From bare silicon to complex multi-layer assemblies, we engineer high-performance hardware that pushes the boundaries of physical possibility.


High-speed, multi-layer PCB design for complex digital and analog systems. We optimize for signal integrity, EMI/EMC compliance, and manufacturability.

Custom RTL design and verification for high-performance computing, signal processing, and hardware acceleration on platforms like Intel/Xilinx.

Low-power, connected hardware designs featuring Bluetooth, Wi-Fi, LoRa, and Cellular connectivity for industrial sensor networks.

Rapid prototyping from breadboard to functional enclosure. We provide quick-turn PCBA and 3D-printed iterations for early validation.
In-depth feasibility studies, component ecosystem analysis, and high-level block diagramming to define the hardware foundation.
Rigorous schematic capture and constraint-driven PCB layout focusing on signal integrity, thermal dissipation, and structural robustness.
Comprehensive hardware-in-the-loop (HIL) testing, signal analysis, and environmental stress screening to ensure zero-failure operation.
ChipTalk.AI brings over a decade of high-complexity hardware engineering across consumer, industrial, and defense sectors. Our team has delivered 50+ production PCB designs spanning 32-layer HDI stacks, RF/millimeter-wave circuits, and high-speed digital backplanes—each optimized for signal integrity, thermal performance, and first-pass manufacturing yield. We understand that hardware decisions ripple through firmware, software, and supply chain, and we architect every board with this full-system perspective.
Designed a 28-layer, high-speed digital backplane for a LEO satellite constellation, achieving 400 Gbps aggregate throughput with 6 ps jitter on 25G NRZ channels.
Developed a 64-channel, mixed-signal PCB for a portable ultrasound system, reducing noise floor to 2 nV/√Hz and achieving FDA clearance in 14 months.
We do not just route traces—we solve physics problems. Every PCB we deliver includes pre-layout signal-integrity simulation, thermal profiling, and DFM optimization. This front-loaded rigor eliminates costly respins and accelerates your path to production by 30–50%.