VLS-series

Hollow Shaft Capacitive Absolute Encoders (25…247mm), LEO Space

Designed to meet the requirements of the most demanding applications

The VLS-series is designed with compact dimensions, minimal weight, and the signature Netzer hollow shaft for unmatched precision. These characteristics are essential for the demands of space exploration. The VLS-series meets the rigorous demands of TID (Total Ionizing Dose) and minimal outgassing, which are key factors for thriving in the harsh environment of space.

The VLS-series  encoders are characterized by the following features that sets them apart from other similar encoders:

• High precision and low profile
• Low power consumption
• Space proven performance
• Radiation: TID = 30KRAD
• SEE: 1E11 p/cm²/s protons @200MeV
• Low outgassing: TML < 1%, CVCM < 0.1%
• Vacuum environment: 10^-5 Torr
• Polyimide substrate
• Parylene conformal coating
• Innovative hollow shaft design
• Extreme temperature durability
• Rigorous testing & production: shock, vibration, and ESS, thermal vacuum optional
• Temperature: -55°C to +125°C
• Shock: IEC 60068-2-27:2009 100g for 6 ms
• Vibration: 20 to 2000 Hz per MIL-810G Category 24
• Relative Humidity: 98% condensation
• MTBF: 15 years
• EMC: IEC 6100-6-2, IEC 6100-6-4

Embark on your next LEO project with the unparalleled Netzer VLS-series – the only space-proven COTS solutions engineered for excellence, with affordable prices. The VLS-series is designed to elevate your project, featuring compact dimensions, minimal weight, and the signature Netzer hollow shaft for unmatched precision. These characteristics are not just benefits; they’re essentials for the demands of space exploration. With a legacy of transforming commercially available components and conventional encoders for the cosmos Netzer has accumulated a unique expertise through numerous successful missions. Our commitment to innovation means the VLS-series meets the rigorous demands of TID (Total Ionizing Dose) and minimal outgassing – key factors for thriving in the harsh environment of space.