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Installing Solar Power for Birdnet-pi in Remote locations
Installing Solar Power for Birdnet-pi in Remote locations
In remote locations, staying connected and powered up can be a challenge. I'll guide you through setting up a solar-powered BirdNet-Pi —a Raspberry Pi-based device—complete with solar panels, batteries, an inverter, and a cellular hotspot for remote deployment.
In remote locations, staying connected and powered up can be a challenge. I'll guide you through setting up a solar-powered BirdNet-Pi —a Raspberry Pi-based device—complete with solar panels, batteries, an inverter, and a cellular hotspot for remote deployment.
Parts used:
1. Bird Net-Pi: A Raspberry Pi 4 setup with BirdNet-Pi, typical draw is roughly 15 watts.
2. Solar Panels: Four 25-watt solar panels.
3. Batteries: Two 12V, 35Ah deep cycle batteries.
4. Inverter: A DC to AC inverter to power the Raspberry Pi.
5. Solar Panel Controller: A charge controller to efficiently manage the solar panel charging process.
6. Cellular Hotspot: A reliable cellular hotspot for remote internet connectivity.
Wiring the Solar Panels:
Connect the positive terminal of each solar panel to the positive terminal of the next one, and the negative terminal of each solar panel to the negative terminal of the next one, forming a series-parallel combination.
Ensure that the combined output voltage of the solar panels is suitable for charging your batteries (usually 12V for a 12V battery bank).
Wiring the Batteries:
Connect the positive terminals of the two 12V 35Ah batteries together.
Connect the negative terminals of the batteries together, forming a parallel combination
Connect the positive and negative terminals of the battery bank to the input terminals of the Solar Controller
Note: Parallel wiring connects the positive terminal of one battery to the positive terminal of another battery and the negative terminal of one battery to the negative terminal of another battery. It essentially combines the capacities of the batteries while keeping the voltage the same.
This is useful when you want to increase the total capacity (Ah) of your battery bank while keeping the voltage the same.
To connect batteries in parallel, use heavy-gauge wire and ensure all positive terminals are connected together and all negative terminals are connected together.
Adding the Solar/Charge Controller:
Connect the solar panel array to the input terminals of the charge controller.
Connect the battery bank to the output terminals of the charge controller.
Connect the inverter to the input terminals of the charge controller
Adding the Inverter:
Connect the positive and negative terminals of the inverter to the input terminals of the solar controller
Connect your Raspberry Pi and other devices to the AC output of the inverter.
Note: 120 Watt Continuous/240 Watt Peak Modified Sine Wave Power Inverter was used in this example
Deploying the Cellular Hotspot:
Place the cellular hotspot in a location with a strong cellular signal.
Configure the hotspot to connect to the cellular network.
Connect your Raspberry Pi to the hotspot for internet connectivity.
The Enclosure:
Everything is enclosed in this waterproof case to keep it safe from the elements
Conclusion:
By setting up a solar-powered BirdNet-Pi you can enjoy uninterrupted remote operation. This setup provides both power and internet connectivity, making it perfect for outdoor applications, birdwatching, surveillance, or any project where power and connectivity are a challenge.
Happy bird watching!
You can find out more about this project at the Middle Susquehanna River Keeper website: http://www.middlesusquehannariverkeeper.org/birdnet.html
Interactive map of where the BirdNet-Pi is deployed running solar power and celluar uplink
Interactive map of where the BirdNet-Pi is deployed running solar power and celluar uplink
Energy storage needs for 24/7 operation with a Raspberry Pi
Energy storage needs for 24/7 operation with a Raspberry Pi
1. Raspberry Pi Energy Consumption: - The Raspberry Pi draws 5V at 3A, which is equivalent to 15 watts (5V x 3A).
2. Solar Panel Energy Production: - Your 100-watt solar panel generates 100 watts per hour under optimal conditions.
3. Energy Required for 24/7 Operation: - To calculate the daily energy consumption, you'll need to convert the Raspberry Pi's power consumption from watts to watt-hours. - Daily energy consumption = 15 watts x 24 hours = 360 watt-hours.
4. Battery Capacity Needed: - You need to store enough energy to power your Raspberry Pi during the night or cloudy days when the solar panel isn't generating energy. - Assume you want a buffer for at least two days without sunlight, so you would need a total of 360 watt-hours x 2 days = 720 watt-hours of battery capacity.
Now, let's calculate how many 12V 35Ah batteries you would need to store 720 watt-hours of energy:
Battery Capacity (in watt-hours) = Battery Voltage (in volts) x Battery Capacity (in ampere-hours)Battery Capacity (in watt-hours) = 12V x 35Ah = 420 watt-hours
To store 720 watt-hours, you would need:
Number of Batteries = Required Battery Capacity / Battery Capacity per BatteryNumber of Batteries = 720 watt-hours / 420 watt-hours per battery ≈ 1.71 batteries
Since you cannot have a fraction of a battery, you would need at least two 12V 35Ah batteries to meet your energy storage needs for 24/7 operation with a Raspberry Pi using a 100-watt solar panel.Again, please keep in mind that these calculations are based on ideal conditions and do not account for factors like energy losses, variations in solar panel efficiency, and other real-world variables. Having some buffer capacity in the form of additional batteries is a good practice to ensure reliable 24/7 operation.
2. Solar Panel Energy Production: - Your 100-watt solar panel generates 100 watts per hour under optimal conditions.
3. Energy Required for 24/7 Operation: - To calculate the daily energy consumption, you'll need to convert the Raspberry Pi's power consumption from watts to watt-hours. - Daily energy consumption = 15 watts x 24 hours = 360 watt-hours.
4. Battery Capacity Needed: - You need to store enough energy to power your Raspberry Pi during the night or cloudy days when the solar panel isn't generating energy. - Assume you want a buffer for at least two days without sunlight, so you would need a total of 360 watt-hours x 2 days = 720 watt-hours of battery capacity.
Now, let's calculate how many 12V 35Ah batteries you would need to store 720 watt-hours of energy:
Battery Capacity (in watt-hours) = Battery Voltage (in volts) x Battery Capacity (in ampere-hours)Battery Capacity (in watt-hours) = 12V x 35Ah = 420 watt-hours
To store 720 watt-hours, you would need:
Number of Batteries = Required Battery Capacity / Battery Capacity per BatteryNumber of Batteries = 720 watt-hours / 420 watt-hours per battery ≈ 1.71 batteries
Since you cannot have a fraction of a battery, you would need at least two 12V 35Ah batteries to meet your energy storage needs for 24/7 operation with a Raspberry Pi using a 100-watt solar panel.Again, please keep in mind that these calculations are based on ideal conditions and do not account for factors like energy losses, variations in solar panel efficiency, and other real-world variables. Having some buffer capacity in the form of additional batteries is a good practice to ensure reliable 24/7 operation.
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