ENGINEERING ENGAGEMENTS
Own the systemconstraint, nota work package.
ARCHITECTURE TO VERIFICATIONARCHITECTURE · IMPLEMENTATION · INTEGRATION · VERIFICATION
CAPABILITIES10
TRADE STUDY2 TO 4 WEEKS, FIXED PRICE
MTS BRING-UPZCU111 · ZCU208 · ZCU216
ACCOUNTABILITYONE TEAM
ACROSS EVERY INTERFACE
TECHNICAL CAPABILITIES
Ten capabilities, one accountable team.
Move an RFSoC platform from board-on-the-bench to coherent IQ with one team owning clocking, RFDC tile configuration, MTS alignment, and cross-domain debug.
IN SCOPE
- LMK04208 / LMK04828 clock tree design and lock sequencing
- RF-ADC / RF-DAC tile configuration and calibration
- Multi-Tile Synchronization (MTS) bring-up across ZCU111, ZCU208, ZCU216, RFSoC 4x2
- Reference distribution and per-element sync verification
- Cross-domain debug across RF, fabric, and host-side capture
A productized 2 to 4 week fixed-firm-price engagement for teams evaluating direct-RF sampling receiver architectures. Delivered as a written architecture trade study with quantization analysis, performance bounds, and a defensible recommendation.
IN SCOPE
- Direct-RF vs. IF down-conversion tradeoff analysis
- Quantization, BER, MDS, and ROC modeling
- Multi-channel digitization architecture comparison
- Platform recommendation across the RFSoC family
- Written deliverable for PDR / CDR review packages
Independent review for phase-coherent multi-channel architectures, designed to expose calibration, timing, and interface assumptions before they become a board respin or critical test failure.
IN SCOPE
- MTS architecture and reference distribution review
- Per-element calibration approach assessment
- Phase-coherence budget across RF, ADC, and PL fabric
- Latency-deterministic pipeline review
- Written findings with severity-ranked recommendations
Production-grade DSP cores and digital beamforming pipelines for wideband signal chains. Fixed-point VHDL and Simulink/Model Composer cores built for latency-deterministic real-time operation.
IN SCOPE
- Polyphase channelization and digital down-conversion
- NCO/DDS and decimation chain development
- Digital beamforming subsystem development
- Fixed-point quantization and bit-true verification
- Simulink / Model Composer core development
CUDA-based post-processing servers that take IQ off the wire and turn it into usable data products. Built for sustained gigabit-class ingest, processing, telemetry, and archival.
IN SCOPE
- High-rate ingest and parsing pipelines
- GPU-accelerated correlation and data fusion
- System health monitoring and telemetry
- Sustained-rate IQ archival to disk and remote storage
- Satellite-uplink optimized data movement
Rapid prototyping of digital receivers and DSP pipelines using the CASPER toolflow on Xilinx RFSoC platforms. Production-style verification on a research timeline.
IN SCOPE
- CASPER bitstream generation targeting ZCU216 and ZCU111
- Custom Simulink yellow-block development
- tcpborphserver control paths and Python host tooling
- Hybrid CASPER + native Vivado / Vitis flows
- Bitstream verification and lab-floor bring-up
SDR-based detection and direction-finding systems for RF emitters, including coherent multi-channel receivers, real-time processing, and field-demonstrable prototypes.
IN SCOPE
- Multi-channel coherent SDR receiver architectures
- Real-time emitter detection and classification pipelines
- Direction finding and bearing estimation
- Rapid prototyping and live field demonstration
- Synthetic training-data pipelines for detection models
Multi-layer RF and mixed-signal hardware carried through signal-integrity and EMI/EMC validation, with qualification constraints considered from the first schematic.
IN SCOPE
- Multi-layer and RF front-end PCB design
- High-speed data-acquisition layout
- Electromagnetic simulation and modeling
- Signal-integrity and EMI/EMC validation
- DO-254 and MIL-STD design practices
Enclosure and structural design with full GD&T, rapid prototyping, thermal analysis, and environmental qualification planning for RF hardware.
IN SCOPE
- Enclosure and structural design with full GD&T
- Additive and subtractive rapid prototyping
- Thermal and structural analysis
- Environmental qualification to MIL-STD-810 / -1540E
- TRL maturation planning and test campaigns
Deep-learning detection and denoising for noise-dominated regimes, backed by GPU/HPC compute, synthetic-data pipelines, and explicit held-out evaluation.
IN SCOPE
- Deep-learning architectures for detection in noise
- Synthetic training-data generation pipelines
- GPU / HPC training and real-time inference
- Modeling and simulation of RF signal chains
- Seed-controlled, held-out benchmark methodology
OUR PROCESS
From concept to deployment.
- STEP 0101 / 04
Scope
Platform, signal environment, constraints, and success criteria; defined in writing before any work is quoted.
- STEP 0202 / 04
Architecture
Trade studies and design reviews with stated assumptions. You see the reasoning, not just the recommendation.
- STEP 0303 / 04
Development
Iterative milestones with simulation results at each gate. IP cores are developed against verification harnesses from day one.
- STEP 0404 / 04
Delivery
Source, simulation harnesses, verification reports, and documentation your team can maintain without us.
START WITH THE TECHNICAL GATE
Scope the workthat retiresthe risk.
PALM BAY, FLORIDA · 28.0345° N 80.5887° W
CLARITY BEYOND THE NOISE