Zenode.ai Logo

TMP468 Series

±0.75⁰C High-Accuracy Multi-channel Remote and Local Temperature Sensor

Manufacturer: Texas Instruments

Catalog(5 parts)

PartVoltage - SupplyVoltage - SupplyAccuracy - Highest (Lowest)Accuracy - Highest (Lowest)Sensing Temperature - LocalSensing Temperature - LocalSupplier Device PackageResolutionOperating TemperatureOperating TemperatureMounting TypeTest ConditionTest ConditionFeaturesPackage / CaseSensing Temperature - RemoteSensing Temperature - RemoteOutput TypeTest ConditionTest ConditionUtilized IC / PartSensor TypeSupplied ContentsEmbeddedVoltage - SupplyVoltage - SupplyInterface
Texas Instruments
TMP468AIYFFR
Temperature Sensor Digital, Local/Remote -40°C ~ 125°C 0.0625°C 16-DSBGA
3.5999999046325684 V
1.7000000476837158 V
-5 °C, -1 °C
1 °C, 5 °C
125 °C
-40 °C
16-DSBGA
0.0625 °C
125 °C
-40 °C
Surface Mount
-40 °C
125 °C
Programmable Limit, Selectable Hysteresis, Shutdown Mode
16-UFBGA, DSBGA
150 °C
-55 °C
I2C/SMBus
Texas Instruments
TMP468AIRGTT
Temperature Sensor Digital, Local/Remote -40°C ~ 125°C 0.0625°C 16-VQFN (3x3)
3.5999999046325684 V
1.7000000476837158 V
-1.5 °C
1.5 °C
125 °C
-40 °C
16-VQFN (3x3)
0.0625 °C
125 °C
-40 °C
Surface Mount
-40 °C
100 °C
One-Shot, Output Switch, Programmable Limit, Programmable Resolution, Shutdown Mode
16-VFQFN Exposed Pad
191 °C
-64 °C
I2C/SMBus
125 °C
-40 °C
Texas Instruments
TMP468AIYFFT
Temperature Sensor Digital, Local/Remote -40°C ~ 125°C 13 b 16-DSBGA
3.5999999046325684 V
1.7000000476837158 V
-5 °C, -1 °C
1 °C, 5 °C
125 °C
-40 °C
16-DSBGA
13 b
125 °C
-45 °C
Surface Mount
-40 °C
125 °C
Programmable Limit
16-UFBGA, DSBGA
150 °C
-55 °C
I2C/SMBus
Texas Instruments
TMP468EVM
TMP468 - Temperature Sensor Evaluation Board
TMP468
Temperature
Board(s), Cable(s)
Yes, MCU, 16-Bit
5 V
USB
I2C
Texas Instruments
TMP468QFNEVM
TMP468 - Temperature Sensor Evaluation Board
TMP468
Temperature
Board(s), Cable(s)
5 V
USB
I2C

Key Features

8-Channel Remote Diode Temperature Sensor Accuracy: ±0.75°C (Maximum)Local and Remote Diode Accuracy: ±0.75°C (Maximum)Local Temperature Sensor Accuracy for the DSBGA Package: ±0.35°C (Maximum)Temperature Resolution: 0.0625°CSupply and Logic Voltage Range: 1.7 V to 3.6 V67-µA Operating Current (1 SPS, All Channels Active)0.3-µA Shutdown CurrentRemote Diode: Series Resistance Cancellation,η-Factor Correction, Offset Correction, and Diode Fault DetectionRegister Lock Function Secures Key RegistersI2C or SMBus™ Compatible Two-Wire Interface With Pin-Programmable Address16-Bump DSBGA and 16-Pin VQFN Packages8-Channel Remote Diode Temperature Sensor Accuracy: ±0.75°C (Maximum)Local and Remote Diode Accuracy: ±0.75°C (Maximum)Local Temperature Sensor Accuracy for the DSBGA Package: ±0.35°C (Maximum)Temperature Resolution: 0.0625°CSupply and Logic Voltage Range: 1.7 V to 3.6 V67-µA Operating Current (1 SPS, All Channels Active)0.3-µA Shutdown CurrentRemote Diode: Series Resistance Cancellation,η-Factor Correction, Offset Correction, and Diode Fault DetectionRegister Lock Function Secures Key RegistersI2C or SMBus™ Compatible Two-Wire Interface With Pin-Programmable Address16-Bump DSBGA and 16-Pin VQFN Packages

Description

AI
The TMP468 device is a multi-zone, high-accuracy, low-power temperature sensor using a two-wire, SMBus or I2C compatible interface. Up to eight remote diode-connected temperature zones can be monitored simultaneously in addition to the local temperature. Aggregating the temperature measurements across a system allows improved performance through tighter guard bands and can reduce board complexity. A typical use case is for monitoring the temperature across different processors, such as MCUs, GPUs, and FPGAs in complex systems such as servers and telecommunications equipment. Advanced features such as series resistance cancellation, programmable non-ideality factor, programmable offset, and programmable temperature limits are included to provide a robust thermal monitoring solution with improved accuracy and noise immunity. Each of the eight remote channels (and the local channel) can be programmed independently with two thresholds that are triggered when the corresponding temperature is exceeded at the measured location. In addition, there is a programmable hysteresis setting to avoid constant toggling around the threshold. The TMP468 device provides high accuracy (0.75°C) and high resolution (0.0625°C) measurement capabilities. The device supports low voltage rails (1.7 V to 3.6 V), common two-wire interfaces, and is available in a small, space efficient package (3 mm × 3 mm or 1.6 mm × 1.6 mm) for easy integration into computing systems. The remote junction supports a temperature range from –55°C to +150°C. The TMP468 device is a multi-zone, high-accuracy, low-power temperature sensor using a two-wire, SMBus or I2C compatible interface. Up to eight remote diode-connected temperature zones can be monitored simultaneously in addition to the local temperature. Aggregating the temperature measurements across a system allows improved performance through tighter guard bands and can reduce board complexity. A typical use case is for monitoring the temperature across different processors, such as MCUs, GPUs, and FPGAs in complex systems such as servers and telecommunications equipment. Advanced features such as series resistance cancellation, programmable non-ideality factor, programmable offset, and programmable temperature limits are included to provide a robust thermal monitoring solution with improved accuracy and noise immunity. Each of the eight remote channels (and the local channel) can be programmed independently with two thresholds that are triggered when the corresponding temperature is exceeded at the measured location. In addition, there is a programmable hysteresis setting to avoid constant toggling around the threshold. The TMP468 device provides high accuracy (0.75°C) and high resolution (0.0625°C) measurement capabilities. The device supports low voltage rails (1.7 V to 3.6 V), common two-wire interfaces, and is available in a small, space efficient package (3 mm × 3 mm or 1.6 mm × 1.6 mm) for easy integration into computing systems. The remote junction supports a temperature range from –55°C to +150°C.