3D-PAWS Manual
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  • Introduction
    • System Cost
    • Calibration and Data Quality Assessment
  • 3D-Printed Automatic Weather Station
    • 1. Light Sensor (End of Life)
    • 2. Rain Gauge Assembly
    • 3. Rain Gauge Calibration
    • 4. Rain Gauge Screen
    • 5. Anemometer
    • 6. Wind Vane Assembly - Digital Sensor
    • 7. Wind Vane - Alignment
    • 8. Radiation Shield Wiring
    • 9. Radiation Shield Assembly
    • Testing the Sensors
    • 10a. Data Logger - Particle
    • 10b. Data Logger - Raspberry Pi
    • 11. Solar Panel Support
    • 12. Building the Weather Station
    • 13. Siting the Station
    • Station Maintenance
  • Additional Instruments
    • Stream/Storm Surge Gauge
    • Snow Gauge
    • Air Quality
    • Black Globe
  • Data Loggers
    • Particle IoT
    • Raspberry Pi
      • Software Image
    • Adafruit Feather M0
  • Data Access and Visualization
    • CHORDS
    • Grafana
    • Particle / CHORDS Integrations
  • Downloads
    • 3D Printing Files
    • Current Full Manual (PDF version)
    • Materials and Tools
    • Rain Gauge Calibration Spreadsheet
  • Other 3D-PAWS Resources
    • Online Instrumentation Course
    • Previous Manual Versions
      • 3D-PAWS Manual 2022 (Qwiic cables)
      • 3D-PAWS Manual 2020
  • Helpful Videos
  • 3D-PAWS User Forum
  • Terms of Use
  • About Us
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  • Sensors Supported
  • Download the 3D-PAWS software

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  1. Data Loggers

Raspberry Pi

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Last updated 1 month ago

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The Raspberry Pi is a flexible platform that can be used to test sensors before installation as well as serve as a reliable data logger. It supports connection to Wi-Fi networks out of the box, and you can also add an external cellular modem for remote deployments without Wi-Fi access.

Note

The Raspberry Pi 3B+ and 4 models require significantly more power than microcontroller-based options like the Particle Boron. While the Particle Boron can operate efficiently on the smaller Voltaic solar panels and batteries we recommended, the Raspberry Pi 3B+ and 4 typically draw between 3.4 and 15 watts depending on workload, which means you’ll need a much larger solar panel and battery setup to ensure reliable, continuous operation-especially in remote or off-grid deployments. For example, a minimum 12W–22W solar panel is recommended for the Pi 3B+, and even higher capacity is necessary for the Pi 4, along with a robust battery sized for overnight and cloudy-day operation. Always size your power system according to your location’s sunlight availability and your Pi’s expected power draw to avoid interruptions in data collection.

Sensors Supported

  • Light sensor

  • Rain Gauge

  • Anemometer

  • Wind Vane

  • Radiation Shield (Temperature, Pressure, & Relative Humidity)

Download the 3D-PAWS software

https://github.com/3d-paws/3D-PAWS-Raspberry-Pi