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ISO6542 4-Channel Digital Isolator Carrier, 2/2, Default High, Functional Isolation |
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ISO6521 2-Channel Digital Isolator Carrier, 1/1, Default High, Functional Isolation |
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ACS37200LLXTR-100B5 Current Sensor Compact Carrier -100A to +100A, 5V |
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MP6603 Stepper Motor Driver Carrier (Soldered Header Pins) |
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Pololu Basic 2-Channel SPDT Relay Carrier with 12VDC Relays, Terminal Blocks, and JST SH-Style Top-Entry Connector |
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Glideforce GF01-121005-2-66 Micro Linear Actuator with Feedback Potentiometer: 12V, 4.3kgf, 17.6mm/s, 50mm Stroke |
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8.4V, 5A Step-Down Voltage Regulator D42V55F8 |
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Pololu Basic SPDT Relay Carrier with 5VDC Relay, Terminal Blocks, and JST SH-Style Top-Entry Connector |
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QTRX-MD-01A-S Reflectance Sensor: 1-Channel, 8mm Wide, Analog Output, Low Current, Side-Entry Connector |
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Pololu Digital Distance Sensor v2, 10cm, Side-Entry Connector |
Understanding battery capacity: Ah is not A
- 12 March 2018To calculate how long your appliance or equipment will operate for, you times maH by volts then divide by watts.
I am trying to build a 10 x 1.2v 10,000maH per D cell NiMH parallel battery pack and step up to 12v 50 amps.
I saw some research that says D cells should run optimal between 5 and 10 amps and can handle peaks upto 30 amps. The higher the amps the thicker the core must be. The amps are generaly matched by the maH though and they can handle more temporarily. I should imagine a TRANSFORMER will work for my project as long as there are enough electrons.
Any suggestions.