10 pcs : MAX16133HPB+ - Supervisory Circuits Low-Voltage AP Supervisors
    • 10 pcs : MAX16133HPB+ - Supervisory Circuits Low-Voltage AP Supervisors

    10 pcs : MAX16133HPB+ - Supervisory Circuits Low-Voltage AP Supervisors

    10(electronicparts)700MAX16133HPB+
    10 pcs : MAX16133HPB+ - Supervisory Circuits Low-Voltage AP Supervisors
    £44.57
    Delivery: 7-10 business days
    Quantity
    10 Items

    Description
    Supervisors, Voltage Monitors & Sequencers Analog Devices Supervisors, Voltage Monitors, and Sequencers are a broad selection of innovative microprocessor supervisory solutions. The selection includes low-voltage, high-precision µP supervisors, linear voltage regulators with low quiescent-current devices, and voltage-monitoring circuits with sequencing capabilities. These devices offer tremendous flexibility and are designed for use in automotive, industrial, and telecom applications.
    Product Details
    10(electronicparts)700MAX16133HPB+
    MAX16133HPB+
    10 Items

    Data sheet

    Manufacturer
    Analog Devices Inc.
    Series
    MAX16132-MAX16135
    Maximum Operating Temperature
    + 125 C
    Minimum Operating Temperature
    - 40 C
    Mounting Style
    SMD/SMT
    Type
    Voltage Supervisory
    Output Type
    Active Low, Open Drain
    Accuracy
    0.01
    Product Type
    Supervisory Circuits
    Product Category
    Supervisory Circuits
    Manual Reset
    No Manual Reset
    Packaging
    Cut Tape
    RoHS
    Details
    Supply Voltage - Max
    5.5 V
    Brand
    Analog Devices / Maxim Integrated
    Factory Pack Quantity Factory Pack Quantity
    10
    Subcategory
    PMIC - Power Management ICs
    Watchdog Timers
    No Watchdog
    Unit Weight
    40 mg
    Pd - Power Dissipation
    408 mW
    Operating Supply Current
    12.5 uA
    Threshold Voltage
    2.5 V, 1.14 V
    Number of Inputs Monitored
    2 Input
    Battery Backup Switching
    No Backup
    Reset Delay Time
    20 ms
    Chip Enable Signals
    No Chip Enable
    Power Fail Detection
    No