Your AI tools already
speak Nullspace

Your AI tools already speak Nullspace

Experience a x10 to x100 speed up of your onboarding and simulation workflows by using your existing AI tools with Nullspace

How to use Nullspace + AI

How to use
Nullspace + AI

1

AI Onboarding Tutor

It is easier than ever before to teach your new engineers to use Nullspace. Due to our powerful Python API, engineers new to EM simulation tools can simply interact with Nullspace through LLMs — having the AI act as their coach, tutor, and guide — allowing new users to cut weeks–months of the standard onboarding time and to start delivering accurate simulation results, quickly and without hallucinations.

2

AI-orchestrated workflow

The governing Maxwell's equations are still solved with a traditional physics-based solver: full-wave, validated, 3D Method of Moments with no approximations. From parametric analysis, to complex optimizations, to generative design — AI handles the workflow around the simulation, not the simulation itself.

3

Generate accurate surrogate data

Nullspace allows engineers and AI agents alike to run significantly faster full-fidelity simulations than established EM legacy tools. Large amounts of very accurate data for radar cross section analysis or antenna design can be generated very quickly.

Physics-based results, no hallucinations

Physics-based results, no hallucinations

Nullspace is built from the ground up on a powerful Python API, the language of LLMs, so every major AI coding assistant already knows how to natively interact with Nullspace tools. Claude, Copilot, and GPT or internal LLM tools can read your project files, generate simulation scripts, configure parametric sweeps, orchestrate optimization campaigns, generatively design RF systems and elements relying on physics-based simulations, and more.

Nullspace is built from the ground up on a powerful Python API, the language of LLMs, so every major AI coding assistant already knows how to natively interact with Nullspace tools. Claude, Copilot, and GPT or internal LLM tools can read your project files, generate simulation scripts, configure parametric sweeps, orchestrate optimization campaigns, generatively design RF systems and elements relying on physics-based simulations, and more.

Set up simulations in plain English

Describe the analysis you want; AI builds the model, runs it, and post-processes results through the Python API. You review and adjust instead of clicking through the setup.

Capture your team’s expertise

Encode how your experts configure and evaluate problems in Python. Colleagues, pipelines, and AI agents run it the same way every time.

Cover the full design space, not just a few points

Parametric sweeps, optimization, and uncertainty quantification run as ordinary scripted steps, becoming standard steps in your workflow instead of one-off efforts per program.

Our EM solver does the work.
AI does the busywork.

Our EM solver does the work. AI does the busywork.

A full NASA Almond RCS study, run end-to-end from one natural-language prompt in 45 minutes, on a laptop.

~35 min
Solver — full-wave physics
~10 min
AI orchestration

The speed, scale, and rigor are properties of the Nullspace EM solver. AI doesn't make the physics faster or more accurate; it removes the busywork around the physics-based simulation

Example workflows engineers have run
from a single prompt:

Example workflows engineers have run from a single prompt:

Antenna Optimization in one prompt

RCS Benchmark in one prompt

Antenna Integration in one prompt

1

Starting Point

Circular polarized patch

2.23–2.27 GHz

Goals

S11 and axial ratio

2

Prompt

Optimize this antenna for:

2.23–2.27 GHz

2.23–2.27 GHz

Parametric sweep

Refine design space

NSGA-II

Pareto front

3

Final Results

S11 -13.75dB

Axial Ratio 1.11dB

310 EM simulations fully automated

1

Monostatic RCS

Circular polarized patch

3.5 / 5.1 / 7.0 / 10.25 GHz

2

Prompt

Run RCS benchmark:

Generate λ/20 mesh

Dense + Compress solver

Extract RCS (VV / HH)

Compare to measurements

Compute RMS error

Generate plots + report

3

final results

AI-generated report sent on request

Simulation matches benchmark

1

Starting point

Patch antenna

GPS (L1) /

Telemetry (S-band)

Optimized as a standalone

2

prompt

Integrate antennas on vehicle:

Import vehicle geometry

Place multiple antennas

Control position & spacing

Generate ports & mesh

Run full EM simulation

3

final results

Full vehicle EM simulation

Antenna Optimization in one prompt

1

Starting Point

Circular polarized patch

2.23–2.27 GHz

Goals

S11 and axial ratio

2

Prompt

Optimize this antenna for:

2.23–2.27 GHz

2.23–2.27 GHz

Parametric sweep

Refine design space

NSGA-II

Pareto front

3

Final Results

S11 -13.75dB

Axial Ratio 1.11dB

310 EM simulations fully automated

RCS Benchmark in one prompt

1

Monostatic RCS

Circular polarized patch

3.5 / 5.1 / 7.0 / 10.25 GHz

2

Prompt

Run RCS benchmark:

Generate λ/20 mesh

Dense + Compress solver

Extract RCS (VV / HH)

Compare to measurements

Compute RMS error

Generate plots + report

3

final results

AI-generated report sent on request

Simulation matches benchmark

Antenna Integration in one prompt

1

Starting point

Patch antenna

GPS (L1) /

Telemetry (S-band)

Optimized as a standalone

2

prompt

Integrate antennas on vehicle:

Import vehicle geometry

Place multiple antennas

Control position & spacing

Generate ports & mesh

Run full EM simulation

3

final results

Full vehicle EM simulation

Antenna Optimization in one prompt

1

Starting Point

Circular polarized patch

2.23–2.27 GHz

Goals

S11 and axial ratio

2

Prompt

Optimize this antenna for:

2.23–2.27 GHz

2.23–2.27 GHz

Parametric sweep

Refine design space

NSGA-II

Pareto front

3

Final Results

S11 -13.75dB

Axial Ratio 1.11dB

310 EM simulations fully automated

RCS Benchmark in one prompt

1

Monostatic RCS

Circular polarized patch

3.5 / 5.1 / 7.0 / 10.25 GHz

2

Prompt

Run RCS benchmark:

Generate λ/20 mesh

Dense + Compress solver

Extract RCS (VV / HH)

Compare to measurements

Compute RMS error

Generate plots + report

3

final results

AI-generated report sent on request

Simulation matches benchmark

Antenna Integration in one prompt

1

Starting point

Patch antenna

GPS (L1) /

Telemetry (S-band)

Optimized as a standalone

2

prompt

Integrate antennas on vehicle:

Import vehicle geometry

Place multiple antennas

Control position & spacing

Generate ports & mesh

Run full EM simulation

3

final results

Full vehicle EM simulation

Antenna Optimization in one prompt

1

Starting Point

Circular polarized patch

2.23–2.27 GHz

Goals

S11 and axial ratio

2

Prompt

Optimize this antenna for:

2.23–2.27 GHz

2.23–2.27 GHz

Parametric sweep

Refine design space

NSGA-II

Pareto front

3

Final Results

S11 -13.75dB

Axial Ratio 1.11dB

310 EM simulations fully automated

RCS Benchmark in one prompt

1

Monostatic RCS

Circular polarized patch

3.5 / 5.1 / 7.0 / 10.25 GHz

2

Prompt

Run RCS benchmark:

Generate λ/20 mesh

Dense + Compress solver

Extract RCS (VV / HH)

Compare to measurements

Compute RMS error

Generate plots + report

3

final results

AI-generated report sent on request

Simulation matches benchmark

Antenna Integration in one prompt

1

Starting point

Patch antenna

GPS (L1) /

Telemetry (S-band)

Optimized as a standalone

2

prompt

Integrate antennas on vehicle:

Import vehicle geometry

Place multiple antennas

Control position & spacing

Generate ports & mesh

Run full EM simulation

3

final results

Full vehicle EM simulation

Antenna Optimization in one prompt

1

Starting Point

Circular polarized patch

2.23–2.27 GHz

Goals

S11 and axial ratio

2

Prompt

Optimize this antenna for:

2.23–2.27 GHz

2.23–2.27 GHz

Parametric sweep

Refine design space

NSGA-II

Pareto front

3

Final Results

S11 -13.75dB

Axial Ratio 1.11dB

310 EM simulations fully automated

RCS Benchmark in one prompt

1

Monostatic RCS

Circular polarized patch

3.5 / 5.1 / 7.0 / 10.25 GHz

2

Prompt

Run RCS benchmark:

Generate λ/20 mesh

Dense + Compress solver

Extract RCS (VV / HH)

Compare to measurements

Compute RMS error

Generate plots + report

3

final results

AI-generated report sent on request

Simulation matches benchmark

Antenna Integration in one prompt

1

Starting point

Patch antenna

GPS (L1) /

Telemetry (S-band)

Optimized as a standalone

2

prompt

Integrate antennas on vehicle:

Import vehicle geometry

Place multiple antennas

Control position & spacing

Generate ports & mesh

Run full EM simulation

3

final results

Full vehicle EM simulation

For surrogate models, Nullspace is the data engine

For surrogate models, Nullspace is the data engine

AI surrogate models predict results without running a full solve — but they're only as good as the data they learn from, and in electromagnetics that high-fidelity data is exactly what's scarce.

The speed and accuracy of the solver that generates it sets the ceiling on what any surrogate can reach. Nullspace produces that data faster than legacy tools, with the full physics computed for every sample.

AI surrogate models predict results without running a full solve — but they're only as good as the data they learn from, and in electromagnetics that high-fidelity data is exactly what's scarce.

The speed and accuracy of the solver that generates it sets the ceiling on what any surrogate can reach. Nullspace produces that data faster than legacy tools, with the full physics computed for every sample.

Generate training sets in a fraction of the time

What takes legacy tools months of solver runs, Nullspace produces in a fraction of that — making surrogate modeling practical instead of prohibitive.

Train on trustworthy data

Every sample is a full-wave solve, so the surrogate inherits the accuracy of the solver underneath rather than another tool's approximations.

Cover the design space a surrogate needs

Dense, broad sweeps across geometry and frequency — the volume of data a reliable EM surrogate actually requires.

How much are you leaving on the table?

The studies you skip, the designs you simplify, the deadlines you stretch. What if you didn't have to?