Technical consulting & engineering software

Wireless systems analysis, simulation, and optimization

Optimcode combines wireless engineering, scientific computing, geospatial data, and software development to solve multidisciplinary modeling and simulation problems.

Typical deliverables
Engineering models, simulation frameworks, source code, validated results, configuration tools, geospatial pipelines, technical reports, and presentations.
Wireless engineering

Wireless systems and spectrum studies

From requirements and deployment models through interference analysis, performance metrics, and defensible engineering results.

Network Modeling

5G/NR and other wireless networks, deployments, sectors, antennas, traffic, scheduling, coverage, capacity, and link budgets.

Spectrum Coexistence

Co-channel and adjacent-channel interference, aggregate interference, OOBE/ACIR, activity models, protection criteria, and SINR/I/N analysis.

Propagation Analysis

3GPP channel and path-loss models, clutter and penetration loss, site-specific propagation, ray tracing, and sensitivity studies.

Monte Carlo Studies

Randomized deployments, parameter distributions, uncertainty analysis, large trial sets, statistical KPIs, and scenario comparison.

Antennas & RF Models

Antenna patterns, beamforming abstractions, EIRP, receiver characteristics, spectral masks, frequency-dependent models, and link budgets.

Technical Advisory

Architecture reviews, feasibility studies, model validation, technical due diligence, independent analysis, and R&D support.

Simulation engineering

MATLAB, Python, and C/C++ frameworks

We build and extend reusable engineering software for communications simulation, numerical analysis, optimization, validation, and high-performance workloads.

System-Level Simulation

Multi-cell deployments, user association, scheduling, traffic, interference, mobility, Monte Carlo execution, and network KPIs.

Link-Level Simulation

Waveforms, channel models, coding, receiver algorithms, BLER/BER, SINR, throughput, and algorithm comparison.

High-Performance Simulation

Vectorization, parallel execution, GPU acceleration, profiling, memory reduction, caching, and runtime optimization.

Optimization Algorithms

Parameter optimization, constrained numerical methods, large-scale optimization, algorithm benchmarking, and performance tuning.

MATLAB Consulting

Rapid engineering development with strong communications, numerical, visualization, and parallel-computing workflows.

  • Link-, system-, and network-level frameworks
  • Monte Carlo and parameter-sweep engines
  • High-performance simulation and parallel computing
  • Numerical optimization and algorithm prototyping
  • Configuration, validation, testing, and reporting tools

Python Consulting

Scientific computing, data processing, automation, geospatial workflows, ML integration, APIs, and GPU-enabled simulation.

  • NumPy, SciPy, pandas, and GeoPandas workflows
  • Reusable simulation and analysis packages
  • Flask APIs and engineering services
  • Data pipelines, visualization, and automation
  • Integration with Sionna and external tools

C/C++ Components

Compiled components for performance-critical models, reusable libraries, and integration with MATLAB or Python.

  • Numerical kernels and simulation engines
  • Performance-sensitive algorithms
  • MATLAB MEX and Python extensions
  • Profiling, validation, and regression testing
  • Legacy modernization and integration
NVIDIA Sionna

Ray tracing, system simulation, and wireless digital twins

Sionna RT and Sionna SYS can be integrated into Python workflows for site-specific propagation, 3GPP-based simulation, and GPU-accelerated experimentation.

  • Sionna RT
  • Sionna SYS
  • 3GPP Models
  • Ray Tracing
  • Digital Twins
  • GPU
  • Python

Site-Specific Propagation

Build 3D scenes and evaluate paths, coverage, multipath, blockage, diffraction, and geometry-dependent effects.

System Integration

Combine ray-traced or standardized channel information with network simulation, coexistence studies, and custom engineering models.

Digital-Twin Pipelines

Translate terrain, buildings, site data, and material information into simulation-ready scenes and repeatable workflows.

Model Validation

Compare implementation behavior against standards-based or analytical baselines and document model limits and sensitivities.

Geodata & propagation inputs

Geospatial data pipelines for wireless simulation

Engineering models are only as useful as their inputs. We prepare and validate real-world geodata for network and site-specific studies.

Buildings

OpenStreetMap, Overture Maps, building footprints, heights, rooftop geometry, and 3D mesh preparation.

Terrain & LiDAR

Digital elevation data, point clouds, terrain surfaces, cropping, merging, reprojection, and quality checks.

Network Geodata

Site coordinates, sectors, orientation, heights, downtilt, service areas, user locations, and deployment geometry.

GIS Processing

Coordinate systems, spatial joins, clipping, deduplication, visualization, data conversion, and simulation-ready exports.

Machine learning for wireless

Data-assisted models integrated with engineering simulation

Machine learning is applied where it improves speed, calibration, pattern discovery, or decision support without losing engineering traceability.

Surrogate Models

Approximate expensive simulations with trained models for faster sweeps, optimization, and sensitivity analysis.

Model Calibration

Use simulation and measurement data to tune parameters, identify relationships, and improve model fidelity.

Classification & Detection

Feature engineering and ML workflows for identifying operating regimes, anomalies, interference patterns, or signal conditions.

ML-Assisted Optimization

Combine learned models with search and optimization workflows to reduce computational cost and explore large design spaces.

Engineering software & cloud

APIs, automation, AWS pipelines, and cloud-native workflows

Turn engineering code into repeatable services and scalable pipelines when desktop execution is no longer enough.

Flask APIs

Expose simulation engines, models, configuration validation, and analysis functions through clean programmatic interfaces.

AWS Pipelines

Batch execution, object storage, automated processing, scalable compute, and reproducible analysis workflows.

Cloud-Native Design

Containerized components, modular services, job orchestration, logging, configuration management, and deployment-ready architecture.

Results & Reporting

Automated KPI extraction, plots, maps, artifacts, result packaging, and technical reporting for large simulation campaigns.

Project delivery

From technical question to usable engineering result

Models & softwareReusable code, simulation frameworks, APIs, configuration schemas, and data pipelines.
Validation & reproducibilityTest cases, reference scenarios, regression checks, traceable parameters, and repeatable runs.
Engineering analysisKPIs, distributions, sensitivity studies, interference results, coverage maps, and performance comparisons.
Documentation & communicationTechnical reports, presentations, implementation notes, assumptions, limitations, and handoff material.
About Optimcode

Independent engineering support for complex wireless problems

Optimcode provides independent engineering support for complex wireless problems across government and commercial projects. We deliver models ready for review, maintainable software, reproducible results, and clear technical communication.