RTL Verification
Meet our growing force of RTL specialists – sharpening skills via advanced theoretical study and mission-critical internal projects to tackle your toughest design challenges.
DFT Pre & Post Verification
Our expert PD engineers conquer nanometer-scale chaMeet our DFT specialists – scan insertion and patetrn simulation. Supports extends after post silicon.
Design Verification
Our DV team builds testbenches using UVM, AI-driven coverage closure, and formal verification.
Analog- Circuit
Our Analog circuit design team expertise spans high-performance analog and mixed-signal solutions tailored to meet complex design challenges.
Analog- Layout
Our layout team experts on optimizing for density, signal integrity.
Physical Design
Our expert PD engineers conquer nanometer-scale challenges.
”Register Transfer Level Verification”
What is RTL Verification & Why important?
RTL Verification is the critical process of ensuring that a digital design described in a Register Transfer Level (RTL) hardware description language (e.g., Verilog, VHDL, SystemVerilog) behaves correctly before it is synthesized into physical hardware. It acts as a “bug trap” to catch functional errors early, preventing costly silicon respins. A single undetected RTL bug can cost $1M+ in respins and delay time-to-market by months.
Our RTL Team Expertise
Our verification team is rigorously advancing their expertise through structured upskilling in industry-standard methodologies—including comprehensive simulation-based verification and assertion-based techniques. While we embrace this growth phase, our commitment remains unwavering: to deliver meticulously verified designs through disciplined processes, continuous mentorship, and relentless focus on your project’s success
”DFT VERIFICATION”
What is DFT Verification?
DFT Verification (Design-for-Test Verification) is the specialized process of ensuring that testability structures inserted into a chip design function correctly before manufacturing. Its goal is to guarantee that fabricated chips can be tested for defects efficiently and cost-effectively.
Our DFT Team Expertise
We deliver full-spectrum DFT architecture and implementation: From Spyglass DRC scans for RTL readiness and boundary scan/MBIST insertion, JTAG UTDR Control point insertion for better DFT control on the design, to ATPG coverage optimization (stuck-at/transition) and gate-level pattern validation. Logic Equivalence check on post DFT RTL/Netlist. SDC creation for DFT modes. Scan pattern simulation on gate level based on SDF provided by PD team. Pattern failure debugging. Deliver production pattern for JTAG, BSCAN, MBIST and Scan [Including multiple fault models]
Our services include scan compression, LEC sign-off, production-grade pattern generation, and post-silicon ATE debug—ensuring test-ready, high-yield designs tailored to your specs-DFT Planning and architecture support based on customer requirement.
”DESIGN VERIFICATION”
What is Design Verification?
Design verification is a crucial process in engineering and product development. It involves confirming that a design meets specified requirements and standards. This systematic evaluation ensures that products are functional, reliable, and safe before they reach the market. Effective design verification minimizes the risk of failures and enhances the overall quality of the final product.
Our DV Team Expertise
We develop comprehensive verification solutions leveraging SystemVerilog and UVM methodologies, including custom UVCs for industry-standard protocols (AXI, APB, AHB) and robust testbench/testcase development. Our functional verification expertise spans full SoCs (e.g., ARM processors, Google server chips), IP-level validation, endpoint devices (UART), and controller bus protocols. Additionally, we perform Gate-Level Simulation (GLS) for critical subsystems like GPUs and DSPs, utilizing industry-leading tools including Cadence Xcelium for simulation, Synopsys Verdi for debug, Siemens SimVision for visualization, and specialized solutions like IMC for coverage analysis and Reg Verifier for register validation.
”Analog Layout Design”
Understanding Analog Layout Design
Analog Layout Design is the specialized process of translating an analog circuit schematic into a physical silicon implementation—optimizing performance, noise, power, and manufacturability. Unlike digital design (automated via P&R tools), analog layout is manual, artisanal, and physics-intensive, demanding deep understanding of semiconductor physics, parasitic, and fabrication processes.
Our Team Expertise
We bring extensive expertise across the industry’s most advanced technology nodes—including 3nm, 4nm, 5nm, 7nm, 12nm, 14nm, 16nm, 90nm, 150nm, 165nm, and 180nm—with specialized experience in GlobalFoundries (12nm/22nm/28nm/40nm/55nm/180nm), Samsung (4nm/7nm/8nm), and Intel 16nm processes. Our technology mastery spans BCDMOS, Planar, FinFET, FDSOI, and Deep-N-Well architectures. We develop and verify critical IPs across power management (Power Modules, Pre-Regulators, Buck/Boost Converters), signal control (Oscillators, Signal Generators, OCD, POR), validation systems (PVT Sensors, Voltage Monitors, Droop Injectors), and high-speed interfaces (SerDes, Test Chips, I/O). For analog layout, we specialize in manufacturing-compliant implementation of Power Modules, Voltage Monitors, and Test Chips, with block-level proficiency in Oscillators, Transmitters, and Converters. Our advanced physical design capabilities include precision matching, current mirrors, and robust reliability solutions (latch-up prevention, ESD protection, antenna fixes), complemented by signal integrity techniques (crosstalk mitigation, shielding, guard rings) and optimized power delivery (chip-level planning, bump connections). All work leverages industry-standard EDA tools: Custom Compiler, Virtuoso XL/L, Tanner L-edit, and Calibre/PVS/ICV for LVS/DRC/ERC/PERC/HIPRE/extraction/EM/IR validation—ensuring tapeout-ready designs.
”Analog Circuit Design”
Understanding Analog Circuit Design
Analog Circuit Design is the art and science of creating electronic circuits that process continuous real-world signals (like sound, temperature, or radio waves) rather than digital 1s and 0s. It focuses on precision, noise management, and physics-driven behavior to bridge the physical and digital worlds.
Our Team expertise
Our team delivers cutting-edge semiconductor design expertise across advanced technology nodes including 3nm, 5nm, 7nm, 12nm, 22nm, 28nm, 55nm RFSOI, and specialized BCD processes (130nm/180nm). We design foundational analog circuits such as Bandgap References (BGR), Constant Gm/Beta Multiplier biasing, and Adaptive Biasing for Power Amplifiers, alongside mixed-signal blocks like Flash/SAR ADCs and clocked comparators. For power management (PMIC), we develop Droop Injectors and LDOs, while our analog capabilities cover OpAmps (5T OTA, Folded Cascode, Telescopic), precision current mirrors (Wilson, Widlar, Wide-Swing), Charge Pump PLLs, and Duty Cycle Control. We also implement transceivers (RS485 Tx, CAN Rx) and validate VCSEL Driver IPs. Our simulation rigor includes AC/DC/transient, phase noise, aging, and EMIR analysis—supported by post-layout ‘config’ views and AMS co-simulations with Verilog-A blocks. Verification encompasses vIptest and vPPA optimization, leveraging industry tools: Cadence (Virtuoso, Spectre), Synopsys (Custom Compiler, HSPICE, PrimeSim), and Mentor (Tanner S-Edit, AFS).
”Physical Design”
Understanding Physical Design
Physical design is a fundamental aspect of architecture that integrates aesthetics, functionality, and environmental considerations. It serves as the backbone of how spaces are created, manipulated, and experienced. When architects consider physical design, they assess materials, structures, and spatial relationships to create harmonious environments that not only serve their intended purpose but also enhance the user’s experience.
Our Team Expertise
With hands-on experience across cutting-edge technology nodes (3nm, 4nm, 5nm, 7nm, 12nm, 14nm, 22nm, 28nm, 40nm, and 90nm) and a proven track record of 9 successful SoC tapeouts, we deliver end-to-end physical design solutions. Our full-chip capabilities encompass: top-down design planning for floor planning, I/O, PG, and bump optimization; bottom-up STA for timing ECOs and signoff; global clock/trunk routing; and hierarchical synthesis (SDC/timing debug). We execute complete PNR flows from netlist-to-GDSII for complex systems, including specialized floor planning for macro/congestion/IP-dominated designs and RP-group-based methodologies for CXL, DDR controllers, Cortex CPUs, and multi-SerDes architectures. Our MSCTS implementation achieves minimal latency for high-speed interfaces (DDR/CXL/SerDes), complemented by manual reference clock routing, skew balancing, and protocol-specific physical implementation (PCIe/Disp/DDR/NoC/CXL). This is powered by mastery of industry EDA tools: Synthesis (Genus, Design Compiler, Fusion Compiler); PNR (Innovus, ICC2, Fusion Compiler, Aprisa); STA (Primetime, Tempus); Signoff (Calibre, ICV); Power Integrity (Voltus, Redhawk); Extraction (StarRC); and Verification (Formality, Virtuoso, TCAD, H-SPICE).