Develop High-Performance Phased Arrays with Full-Wave Precision
Analyse phased arrays with precision. From element design to installed system performance.
Getting phased arrays right takes rigorous analysis
As an engineer designing phased arrays for satellite communications, radar or 5G systems, you are balancing beam-steering performance against pattern characteristics. Mutual coupling between elements and platform interactions add complexity that approximations cannot capture.
Getting the electromagnetic analysis right directly affects whether your array antenna meets its performance requirements in the field.
TICRA’s phased-array software supports the full design analysis and beamforming workflow for modern phased-array systems within a single dedicated environment.
We have the solutions for your phased array antenna challenges
A connected toolset that takes you from measured near-field data to validated far-field performance – and pinpoints what to fix when it isn’t right.
ARRAY
Analyse finite array effects with full-wave solvers for rapid performance prediction.
POS
Optimise array weights, spacing and reflector shapes to achieve the beam patterns you need without running separate analyses.
ESTEAM
Model how your array performs when mounted on real platforms like aircraft, vehicles and satellites.
UQ
Evaluate how excitation errors and manufacturing tolerances affect array performance.
Technical capabilities that drive results
Everything you need to turn raw measurements into verified performance – and to understand exactly why an antenna behaves the way it does.
Array wizards
Quickly build array models, with predefined elements and interactive layout tools.
Full scattering matrix analysis
Compute element interactions across all array elements without approximation.
Coupled excitation optimisation
Optimise excitation and geometry, while accounting for mutual coupling effects.
Rapid element modelling
Design and analyse array elements using parameterised CAD models in stand-alone or inifinite-array configuration.
Platform integration analysis
Predict antenna performance on real platforms across vehicles, aircraft and satellites.
Uncertainty quantification workflows
Assess how design tolerances and excitation variations impact array gain and beam patterns.
Industries relying on phased-array antennas
Teams in the most demanding programmes rely on accurate near-field measurement and diagnostics to sign off their antennas.
Satellite communications
Phased arrays enable high-gain, electronically steerable links for satellite constellations and ground terminals, supporting global connectivity and rapid network deployment.
ExploreDefence
Advanced radar and communication systems depend on phased arrays for mission-critical applications requiring high performance, beam agility and precise target tracking.
ExploreTelecommunications (5G/6G)
Array antennas enable adaptive beamforming, higher capacity and spectral efficiency essential for next-generation wireless networks and wide-area coverage.
ExploreEarth observation
Earth observation satellites rely on phased arrays for high-resolution imaging and wide-area coverage, requiring consistent performance across extended orbital lifetimes.
ExploreRadio astronomy
Radio telescopes and deep-space missions use phased arrays for signal collection and beam steering, where sidelobe suppression enables detection of faint astronomical sources.
ExploreGround segment
Ground stations and mobile terminals depend on phased arrays for satellite tracking and low-latency communication, enabling SATCOM-on-the-move without mechanical steering.
ExploreTake the next step with phased array software
Explore TICRA’s phased-array software through a free trial.
Or if you want to discuss your specific challenges first, our engineers and technical support team are ready to help.
Frequently asked question
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
More from the Knowledge Hub
Research, tutorials and customer stories on antenna measurement and diagnostics.
Anechoic chambers
Anechoic Chambers can have no room for error, which is why TICRA’s SNIFT is the first choice for spherical test range data management. This means more accurate measurements in a shorter timeframe, and the highest possible degree of predictability.
Earth stations and terminals
Earth Station antennas must be efficient, compliant and competitive. TICRA's software suite enables you to target all your optimization and design requirements needs, with expert support on hand to ensure full compatibility with your applications – and your challenges.
Satellite operators
With TICRA’s solutions you can specify antenna coverages or optimize your payload antennas with the highest degree of certainty. This means you can react faster to changing requirements today and meet your customers’ needs tomorrow.
Take the next step with phased array software
Explore TICRAs antenna measurement software through a free trial. Or if you want to discuss your specific challenges first, our engineers and technical support team are ready to help.
Frequently asked question
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
What is spherical near-field measurement and why is it used?
Spherical near-field measurement samples an antennas radiated field on a sphere close to the antenna, inside an anechoic chamber. It captures the full radiation behaviour from compact ranges and is the most universal way to characterise an antenna – the near-field data is then transformed to the far-field that matters in operation.
More from the Knowledge Hub
Research, tutorials and customer stories on antenna measurement and diagnostics.
Anechoic chambers
Anechoic Chambers can have no room for error, which is why TICRA’s SNIFT is the first choice for spherical test range data management. This means more accurate measurements in a shorter timeframe, and the highest possible degree of predictability.
Earth stations and terminals
Earth Station antennas must be efficient, compliant and competitive. TICRA's software suite enables you to target all your optimization and design requirements needs, with expert support on hand to ensure full compatibility with your applications – and your challenges.
Satellite operators
With TICRA’s solutions you can specify antenna coverages or optimize your payload antennas with the highest degree of certainty. This means you can react faster to changing requirements today and meet your customers’ needs tomorrow.