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Circuit design for tracking 0-12V deep cycle battery voltage with 5-min interval logging

39 21
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  • #1 21659292
    Victor Ocheri
    Anonymous  
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  • #2 21659293
    Olin Lathrop
    Anonymous  
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  • #3 21659294
    Victor Ocheri
    Anonymous  
  • #4 21659295
    Cody Miller
    Anonymous  
  • #5 21659296
    Victor Ocheri
    Anonymous  
  • #6 21659297
    Victor Ocheri
    Anonymous  
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  • #7 21659298
    Cody Miller
    Anonymous  
  • #8 21659299
    Alec
    Anonymous  
  • #9 21659300
    Victor Ocheri
    Anonymous  
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  • #10 21659301
    Victor Ocheri
    Anonymous  
  • #11 21659302
    Victor Ocheri
    Anonymous  
  • #14 21659305
    David Deleonardo
    Anonymous  
  • #15 21659306
    Dennis Bauer
    Anonymous  
  • #16 21659307
    Alec
    Anonymous  
  • #17 21659308
    Victor Ocheri
    Anonymous  
  • #18 21659309
    Victor Ocheri
    Anonymous  
  • #19 21659310
    Victor Ocheri
    Anonymous  
  • #20 21659311
    Victor Ocheri
    Anonymous  
  • #21 21659312
    Cody Miller
    Anonymous  
  • #22 21659313
    Victor Ocheri
    Anonymous  

Topic summary

The discussion focuses on designing a circuit to measure and log the voltage of 0-12V deep cycle batteries at 5-minute intervals, with data storage and remote transmission capabilities. The solution involves using a microcontroller (MCU) with an integrated analog-to-digital converter (ADC) to sample battery voltage, employing a resistor voltage divider for calibration within the 0-12V range. Data storage can be handled by either the MCU's internal EEPROM or an external EEPROM chip communicating via SPI or I2C, with the MCU acting as the bus master. For timing, either the MCU's internal clock or an external real-time clock (RTC) module can generate the 5-minute measurement intervals. Wireless data transmission to a remote database is considered, with options including RF link transmitters and integrated RF transceiver modules. Powering the measurement circuit from the monitored deep cycle batteries is uncertain due to high capacity and potential risks; thus, separate low-amperage batteries are suggested. Recommended components include microcontrollers with built-in ADC and EEPROM, or modules combining ADC, MCU, RF transceiver, and flash memory for simplified integration. Examples and references include SparkFun RF Link Transmitter, Digikey RF modules with 32k flash memory, Microchip microcontrollers with 10-bit ADC and ASK/FSK RF transmitters, and Synapse Wireless SNAP system for streamlined wireless communication and data handling.
Summary generated by the language model.
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