Antenna Design
Custom antenna concepts, optimization, platform integration, matching, feed design, and radiation-pattern development.
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Advanced RF Engineering
Engineering the electromagnetic edge.
We design, simulate, test, and validate RF systems, antennas, radar hardware, and electromagnetic environments for demanding aerospace, defense, industrial, and research applications.
Field Solution
Converged electromagnetic model
Radiation Pattern
Main-beam and sidelobe visualization
Engineering for demanding sectors
Aerospace
Defense
Research
Industrial RF
Capabilities
From electromagnetic concept to measured performance.
1337b33f supports the RF development cycle from architecture and electromagnetic modeling through test planning, signal processing, and verification. Each effort is organized around traceable requirements, reproducible analysis, and clear engineering outputs.
EM Simulation
Full-wave analysis, current visualization, coupling studies, parametric sweeps, installed performance, and optimization.
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S-parameters, gain, pattern, power, spectral purity, sensitivity, isolation, path-loss, and subsystem verification.
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Radar architecture, link budgets, waveform planning, receiver chains, range performance, target analysis, and test support.
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Emissions, susceptibility, shielding, grounding, cable coupling, interference troubleshooting, and standards-oriented mitigation.
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Independent design review, test planning, root-cause analysis, proposal support, technical documentation, and customer training.
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Simulation & Verification
Simulation and verification for antenna and radar development.
Electromagnetic and DSP models reveal system behavior before hardware integration. The workflow connects design inputs to measurable outputs, identifies performance limits, and establishes verification criteria for later bench, chamber, or range testing.
Antenna Design
Radiation-pattern simulation and spatial verification.
Full-pattern visualization helps evaluate main-beam shape, sidelobes, symmetry, scan behavior, and usable angular coverage. Three-dimensional and visible-space views provide complementary checks before geometry is committed to fabrication.
Verification can include comparison against analytical array-factor calculations, convergence studies, mesh sensitivity, and measured pattern data when hardware becomes available.
Radar DSP Applications
Return processing, target separation, and range-Doppler verification.
Simulated radar returns can be processed through matched filtering, pulse compression, thresholding, and Doppler estimation to verify target observability and algorithm behavior before live-range testing.
Verification can include known-target injection, SNR sweeps, Monte Carlo trials, false-alarm analysis, and correlation against captured IQ data as the system matures.
Engineering Process
A disciplined path from requirement to verified result.
Every effort begins with measurable requirements and ends with evidence. Modeling, design, and test activities remain linked so assumptions can be checked, results can be reproduced, and technical decisions stay traceable throughout development.
01
Define
Requirements, environment, interfaces, constraints, and success criteria.
02
Model
Electromagnetic, RF, system, thermal, and tolerance analysis as required.
03
Design
Geometry, matching, feed networks, fixtures, integration, and test strategy.
04
Test
Bench, chamber, range, environmental, and system-level measurements.
05
Validate
Correlation, reporting, acceptance evidence, and production recommendations.
Facilities & Tools
Real hardware. Real measurements. Clear answers.
Engineering resources are selected to match the operating frequency, required accuracy, available hardware, and test environment. Simulation and measurement are combined in a repeatable workflow that produces defensible technical results.
Network & Spectrum Analysis
VNAs, spectrum analyzers, signal generators, and power measurement.
Antenna Measurement
Near-field, far-field, chamber, outdoor range, or custom setups.
High-Power RF Support
Amplification, protection, couplers, loads, pulsed systems, and safety planning.
Modeling & Documentation
3D CAD, EM simulation, link budgets, uncertainty, and formal reporting.
Industries
Applied electromagnetic expertise across complex systems.
Aerospace
Airborne antennas, communications, navigation, sensing, and integration.
Defense
Radar, EW, high-power RF, secure communications, and mission systems.
Space
Spacecraft RF, telemetry, payload integration, and ground support.
Research
Accelerators, scientific instrumentation, custom RF, and experimental systems.
Telecommunications
Coverage, propagation, antennas, wireless links, and interference analysis.
Industrial Systems
Sensing, heating, control, shielding, reliability, and regulatory support.
Automotive
Vehicle antennas, radar, EMC, connectivity, and installed performance.
Medical Technology
RF energy, imaging support, wireless devices, and electromagnetic compatibility.
Your Hardest RF Problem
Bring us the challenge others could not solve.
Complex RF problems rarely fit a standard template. 1337b33f begins by defining the operating environment, identifying dominant loss and interference mechanisms, and building a verification plan tied directly to system requirements.
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Contact
Let’s talk about your RF system.
Include the operating band, application, development stage, available hardware, and the performance question that needs to be answered. Clear inputs allow the technical scope, analysis method, and verification path to be defined efficiently.
Project Scope
Antenna, radar, EMC/EMI, RF test, and simulation
Useful Inputs
Frequency, geometry, interfaces, environment, and performance goals
Typical Outputs
Models, plots, test plans, processed data, and engineering reports