Validate the performance, reliability, and longevity of satellite batteries under space-like conditions, including extreme temperatures, high discharge rates, and long-duration mission cycles. This solution page will guide you through methods for assessing capacity, efficiency, and thermal behavior, ensuring that satellite systems meet stringent mission requirements.

The RP5946A is ideal for satellite battery testing because it offers precise voltage and current control, supports high-power discharge and programmable cycling, and accurately monitors battery behavior, enabling engineers to verify performance, extend battery life, and ensure mission readiness in challenging space environments.

Ensure satellite payload systems deliver stable power and behave correctly under realistic mission loads by simulating operational power draw, thermal stress, and load transients. This solution page will guide you through methods to emulate payload power demands, verify power delivery under dynamic conditions, and ensure readiness before deployment.

The EL4946A is ideal for payload‑system testing because it can accurately emulate complex load profiles with up to 12 kW sink capacity at 800 V and 48 A. Its regenerative design returns absorbed energy to the grid, and its built-in arbitrary waveform and sequencing functions enable realistic mission‑load simulation for thorough payload validation.

Validate satellite power and energy systems under ground‑test conditions by simulating solar‑array behavior, dynamic load, and environmental transitions prior to launch. This solution page will guide you through ground‑testing methods to verify power management, battery charging, and subsystem response, ensuring the satellite will behave as expected once deployed.

The MP4304A is ideal for satellite ground testing because it can host up to six solar‑array simulator (SAS) modules, enabling high‑fidelity emulation of spacecraft solar panels. It supports realistic PV‑panel behavior, dynamic IV curve changes, and fast transitions, allowing engineers to test battery charging behavior and subsystem power draw under operational conditions.

Validate the power performance of electronic warfare (EW) systems by assessing voltage stability, transients, and subsystem behavior under rapid power changes. This solution page will guide you through methods for simulating mission‑like power demands, verifying noise sensitivity, and ensuring that EW components operate reliably during high‑stress scenarios.

The N6701C is ideal for testing EW power systems because its modular architecture supports high‑speed, low‑noise DC outputs, essential for evaluating sensitive EW receivers, processors, and RF front ends. Combining multiple power modules in a single mainframe enables a realistic simulation of subsystem performance under mission‑critical conditions.

Ensure reliable performance of avionics power systems by validating voltage stability, transient response, and load-handling under realistic flight conditions. This solution page will guide you through methods for testing power distribution, simulating rapid load changes, and confirming subsystem reliability, helping maintain aircraft safety and operational readiness.

The N6702C is ideal for avionics power testing because it delivers precise, low-noise DC outputs with fast transient response, enabling engineers to replicate dynamic flight loads and assess system stability. Its modular design allows precision modules to work in parallel, supporting complex avionics power scenarios and ensuring accurate validation of critical subsystems.

Test EV / EVSE charging interfaces during high-power charging up to 1,500 VDC and ±600 ADC.

Perform EV / EVSE conformance and interoperability tests according to global standards up to 1,000 V