MAX4570EAI T

Maxim Integrated MAX4570EAI T

Part Number:
MAX4570EAI T
Manufacturer:
Maxim Integrated
Ventron No:
3669784-MAX4570EAI T
Description:
IC CROSSPOINT SWITCH DUAL 28SSOP
ECAD Model:
Datasheet:
MAX4570EAI T

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Specifications
Maxim Integrated MAX4570EAI T technical specifications, attributes, parameters and parts with similar specifications to Maxim Integrated MAX4570EAI T.
  • Factory Lead Time
    11 Weeks
  • Mount
    Surface Mount
  • Mounting Type
    Surface Mount
  • Package / Case
    28-SSOP (0.209, 5.30mm Width)
  • Number of Pins
    28
  • Operating Temperature
    -40°C~85°C TA
  • Packaging
    Tape & Reel (TR)
  • Published
    1998
  • JESD-609 Code
    e3
  • Feature
    Break-Before-Make, Clickless, SPI
  • Pbfree Code
    yes
  • Part Status
    Active
  • Moisture Sensitivity Level (MSL)
    1 (Unlimited)
  • Number of Terminations
    28
  • Resistance
    80Ohm
  • Terminal Finish
    Matte Tin (Sn)
  • Applications
    Audio, Video
  • Additional Feature
    VIDEO APPLICATION
  • Subcategory
    Multiplexer or Switches
  • Technology
    CMOS
  • Terminal Form
    GULL WING
  • Number of Functions
    2
  • Supply Voltage
    5V
  • Terminal Pitch
    0.65mm
  • Base Part Number
    MAX4570
  • Output
    SEPARATE OUTPUT
  • Pin Count
    28
  • Power Supplies
    3/5/ -5V
  • Number of Channels
    2
  • Max Supply Voltage
    5.5V
  • Min Supply Voltage
    2.7V
  • Analog IC - Other Type
    CROSS POINT SWITCH
  • Operating Supply Current
    7μA
  • Voltage - Supply, Single/Dual (±)
    2.7V~5.5V ±2.7V~5.5V
  • Supply Type
    Dual
  • Neg Supply Voltage-Nom (Vsup)
    -5V
  • Max Dual Supply Voltage
    5.5V
  • 3db Bandwidth
    14MHz
  • On-State Resistance (Max)
    80Ohm
  • Min Dual Supply Voltage
    2.7V
  • Multiplexer/Demultiplexer Circuit
    4:2
  • Off-state Isolation-Nom
    63 dB
  • On-state Resistance Match-Nom
    5Ohm
  • Switch-on Time-Max
    900ns
  • Switch-off Time-Max
    500ns
  • Height Seated (Max)
    1.99mm
  • Radiation Hardening
    No
  • RoHS Status
    ROHS3 Compliant
Description
MAX4570EAI T 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. 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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}.

MAX4570EAI T Features

MAX4570EAI T Applications
There are a lot of Maxim Integrated MAX4570EAI T Special Purpose Analog Switches applications.

Feature extraction
Counting applications
CPU memory location identification
Automated Guided Vehicles (AGV)
Half adders
Image search
Stagecraft
Multiplication
Addition
Medical & Lab Equipment
MAX4570EAI T More Descriptions
Serially Controlled, Dual 4x2, Clickless Audio/Video Analog Crosspoint Switches
Analog & Digital Crosspoint ICs 4x2 Clickless A/V Crosspoint Switch
Analog Audio/Video Crosspoint 4 x 2 28-Pin SSOP T/R
2 80Ω SSOP-28 Analog Switches / Multiplexers ROHS
CROSSPOINT SWITCH, ANALOGUE, SSOP-28;
IC CROSSPOINT SWITCH DUAL 28SSOP
Certification
  • ISO 9001
  • ISO 13485
  • ISO 45001
  • ASA
  • ESD
  • DUNS
  • SMTA
  • ROHS

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