RFDesign RFD900ux Telemetry Modem Bundle (FCC Approved)
by RFDesign

Introducing the RFDesign RFD900ux Telemetry Modem Bundle (FCC Approved), the ultimate solution for long-range telemetry and communication needs. This comprehensive kit is designed to provide seamless and reliable data transmission over extended distances, making it ideal for UAV control, remote monitoring, and industrial automation applications.

Key Features:

• Long-Range Communication: Achieve line-of-sight ranges of up to 40 km, depending on antenna configuration and environmental conditions.
• High Data Throughput: Supports air data rates up to 224 kbps, ensuring efficient and rapid data transfer.
• Robust Connectivity: Utilizes Frequency Hopping Spread Spectrum (FHSS) technology for enhanced interference immunity and reliable connections.
• Diversity Antenna Support: Features automatic antenna port diversity to optimize signal reception and transmission.
• Compact and Lightweight Design: Each modem measures 25 mm x 33 mm x 10.4 mm and weighs just 8 grams, making it suitable for space-constrained applications.
• FCC Compliance: Pre-configured and locked radio parameters ensure adherence to FCC regulations under CFR15.247.

Bundle Components:

• 2 x RFD900ux-US Radio Modems
• 1 x 900MHz Quarter Wave Monopole Antenna (2.1 dBi)
• 1 x 900MHz Right Angle Quarter Wave Monopole Antenna (2.1 dBi)
• 4 x 900MHz Half Wave Dipole Antennas (3 dBi)
• 1 x FTDI USB Cable
• 4 x RFD900u Antenna Cables (RPSMA)
• 1 x 900ux to 8-Way Socket Cable
• 1 x RFD900ux Multi Cable (150 mm)

Specifications:

• Frequency Band: 902–928 MHz
• Transmit Power: Adjustable from 0 to 30 dBm in 1 dBm steps
• Receiver Sensitivity: Up to -108 dBm at 12 kbps air data rate
• Serial Interface Data Rates: 1200 bps to 1 Mbps
• Operating Voltage: 5V nominal
• Current Consumption: 1A peak at maximum transmit power
• Operating Temperature Range: -40°C to +85°C

By purchasing this complete kit, you benefit from a cost-effective solution that ensures all components are perfectly matched for optimal performance.