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list all VBAT pins in a table format. For each pin provide its pin number, pin n...

@copilot list all VBAT pins in a table format. For each pin provide its pin number, pin name and function.
1y
Here is a table listing all the VBAT pins along with their pin numbers, pin names, and functions for the PIC32MK1024GPE100-I/PT:

Table


Pin NamePin NumberFunction
VBAT68Battery backup for selected peripherals; otherwise connect to VDD{3d85c87ff1ab5bd1ad117d8f4df63dfe}\{3d85c87f-f1ab-5bd1-ad11-7d8f4df63dfe\}.
1y
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please explain what VBAT does.

@copilot please explain what VBAT does.
1y
In a microcontroller or electronic circuit context, the VBAT pin is typically used for powering or maintaining power to certain parts of the circuit, even when the main power supply is disconnected.
Here are some common uses for the VBAT pin:
  • Battery Backup Power: VBAT is often connected to a battery (or other backup power source) to provide power to the real-time clock (RTC) and other memory circuits that need to retain information when the main power is lost.
  • RTC Preservation: Microcontrollers that include a real-time clock or can keep time will use the VBAT pin to retain timekeeping capability even if the main supply $VDD$ is powered down.
  • Low Power: In power-saving modes, a device may draw minimal current from the VBAT to maintain essential functions.
In the context of your project involving the PIC32MK1024GPE100-I/PT microcontroller, VBAT would serve a similar function, maintaining power to vital low-power components like a real-time clock or memory storage. Is that clear, or do you need more details?
1y
and if we dont use vat then
1y
If you don't use the VBAT pin in your design, here are some implications and considerations:
  • No Battery Backup: Without a VBAT connection, any part of the circuit that requires backup power—such as a real-time clock (RTC) or certain types of memory—will lose power when the main supply, VDDVDD, is turned off. This means you will lose the ability to keep time or retain certain data across power cycles.
  • Floating Pin: You should never leave the VBAT pin floating, even if you don't intend to use its backup functionality. A floating pin can lead to unpredictable behavior. It's generally advised to tie it to the ground (VSS) or connect it to VDDVDD to stabilize the pin's potential.
  • Reduced Functional Requirements: If your application does not require maintaining time or retaining specific data when powered off, you can safely ignore implementing VBAT functionality.
  • Design Simplicity: Not using VBAT can simplify the design, as you won't need to add a battery holder, battery circuit, or consider battery life in your system design.
In summary, if your application does not need the features facilitated by VBAT, the pin can be safely tied to a stable voltage level like VDDVDD or VSSVSS, ensuring the device behaves predictably. Would you like further guidance on whether your specific project needs VBAT?
1y
*vbat
1y
Got it! If you decide not to use VBAT in your design with the PIC32MK1024GPE100-I/PT microcontroller, here’s what you can do:
  • Tie VBAT to VDD: Connect the VBAT pin to the main supply voltage, $VDD$. This approach ensures that even without a battery, the pin has a defined potential, preventing any erratic behavior or unexpected power drains.
  • Or Tie VBAT to VSS: Alternatively, connect the VBAT pin to ground, $VSS$, especially if the device documentation suggests doing so when not using this feature.
By ensuring the VBAT pin is connected to a stable voltage, either $VDD$ or $VSS$, you avoid potential issues with the microcontroller function or reliability.
If you need any more detailed advice or have specific concerns related to your design, feel free to ask!
1y
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6
if battery is not used

@copilot if battery is not used
1y
If you're not using a battery in your project and the focus is on powering the microcontroller, you'll typically need to connect it to a stable power source. Let's go over the connections you might consider for powering the PIC32MK1024GPE100-I/PT microcontroller:
Power Supply Connections
  1. VDD Pins: Connect all VDD pins to a 3.3V regulated power supply. The microcontroller has several VDD pins which need to be powered for it to function properly.
    • Connect all VDD pins to a 3.3V power supply.
  2. VSS Pins: Connect all VSS pins to ground. This is necessary to establish the reference for the power supply.
    • Connect all VSS pins to the ground.
  3. AVDD and AVSS (if applicable): These pins may be used for analog circuits if you're utilizing them. Make sure AVDD is connected to 3.3V and AVSS is connected to ground.
    • Connect AVDD to a 3.3V power supply.
    • Connect AVSS to the ground.
  4. VUSB3V3 Pin: If you are utilizing USB functionality and need the internal USB transceiver power, connect this pin to 3.3V.
    • Connect VUSB3V3 to a 3.3V power supply.
Power Source
  • External Power Adapter: If the microcontroller is going to be powered from an external adapter, ensure it provides a regulated 3.3V output.
  • USB Power: If the microcontroller features USB, you may use USB power supply of 5V going through a linear regulator or LDO to step it down to 3.3V.
If you need to connect other peripherals or have questions on other connections, feel free to ask!
1y
Someone is typing...
5
2
please explain what RB14/VBUSON1 does.

@copilot please explain what RB14/VBUSON1 does.
1y
In the context of the PIC32MK1024GPE100-I/PT microcontroller, the pin labeled as "RB14/VBUSON1" serves multiple functions:
  • RB14: This indicates that the pin can be used as a general-purpose I/O (GPIO) pin associated with port B, bit 14. In GPIO mode, you can configure this pin as an input or output for interfacing with other digital signals in your circuit.
  • VBUSON1: This function suggests a specific role related to USB peripherals. Typically, "VBUSON" is used to control an external switch or circuitry when the microcontroller is involved in USB host operations. It usually indicates when the USB voltage (VBUS) should be supplied to downstream devices, essentially controlling the power to the USB devices that the microcontroller is hosting.
If your design involves USB functionality, this pin would be relevant for controlling power to USB devices. If you have more specific requirements for this pin or need further configuration details, let me know!
1y
Someone is typing...
3
please explain what VBAT does.

@copilot please explain what VBAT does.
1y
The VBAT pin on a microcontroller, such as the PIC32MK1024GPE100-I/PT you're using, is typically used for supplying power to the real-time clock (RTC) module or maintaining volatile memory like backup RAM when the main power $VDD$ is removed.
Here's a bit more detail:
  • RTC Functionality: The VBAT pin ensures that the RTC continues to keep time even when the main MCU is powered down. This is crucial for applications where timekeeping is essential, like in data loggers or any device that needs to maintain accurate time across power cycles.
  • Low Power Consumption: When the MCU is powered down, the VBAT supply usually consumes very little power, allowing for a prolonged time-keeping capability without draining the battery quickly.
  • Battery Backup: The VBAT pin is often connected to a small battery or capacitor that can keep the RTC running for extended periods, even if the device is disconnected from its main power source.
If you have any specific questions about implementing VBAT in your design or how it works with your microcontroller, feel free to ask!
1y
Someone is typing...


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PIC32MK1024GPE100-I/PT

PIC32MK1024GPE100-I/PT
Description

Created
Last updated by vasyl
1 Contributor(s)
vasyl

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Properties

Part Type
Microcontroller
Manufacturer Part Number
PIC32MK1024GPE100-I/PT
Designator Prefix
U

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