IR21531D

IR21531D


Specifications
SKU
12610217
Details

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Parameter Symbol Min Typical Max Unit Conditions
Supply Voltage VDD 4.5 - 20 V -
High-Side Driver Supply Voltage VB 10 - 60 V -
Low-Side Driver Supply Voltage VSS 0 - -VB V -
Maximum Continuous Output Current IOUT - 2 - A Continuous, per channel
Maximum Peak Output Current IOUT(PK) - 3 - A Peak, per channel
Input Logic High Voltage VIH 2.0 - VDD V -
Input Logic Low Voltage VIL - - 0.8 V -
Propagation Delay td - 50 - ns -
Minimum Pulse Width tmin 75 - - ns -
Operating Temperature Range TA -40 - 125 掳C -
Storage Temperature Range TSTG -65 - 150 掳C -

Instructions for Use:

  1. Power Supply Connections:

    • Connect VDD to the supply voltage (4.5V to 20V).
    • Connect VB to the high-side driver supply voltage (10V to 60V).
    • Connect VSS to the low-side driver supply voltage (0V to -VB).
  2. Input Signal:

    • Apply logic high (VIH) and logic low (VIL) signals to the input pins to control the high-side and low-side drivers.
    • Ensure that the input signals meet the specified voltage levels to avoid incorrect operation.
  3. Output Current:

    • The maximum continuous output current per channel is 2A, and the peak output current can reach up to 3A.
    • Do not exceed these limits to prevent damage to the device.
  4. Propagation Delay:

    • The typical propagation delay is 50ns. This is the time it takes for the output to respond to an input signal change.
  5. Minimum Pulse Width:

    • The minimum pulse width that can be reliably detected is 75ns. Ensure that your control signals have a pulse width greater than this value.
  6. Temperature Considerations:

    • The operating temperature range is from -40掳C to 125掳C. Ensure that the device operates within this range to maintain reliability.
    • The storage temperature range is from -65掳C to 150掳C. Store the device in this range to prevent damage.
  7. Layout and PCB Design:

    • Use proper PCB layout techniques to minimize parasitic inductance and capacitance, which can affect performance.
    • Place decoupling capacitors close to the power supply pins to ensure stable operation.
  8. Protection:

    • Implement appropriate protection circuits, such as overvoltage and overcurrent protection, to safeguard the device and connected components.
  9. Testing and Debugging:

    • Use an oscilloscope to monitor the input and output signals during testing to ensure proper operation.
    • Refer to the datasheet for detailed information on testing procedures and troubleshooting tips.
(For reference only)

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