Every block in our catalog covers a published range of performance through parameters and options, not design changes. Inside that range, your mission is a configuration.
Micro R³Complete FEEP propulsion in one block for 50–150 kg satellites: up to 26,000 Ns total impulse at 1 mN nominal thrust. |
Nano R³Complete FEEP propulsion in one block for satellites below 75 kg: up to 5,300 Ns total impulse at 350 µN nominal thrust. |
|
|---|---|---|
| Dynamic Thrust Range | 0.5 - 1 mN Need more thrust? | 150-350 µN Need more thrust? |
| Power at Nominal Thrust | 110 W incl. neutralizer |
45 W incl. neutralizer |
| Specific Impulse | 2,700–2,930 s |
2,500–2,960 s |
| Propellant Mass | 1.25 kg |
215 g +- 2% |
| Total Impulse | 26 kNs at 1 mN |
5,300 Ns at 350 µN |
| Outside Dimensions |
|
|
| Mass (Dry/Wet) | 2.7 kg / 3.95 kg (Including PPU) | <1280 / <1500 g |
| Hot Standby Power | 12 - 18 W | 4 - 7 W |
| Total System Power | 64 - 120 W at Thrust Range Need more power? | 30 - 50 W Need more power? |
| Command Interface | RS422 / RS485 | RS422 / RS485 |
| Supply Voltage | 28 V | 12 V |
| Data Sheet Download | Download Data Sheet | Download Data Sheet |
We refine every detail to ensure extraordinary quality at every stage
Our automated incoming inspection streamlines throughput with 100% part verification. Fast issue reporting links directly to suppliers, keeping everything compliant, efficient, and launch-ready.
The core component of Enpulsion’s IFM technology, our emitters are precision-crafted from incoming parts. Advanced parallel batch manufacturing with synchronized inspections ensures efficiency, consistency, and seamless production flow.
Next, we load each emitter with propellant, following the same high-efficiency scaling approach, using a precise vacuum process to ensure optimal performance while maintaining seamless production flow.
In this step, semi-finished emitters undergo an initial characterization in vacuum facilities. We use batch testing and automated scripts to streamline the process, reducing chamber evacuation times and maximizing efficiency.
We use advanced topology scanning to characterize emitters, leveraging predictive statistical models that optimize selection and quickly identify emitters that fall short of our rigorous performance standards.
Selected emitters and preassembled components are stored, ready for final thruster assembly. Each order kicks off a rapid, Kanban-based process, which produces fully assembled thrusters in just hours.
After final assembly, thrusters undergo rigorous acceptance testing according to the block's standard acceptance test procedure; additional tests are available as an option. Batch testing ensures efficiency without compromising timelines or precision.
Assembled thrusters undergo vibration testing, conducted in parallel with thermal acceptance testing to maximize efficiency while ensuring they meet our established performance standards.
Thrusters undergo final functional firing tests in vacuum facilities, with digitalized reporting and agile workflows ensuring swift decisions and rapid replacement for major non-conformances.
Final inspection, packaging, and shipping follow a streamlined, flexible process optimized based on customer input. Close collaboration with our logistics partners enables fast turnaround and timely delivery.
Safe, Compact Metal Propellant
An inert metal propellant produced at an industrial scale, Indium is compact, safe, and pre-filled for easy deployment. No special authorizations, pressurized tanks, or costly fueling required.
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Standard Blocks
Each block covers a published range through parameters and options. Because we deliver from designs already in production, lead times stay short.
Backed by Heritage
Designed to tolerate handling, integration and operation beyond the nominal, and built on the heritage of 280+ Enpulsion propulsion systems in space.
György Biró
Global Director of Strategic Business Development and Sales