PI3USB102GZLEX

Diodes Incorporated PI3USB102GZLEX

Part Number:
PI3USB102GZLEX
Manufacturer:
Diodes Incorporated
Ventron No:
3163435-PI3USB102GZLEX
Description:
IC USB 2.0 SWITCH 2:1 10TQFN
ECAD Model:
Datasheet:
PI3USB102GZLEX

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Specifications
Diodes Incorporated PI3USB102GZLEX technical specifications, attributes, parameters and parts with similar specifications to Diodes Incorporated PI3USB102GZLEX.
  • Factory Lead Time
    20 Weeks
  • Mount
    Surface Mount
  • Mounting Type
    Surface Mount
  • Package / Case
    10-WFQFN
  • Number of Pins
    10
  • Operating Temperature
    -40°C~85°C TA
  • Packaging
    Cut Tape (CT)
  • Published
    2008
  • Feature
    Bi-Directional, USB 2.0
  • Part Status
    Active
  • Moisture Sensitivity Level (MSL)
    1 (Unlimited)
  • Number of Terminations
    10
  • ECCN Code
    EAR99
  • Resistance
    5Ohm
  • Applications
    USB
  • Max Power Dissipation
    500mW
  • Terminal Position
    QUAD
  • Terminal Form
    NO LEAD
  • Number of Functions
    1
  • Supply Voltage
    3.3V
  • Terminal Pitch
    0.4mm
  • Number of Outputs
    2
  • Number of Channels
    1
  • Max Supply Voltage
    5.5V
  • Min Supply Voltage
    3V
  • Operating Supply Current
    1μA
  • Turn On Delay Time
    50 ns
  • Logic Function
    Demultiplexer, Multiplexer
  • Output Characteristics
    3-STATE
  • Supply Type
    Single
  • Bandwidth
    1 GHz
  • Turn-Off Delay Time
    11 ns
  • Output Polarity
    COMPLEMENTARY
  • Logic IC Type
    MULTIPLEXER AND DEMUX/DECODER
  • On-State Resistance (Max)
    5Ohm
  • Multiplexer/Demultiplexer Circuit
    2:1
  • Voltage - Supply, Single (V )
    3V~5.5V
  • Height Seated (Max)
    0.8mm
  • RoHS Status
    ROHS3 Compliant
  • Lead Free
    Lead Free
Description
PI3USB102GZLEX Overview
It is employed in the way of {0} package.In the {0} package, it is used.It is used as part of the {0} package.It is employed in the way of the {0} package in order to perform its functions.A package called {0} uses it to implement this functionality.An example of its use is in the {0} package.It is used in conjunction with the package {0}.It takes advantage of the {0} package to perform its functions.In order to perform its functions, it utilizes the {0} package.In order to perform its functions, it is employed in the same way as the {0} package.{0} is the recommended mounting type for this part.The recommended mounting type for this part is {0}.This part should be mounted as {0}.It is recommended to mount this part using type {0}.Mounting type {0} is recommended.This part is best mounted with type {0}.A {0} mounting type is recommended for this part.A mounting type of {0} is recommended.For this part, {0} is the recommended mounting type.This part should be mounted with the {0} mounting type.The device has {0} channels on it.{0} channels are available on the device.It has {0} channels.{0} channels are present on the device.In this device, there are {0} channels.{0} channels are on the device.As far as the device is concerned, it has {0} channels.It has a total of {0} channels on it.It appears that the device has only {0} channels available to it.The device has a channel count of {0}.The device is contained within the {0} package.The {0} package contains the device.{0} is the package containing the device.This device is enclosed in the package {0}.{0} is the package that contains the device.{0} is the package in which the device is contained.This device is packaged in {0}.This device can be found within the package {0} which contains the device.Embedded within the {0} package is the device.In the package {0} is the device.It is suitable for a wide range of applications, including {0}.There are a wide variety of applications for it, including {0}.There are many possible applications for it, including {0}.With its versatility and wide range of applications, it is suitable for a wide range of purposes, including {0}.There is a wide variety of applications for which it is suitable, including (0).As a result, it can be used in any number of different applications, including {0}.With its features, it can be used in a wide range of applications, such as {0}.In terms of applications, it is for a wide range of fields, including {0}.It can be applied to a wide range of applications, including {0}.There are a variety of applications for it, including {0}.It varies the range of {0} operating temperature.The range of {0} operating temperatures can be varied.Variations are made to the {0} operating temperature range.Depending on the operating temperature, it varies the range of {0}.A variable range {0} of operating temperatures is provided.Temperatures are varied in the {0} operating range.Depending on the setting, the operating temperature at {0} can be varied.Temperatures can be controlled at {0} according to the setting.It is possible to set the temperature to {0} according to the setting.Depending on the settings, temperatures can be controlled at {0}.The number of terminations on the chip is {0}.There are {0} terminations on the chip.This chip has {0} terminations.{0} terminations are present on the chip.{0} is the number of terminations on the chip.It has {0} terminations.{0} terminations are located on the chip.It is a chip with {0} terminations.This chip has a total of {0} terminations on it.As you can see, there are {0} termination on the chip.This part includes {0} functions for your reference.In this part, you will find {0} functions.Listed below are {0} functions for your reference.In this part, there are {0} functions.You will find in this part {0} functions.For your convenience, this part includes {0} functions.To give you a better understanding of this part, it includes {0} functions.It is for your convenience that this part includes {0} functions.For your convenience, this part includes {0} functions.The {0} functions included in this part are for your convenience.{0} can be found when using this part.Using this part, {0} can be found.This part displays {0}.It is possible to find {0} using this part.When using this part, we can find {0}.If this part is used, {0} will appear.When using this part, it is possible to find {0}.{0} can be found using this part.There is a possibility of finding {0} when using this part.This part allows finding {0}.Please take in mind that this chip should be run at {0}.Make sure this chip is running at {0}.It is important to bear in mind that this chip should be run at {0}.The chip needs to be run at {0}.This chip should always be run at {0}.It is important to remember that this chip should be run at the {0} setting.In order to get the best performance out of this chip, it should be run at {0}.This chip is designed to be run at a {0} voltage level. Please keep this in mind when using it.It is important to take into consideration that this chip should be run at {0}.The chip should be run at a value of {0} so that it can function properly.Its base part number is {0}.{0} is its base part number.The base part number of this item is {0}.This part has the number {0} as its base part number.The base part number is {0}.As far as its part number goes, it is {0}.There is a base part number of {0} for this product.There is a part number {0} assigned to it as its base part number.As far as the base part number is concerned, it is {0}.There is no base part number associated with it.{0} pins are available on the device.There are {0} pins available on the device.An array of {0} pins is present on the device.There are {0} pins available on this device.There are {0} pins on the device.It is possible to use {0} pins on the device.A device with {0} pins is available for use.On the device, there are {0} pins that can be used.A total of {0} pins are available on this device.The device has an available number of {0} pins.To mount this part with {0}.Mounting this part with {0}.Using {0} as the mounting point for this part.{0} is used to mount this part.{0} is recommended for mounting this part.{0} is needed to mount this part.{0} is the mounting point for this part.With {0}, mount this part.With {0} this part can be mounted.{0} is recommended for mounting this part.The sum of the IC chip pins is {0}.There are {0} pins on the IC chip.A chip's pins add up to {0}.It is {0} when the IC chip pins are added up.Each IC chip pin adds up to {0}.There are a total of {0} pins on the IC chip.The sum of the IC chip pins is {0}.The total number of pins on an IC chip is {0}.IC chip pins sum to {0}.There are {0} pins on the IC chip when the pins are added up.It can handle a maximum supply voltage of {0}.A maximum supply voltage of {0} can be handled by it.Voltages up to {0} can be supplied to it.The maximum supply voltage is {0}.Supply voltages of {0} are the maximum it can handle.There is a maximum voltage limit of {0}.{0} is the maximum supply voltage it can handle.This device is capable of handling a maximum supply voltage of {0}.Supply voltages as high as {0} can be handled.Supply voltages up to {0} are supported.It can handle a minimum supply voltage of {0}.Supply voltages as low as {0} can be handled by it.It can operate at a minimum voltage of {0}.It is capable of handling a minimum supply voltage of {0}.Minimum supply voltage is {0}.A voltage of {0} can be used as the minimum supply voltage.Supply voltages of {0} are sufficient for it.There is a minimum supply voltage of {0} that it can handle.This device can handle a minimum supply voltage of {0} without any problems.In order for it to function, it has to be powered by a minimum supply voltage of {0}.The device resistance should stay within the range of {0}.{0} is an ideal range for device resistance.A device's resistance should be within the range of {0}.The resistance of the device should remain within the range of {0}.It is recommended to keep the device's resistance at {0}.There should be a resistance of {0} on the device.Ideally, the device resistance should stay within the range of {0}.It is recommended that the device resistance remain at {0}.It is important that the resistance of the device remain within the range of {0}.It is recommended that the device resistance be maintained within the range of {0}.This part can operate supply current at {0}.The part can be operated at {0} supply current.The supply current for this part can be set to {0}.Using a supply current of {0} will allow this part to operate.When the supply current is at {0}, the part can operate.There is no problem operating this part at {0} supply current.Parts that operate at {0} supply current can be used.It is possible to operate this part with a supply current of {0}.With a supply current of {0}, this part will be able to run.A supply current of {0} can be used with this part in order to make it operate.The device is a part of {0} family.In the {0} family, the device belongs.{0} is the family name of the device.This device belongs to the family of {0}.Family {0} includes the device.This device is a member of the {0} family of devices.It is a part of the family of devices known as {0}.There is a family of devices called {0} which includes this device.This device can be found in the family of {0}.This device falls under the {0} family of devices.{0} is the analog IC that this device employs.The analog IC used in this device is {0}.A device like this uses an analog integrated circuit (IC) called {0}.This device employs an analog IC of type {0}.The analog IC that this device uses is {0}.Analog IC {0} is employed by this device.This device utilizes an analog IC {0}.There is an analog IC called {0} that is used by this device.This device is equipped with an analog integrated circuit (IC) called {0}.The analog IC to which this device is connected is {0}.This chip's operating supply voltage is stated to be at the range of {0}.According to its manufacturer, this chip operates at a voltage of {0}.A voltage of {0} is stated for the operating supply voltage of this chip.A voltage range of {0} is listed for this chip's operating supply voltage.According to its specification, this chip runs on an operating supply voltage of {0}.A {0} operating voltage is specified for this chip.In accordance with its specifications, this chip operates at a supply voltage of {0}.It runs on {0} voltage according to its specification.Chip specifications call for a voltage of {0} for the operating supply.A {0} voltage operating supply voltage is specified for this chip.This part's maximum supply voltage (Vsup) should not be more than {0}.Vsup (supply voltage) should not exceed {0}.The maximum supply voltage of this part (Vsup) should not exceed {0}.In order to ensure that this part is operating properly, its maximum supply voltage (Vsup) should not exceed {0}.Voltage (Vsup) should not exceed {0} for this part.Voltage supply (Vsup) for this part should not exceed {0}.In this part, the maximum supply voltage (Vsup) should not exceed {0}.In order to avoid damage to the part, the maximum supply voltage (Vsup) should not exceed {0}.In order for the part to function properly, the maximum supply voltage (Vsup) should not exceed {0}.There should not be any more than {0} voltage supply for this part.Conduct this part under the dual supply voltage of {0}.The dual supply voltage should be {0}.Ensure that the dual supply voltage is {0}.Conduct this part at {0} dual supply voltage.Under {0}, conduct this part.This part should be operated at dual supply voltage {0}.It is recommended that you conduct this part under the dual supply voltage of {0}.The dual supply voltage should be set to {0} in order to conduct this part.The dual supply voltage must be {0} for this part to be conducted.Ensure the dual supply voltage of {0} is applied to this part.To ensure stable power, it runs dual supply voltage up to {0}.Dual supply voltages up to {0} ensure stable power.In order to ensure stable power, it runs dual supply voltages up to {0}.A dual supply voltage of {0} is used to make sure stable power is provided.With dual supply voltage up to {0}, it ensures stable power.Dual supply voltages are used to ensure stable power up to {0}.The system runs on dual supply voltages up to {0} to ensure stability.Up to {0} voltages are run to ensure stable power.It runs dual supply voltages up to {0} in order to ensure stable power.The unit operates on dual supply voltages up to {0} in order to ensure stable power supply.There are {0} inputs to operate.To operate, there are {0} inputs.Inputs to be operated are {0}.Operating on {0} inputs is possible.Operation requires {0} inputs.It is possible to operate {0} inputs.Operation can be performed on {0} inputs.It is necessary to operate on {0} inputs.A total of {0} inputs are available for operation.To operate, there are only {0} inputs available.It is suggested that it be used at temperatures below {0}.The product should be used at temperatures below {0}.At temperatures below {0}, it is recommended that it be used.Using it below {0} temperatures is recommended.Temperatures below {0} are recommended for its use.A temperature below {0} is recommended for use.Temperatures below {0} should be used.It is recommended to use it at temperatures below [0}.There is a recommendation that it be used at temperatures below [0}.In order to get the best results, it should be utilized at temperatures below {0}.There are {0} outputs on this component.This component has {0} outputs.As far as this component is concerned, there are {0} outputs.{0} outputs are available on this component.It has {0} outputs.A component such as this has {0} outputs.Currently, there are {0} outputs available on this component.On this component, {0} outputs are available.This component has a total of {0} outputs available for use.It is possible for this component to have {0} outputs.To activate this device, the temperature should not be less than {0}.This device must be activated at a temperature greater than {0}.Temperatures below {0} are not suitable for activating this device.The temperature should not be lower than {0} for this device to operate.Activation of this device requires a temperature of at least {0}.It is important that the temperature of the device does not fall below [0}.In order for this device to be activated, the temperature should not be below {0}.This device will not function if the temperature is below {0}.There must be a temperature greater than {0} to activate this device.It is required that the device be activated at a temperature greater than {0}.The maximum supply current (Isup) must not exceed {0}.There must be no more than {0} supply current (Isup).It is prohibited to exceed {0} in terms of supply current (Isup).Current supply (Isup) cannot exceed {0}.If Isup exceeds {0}, the power supply must be turned off.It is forbidden to exceed {0} for the supply current (Isup).Isup cannot exceed {0} as the maximum supply current.Maximum supply current (Isup) must not exceed {0}.Ensure that the maximum supply current (Isup) does not exceed the limit {0}.In order to operate this device, it is essential that the maximum supply current (Isup) not exceed {0}.It has a maximum supply current of {0}.{0} is its maximum supply current.A maximum supply current of {0} is available.A maximum supply current of {0} can be applied to it.There is a maximum supply current of {0}.This device has a maximum supply current of {0}.In terms of supply current, it has a maximum of {0}.A maximum supply current of {0} is available from this device.During normal operation, the maximum current that can be supplied to it is {0}.With a maximum supply current of {0}, it is suitable for use in most applications.The {0} series include this electrical component.Electrical components of the {0} series include this one.Electrical components such as this can be found in the {0} series.There is an electrical component like this in the {0} series.This electrical component is part of the {0} series.Electrical components of this type are included in the {0} series.Among the electrical components included in the {0} series is this one.The {0} series contains this electrical component.This electrical component is included in the series {0}.It is a component of the {0} series.Please keep the following points in mind while you use the device: {0}.In order to maximize the functionality of the device, please keep the following points in mind: {0}.While using the device, you should keep the following points in mind: {0}.When using the device, please keep these things in mind: {0}.As you use the device, please keep the following points in mind: {0}.You should remember the following when using the device: {0}.Keep the following points in mind when using the device: {0}.During the use of the device, please be aware of the following points: {0}It is important that you keep the following things in mind while using the device: {0}.In order to make use of this device as safely as possible, please remember the following points: {0}.

PI3USB102GZLEX Features

PI3USB102GZLEX Applications
There are a lot of Diodes Incorporated PI3USB102GZLEX Special Purpose Analog Switches applications.

Servo motors
Electronic circuits
Multiplication
Image search
Dynamic applications
Data distribution
Advanced breast cancer treatments
Multi-axis control
Linear distance measurement
Metal forming & fabrication
PI3USB102GZLEX More Descriptions
High Speed Spdt Usb Switch, -40To85Deg C Rohs Compliant: Yes |Diodes Inc. PI3USB102GZLEX
Dual SPDT for USB 2.0 HS Compliance and Flow Through Pinout with 5V protection, RoHSDiodes Inc SCT
USB Power SW Single 3V to 5.5V 10-Pin TQFN T/R
5Ω 1 TQFN-10(1.3x1.6) Analog Switches / Multiplexers ROHS
Analog Multiplexer Single 2:1 10-Pin TQFN T/R
Multiplexer And Demux/Decoder, 3USB Series, 1-Func, 1 Line Input, 2 Line Output, Complementary Output
USB2 Switch W-QFN1613-10 T&R 3.5K
IC AUDIO/VIDEO SW NEG 6MICROPAK
Product Comparison
The three parts on the right have similar specifications to PI3USB102GZLEX.
  • Image
    Part Number
    Manufacturer
    Factory Lead Time
    Mount
    Mounting Type
    Package / Case
    Number of Pins
    Operating Temperature
    Packaging
    Published
    Feature
    Part Status
    Moisture Sensitivity Level (MSL)
    Number of Terminations
    ECCN Code
    Resistance
    Applications
    Max Power Dissipation
    Terminal Position
    Terminal Form
    Number of Functions
    Supply Voltage
    Terminal Pitch
    Number of Outputs
    Number of Channels
    Max Supply Voltage
    Min Supply Voltage
    Operating Supply Current
    Turn On Delay Time
    Logic Function
    Output Characteristics
    Supply Type
    Bandwidth
    Turn-Off Delay Time
    Output Polarity
    Logic IC Type
    On-State Resistance (Max)
    Multiplexer/Demultiplexer Circuit
    Voltage - Supply, Single (V )
    Height Seated (Max)
    RoHS Status
    Lead Free
    Supplier Device Package
    Max Operating Temperature
    Min Operating Temperature
    Base Part Number
    Power Dissipation
    Propagation Delay
    Data Rate
    Number of Inputs
    Radiation Hardening
    Contact Plating
    Operating Supply Voltage
    3db Bandwidth
    High Level Output Current
    Surface Mount
    Pbfree Code
    Peak Reflow Temperature (Cel)
    Reflow Temperature-Max (s)
    JESD-30 Code
    Telecom IC Type
    Length
    Width
    View Compare
  • PI3USB102GZLEX
    PI3USB102GZLEX
    20 Weeks
    Surface Mount
    Surface Mount
    10-WFQFN
    10
    -40°C~85°C TA
    Cut Tape (CT)
    2008
    Bi-Directional, USB 2.0
    Active
    1 (Unlimited)
    10
    EAR99
    5Ohm
    USB
    500mW
    QUAD
    NO LEAD
    1
    3.3V
    0.4mm
    2
    1
    5.5V
    3V
    1μA
    50 ns
    Demultiplexer, Multiplexer
    3-STATE
    Single
    1 GHz
    11 ns
    COMPLEMENTARY
    MULTIPLEXER AND DEMUX/DECODER
    5Ohm
    2:1
    3V~5.5V
    0.8mm
    ROHS3 Compliant
    Lead Free
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
  • PI3USB40AEX
    9 Weeks
    Surface Mount
    Surface Mount
    48-TFSOP (0.240, 6.10mm Width)
    48
    -
    Tape & Reel (TR)
    -
    -
    Obsolete
    1 (Unlimited)
    -
    -
    8Ohm
    -
    500mW
    -
    -
    -
    -
    -
    8
    8
    3.6V
    3V
    800μA
    15 ns
    -
    -
    Single
    500MHz
    9 ns
    -
    -
    -
    -
    -
    -
    ROHS3 Compliant
    -
    48-TSSOP
    85°C
    -40°C
    PI3USB40
    500mW
    250 ps
    480 Mbps
    16
    No
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
  • PI3USB3102ZLE
    8 Weeks
    Surface Mount
    Surface Mount
    32-WFQFN Exposed Pad
    -
    -
    Tray
    2008
    USB 2.0, USB 3.0
    Obsolete
    1 (Unlimited)
    -
    EAR99
    13Ohm
    USB
    500mW
    -
    -
    -
    -
    -
    -
    4
    3.63V
    2.97V
    2mA
    -
    Demultiplexer, Multiplexer
    -
    Single
    -
    -
    -
    -
    13Ohm
    2:1
    -
    -
    ROHS3 Compliant
    -
    -
    85°C
    -40°C
    -
    -
    -
    480 Mbps
    -
    -
    Gold
    3.3V
    4.7GHz
    120mA
    -
    -
    -
    -
    -
    -
    -
    -
  • PI3USB30532ZLE
    16 Weeks
    -
    Surface Mount
    40-WFQFN Exposed Pad
    -
    -40°C~85°C TA
    Tray
    2017
    -
    Obsolete
    1 (Unlimited)
    40
    -
    -
    USB
    -
    QUAD
    NO LEAD
    1
    3.3V
    0.4mm
    -
    1
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    6:1
    3V~3.6V
    0.8mm
    ROHS3 Compliant
    Lead Free
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    -
    YES
    yes
    NOT SPECIFIED
    NOT SPECIFIED
    R-XQCC-N40
    TELECOM CIRCUIT
    6mm
    3mm
Certification
  • ISO 9001
  • ISO 13485
  • ISO 45001
  • ASA
  • ESD
  • DUNS
  • SMTA
  • ROHS

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