly, and deliver verified designs that consistently meet your power, performance, and area targets on schedule.
The mind and mission behind EmbeddedVLSI-Design Labs.
EmbeddedVLSI-Design Labs
Manishkumar Dudhat (M.Sc Elect. Germany, B.E Elect. India) is the founder of EmbeddedVLSI-Design Labs, bringing hands-on experience in embedded systems engineering combined with a strong academic foundation in VLSI design. His work spans firmware development, microcontroller-based system design, and hardware-software co-design — with a passion for bridging the gap between embedded software and silicon architecture.
Driven by a vision to build world-class IC and embedded design services from India, Manishkumar founded EmbeddedVLSI-Design Labs to deliver precision engineering solutions to semiconductor companies, startups, and R&D organizations worldwide.
Comprehensive design services across digital, mixed-signal, and embedded domains — from spec to silicon.
Full custom and semi-custom digital IC design from architecture through GDSII. Includes RTL coding, synthesis, static timing analysis, DRC/LVS signoff, and tape-out support at nodes down to 28nm.
SystemVerilog UVM testbench development, constrained random verification, coverage closure, and formal property verification for digital blocks, subsystems, and full-chip.
Targeted FPGA implementation on Xilinx UltraScale+ and Intel Agilex platforms. Includes HLS, timing closure, board bring-up, and pre-silicon software validation workflows.
Firmware for ARM Cortex-M/A and RISC-V processors. RTOS porting (FreeRTOS, Zephyr), device driver development, HAL layers, and secure boot implementation.
System-level SoC architecture definition, IP subsystem integration, bus fabric design using AXI4/TileLink/OCP, and full-chip power-performance-area optimization.
Independent design reviews, timing audits, physical design consulting, and expert mentoring for in-house engineering teams at semiconductor companies and deep-tech startups.
Deep-dives into VLSI design techniques, embedded systems, and silicon engineering practice.
A practical guide to CTS constraints, useful skew methodologies, and meeting your power budget without sacrificing timing margins at advanced nodes.
Step-by-step walkthrough of a production-quality AXI4 Verification IP with sequencer, driver, monitor, scoreboard, and coverage model.
A feature-by-feature comparison covering scheduling, memory footprint, driver model, and ecosystem maturity for resource-constrained embedded targets.
How to use PIPELINE, DATAFLOW, and ARRAY_PARTITION directives to hit latency and throughput targets in HLS-generated RTL designs.
Integrating RTL-level clock gating, power domains, and UPF specifications to reduce dynamic power by up to 40% in a real SoC block.
Adding custom opcodes to an open-source RISC-V core, implementing decode logic in RTL, and validating with a toolchain-aware testbench.
Whether you need a full design team for tape-out or specialized consulting on a specific block, we're happy to discuss how we can help your project succeed.
Discovery call → NDA → Technical brief → Proposal → Kickoff → Design → Delivery