AN65977
PSoC® 3, PSoC 4, and PSoC 5LP – Temperature Measurement with a
TMP05/TMP06 Digital Sensor
Author: Rodolfo Lossio
Associated Project: Yes
Associated Part Family: PSoC 3, PSoC 4, PSoC 5LP
Software Version: PSoC Creator™ v3.3
AN65977 describes the TMP05 Digital Temperature Sensor Interface Component, which is a building block for thermal
management applications. It enables designers using PSoC to quickly and easily interface with multiple Analog
Devices TMP05 or TMP06 digital temperature sensors through a simple, serial 2-wire digital interface.
Contents
1
2
3
4
5
1
Introduction ...............................................................1
Typical System Architecture .....................................2
Design Considerations when using
TMP05 Sensors in Daisy-Chain Mode ......................3
Getting Started with the TMP05 Digital
Temperature Sensor Interface Component ..............3
Example 1 – Firmware Details ..................................5
6
Example 2 – Firmware Details.................................. 6
7
Example 3 – Firmware Details.................................. 8
8
Example 4 – Firmware Details................................ 10
9
Evaluation Kits........................................................ 13
10 Conclusion.............................................................. 13
Worldwide Sales and Design Support ............................. 15
Introduction
Digital temperature sensors are widely used in systems where multiple temperature measurements are required in
specific locations on a large board (such as a line card in a switch or router) or in a remote location. The use of digital
temperature sensors frees the designer from worrying about digital noise coupling on to sensitive analog signals on
the PCB layout because the digital temperature sensor does the analog to digital conversion within its own package,
at the location where the temperature measurement is needed.
2
The most common digital temperature sensors use industry-standard communications interfaces such as I C or SPI.
These interfaces are well known and need no description here. For applications in which the thermal management
2
controller has no I C or SPI interfaces available, an alternative is Analog Devices’ TMP05 and TMP06 monolithic
temperature sensors that generate a pulse-width modulated (PWM) serial digital output.
The duty cycle of the PWM output varies in direct proportion to the ambient temperature of the devices. The high
period (TH) of the PWM remains static over all temperatures, while the low period (T L) varies. It offers a high
temperature accuracy of ±1 °C from 0 °C to 70 °C with excellent transducer linearity. The digital output of the TMP05
is CMOS/TTL-compatible and, therefore, can be interfaced directly to PSoC. The digital output of the TMP06 is opendrain and requires a pull-up resistor for proper operation, which can be integrated inside PSoC. Throughout the rest
of this document, any references to TMP05 also apply to the TMP06 sensor.
The TMP05 Digital Temperature Sensor Interface component makes it extremely easy for designers to develop
thermal monitoring and management solutions using multiple TMP05 sensors. The component requires just one input
and one output pin from PSoC, which enables the designer to implement many other system management functions
in the same device.
The TMP05 Digital Temperature Sensor Interface component can be used in thermal management solutions for base
stations, telecommunications, and in server and storage applications. Typical applications may include, but are not
limited to, areas where remote temperature sensing, environmental control systems, computer thermal monitoring,
thermal protection, industrial process control, and power-system monitoring and management are required.
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Document No. 001-65977 Rev. *D
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PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
2
Typical System Architecture
The TMP05 sensor has three modes of operation:
Continuously converting mode
Daisy-chained mode
One-shot mode
A three-state function control input pin (FUNC) sampled at power-up determines the mode in which the device
operates. Setting the FUNC pin to a high state allows multiple TMP05s to be connected in daisy-chained mode. In
that mode, multiple TMP05 temperature sensors can be connected, which enables PSoC to read all the sensors
through the same two-wire interface.
In this configuration, PSoC generates a “Start” pulse to begin a new temperature-to-PWM conversion cycle. The
output of the first TMP05 sensor begins with its own PWM output, followed by a new Start pulse that it generated
internally. The output of the second TMP05 sensor begins with the PWM output of the previous sensor, followed by
its own PWM output and terminated by a new Start pulse that it generated internally. When more sensors are daisychained in this fashion, the final return signal to PSoC contains the PWM outputs from all sensors starting with the
output of the first sensor, followed by the output from the second sensor and so on until the terminating Start pulse is
detected. Temperature-to-PWM conversion then stops until PSoC generates another Start pulse. The system-level
connection scheme and expected waveforms are shown in Figure 1.
PSoC is an ideal choice for interfacing to TMP05 sensors because it has the programmable universal digital block
resources available to implement the required custom interface logic with minimal firmware. This application note
focuses on how to use the TMP05 Digital Temperature Sensor Interface component with PSoC by working through
some example projects on the CY8CKIT-001 PSoC Development Kit (DVK). The examples will show how to operate
the component and monitor the temperature of multiple TMP05 devices reliably.
Figure 1. Multiple TMP05 Sensors Daisy-Chained
OUT
CONV/IN
TMP05
U1
OUT
CONV/IN
TMP05
PSoC
U2
OUT
IN
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Document No. 001-65977 Rev. *D
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PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
3
Design Considerations when using TMP05 Sensors in Daisy-Chain Mode
Certain timing constraints must be observed when operating TMP05 sensors in daisy-chain mode. PSoC needs to
generate the conversion start pulse on the CONV/IN pin of the first sensor. The start pulse lets the first TMP05 part
know that it should now start a conversion and output its own temperature. The pulse width of the start pulse should
be less than 25 μs but greater than 20 ns. These constraints are handled automatically by the component design and
are mentioned in this application note for reference purposes only.
Figure 2 and Figure 3 show the input and output waveforms for the first sensor in the daisy-chain (taken from the
TMP05 device datasheet):
Figure 2. TMP05 Start Pulse Waveform
Figure 3. TMP05 PWM Output Waveform
4
Getting Started with the TMP05 Digital Temperature Sensor Interface
Component
Distributed with this application note is a PSoC Creator™ bundled project ZIP file that contains four example design
projects and a library project. The library project contains the TMP05 Creator component.
Save the ZIP file to a convenient location on your hard drive and extract the contents to a local folder.
To get started with the example projects, double-click on the AN65977.cywrk PSoC Creator workspace file.
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Document No. 001-65977 Rev. *D
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PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
Figure 4. Top-Level Schematic for TMP05 Example1
1.
In the Workspace Explorer tab to the left of the screen, expand project Example1 by clicking on the small ‘+’
icon to the left of it.
2.
Double-click on TopDesign.cysch to open the top-level design schematic, which shows the components used
inside PSoC.
To the right of the schematic is the PSoC Creator Component Catalog. The tab labeled Cypress contains the
default library of Cypress-provided content. The Category labeled Thermal Management contains the TMP05
component. The provided library project can be re-used by importing into any PSoC Creator design project that
requires the TMP05 interface component functionality.
Figure 4 shows the top-level design schematic for Example Project 1.
All of the example projects provided with this application note are designed to run on either the CY8CKIT-030 PSoC 3
Development Kit (DVK) or the CY8CKIT-050 PSoC 5LP DVK, supporting up to four TMP05 or TMP06 temperature
sensors. The projects are easily modified to support more TMP05 or TMP06 sensors for further development and
testing.
Each example project consists of monitoring the ambient temperature from a specific number of TMP05 sensors. To
replicate the environment for each project properly, some wire connections are required on the PSoC DVK. The Top
Design of each project in PSoC Creator illustrates a circuit shown in blue. You can also refer to Figure 5 for the
example using two sensors in daisy-chain.
Double-click the TMP05 component to open the component customizer as show in Figure 6.
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Document No. 001-65977 Rev. *D
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PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
Figure 5. Wire Connections for two daisy-chained TMP05
sensors
Figure 6. TMP05 Component Customizer
For the first example, the Mode parameter is set
to Continious and the Number of Sensors
parameter is set to 1. This will enable continuous
monitoring of one TMP05 sensor. Click OK to
close the customizer.
Program the Example1 project into the DVK by
selecting Debug > Program from the pull-down
menus. If the project is running correctly, the text
displayed on the debug LCD should look similar
to the following picture.
5
Note that the temperature is displayed in both degrees
Celsius and Fahrenheit.
Example 1 – Firmware Details
In the Workspace Explorer, double-click main.c to examine the firmware used in this example project. The code is
shown in the Code 1 excerpt. As shown, all lines of code that begin with the prefix TMP05 reference APIs provided by
Cypress for this component. Refer to the component datasheet for a full list of the provided APIs.
In Example1, PSoC is monitoring the temperature of one TMP05 sensor continuously. The monitored temperature is
displayed on the LCD.
Congratulations! You have just completed your first TMP05 temperature sensor interface design with PSoC.
Code 1. Example1 main.c Firmware code
#include <device.h>
#define TEMP_SCALE
(100u)
int main(void)
{
/* Enable global interrupts to the CPU core */
CyGlobalIntEnable;
/* Start the hardware components */
LCD_Start();
LCD_ClearDisplay();
TMP05_Start();
/* Trigger the first TMP05 sensor measurement */
TMP05_Trigger();
/* Display the temperature continuously */
while (1)
{
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Document No. 001-65977 Rev. *D
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PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
/* Only display the temperature when end-of-conversion is detected */
if (TMP05_ConversionStatus() & TMP05_STATUS_COMPLETE)
{
LCD_Position(0,0);
LCD_PrintString(“T1=”);
LCD_PrintNumber((uint16)TMP05_GetTemperature(0) / TEMP_SCALE);
LCD_PrintString(“C “);
LCD_PrintNumber((((uint16)TMP05_GetTemperature(0) / TEMP_SCALE) * 1.8) + 32);
LCD_PrintString(“F “);
}
}
return(0);
}
6
Example 2 – Firmware Details
The firmware of Example2 also operates in continuous
mode; however, it can sample one or two sensors
depending on how the hardware is configured. You should
set the number of sensors in the TMP05 component to be
equal to the real number of sensors installed in the
hardware. This example also supports daisy-chain error
detection.
Close main.c and TopDesign.cysch for Example1. Go
back to the Workspace Explorer and right-click on Project
‘Example2’. Select Set as Active Project.
Open TopDesign.cysch for Example2 to start working on
this project. Program the Example2 project into the DVK
by selecting Debug > Program from the pull-down menus.
If the project is running correctly, the text displayed on the
debug LCD should look similar to the following picture.
If a sensing error is detected due to an open circuit
anywhere in the daisy-chain, a message is displayed and
sampling stops. In that case, the error message displayed
on the LCD should look like the following picture:
To generate an error condition, you can disconnect one of
the cables connected to P4.0 or P4.1.
The code for Example2 is shown in the Code 2 excerpt.
Code 2. Example2 main.c Firmware code
#include <device.h>
#define TEMP_SCALE
(100u)
static void DisplayTemp(void);
static void DisplayErrorMsg(void);
/* Display temperatures on the LCD */
/* Display error messages on the LCD */
int main(void)
{
uint8 status;
/* Enable global interrupts to the CPU core */
CyGlobalIntEnable;
/* Start the hardware components */
LCD_Start();
LCD_ClearDisplay();
TMP05_Start();
/* Trigger the first TMP05 sensor measurement */
TMP05_Trigger();
/* Display the temperature continuously */
while (1)
{
status = TMP05_ConversionStatus();
/* Error detected, display error message */
if (status & TMP05_STATUS_ERROR)
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Document No. 001-65977 Rev. *D
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PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
{
DisplayErrorMsg();
/* Stop the component */
TMP05_Stop();
while (1)
{
/* Stop here */
}
}
/* Display the temperature(s) measured from the sensor(s) */
else if (status & TMP05_STATUS_COMPLETE)
{
DisplayTemp();
}
}
return(0);
}
/* Function to display temperatures on the character LCD */
static void DisplayTemp(void)
{
uint8 I;
LCD_Position(0,0);
/* Display the temperature(s) on the LCD */
for (i=0; I < TMP05_CUSTOM_NUM_SENSORS; i++)
{
/* Print the following string on LCD: T1=xxC */
LCD_PrintString(“T”);
LCD_PrintNumber(i+1);
LCD_PrintString(“=”);
LCD_PrintNumber((uint16)TMP05_GetTemperature(i)/TEMP_SCALE);
LCD_PrintString(“C “);
}
}
/* Function to display error messages */
void displayErrorMsg(void)
{
LCD_ClearDisplay();
LCD_Position(0,0);
LCD_PrintString(“Error Detected! “);
LCD_Position(1,0);
LCD_PrintString(“Reset to Retry..”);
}
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Document No. 001-65977 Rev. *D
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PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
7
Example 3 – Firmware Details
While the TMP05 component operates in continuous
mode in the first two examples, it may be useful to operate
it in the one-shot mode to set a deterministic sensor
sample rate or to save power. This example also supports
error detection, however, unlike Example2, sampling is not
suspended when an error is detected. Instead, the
firmware will continuously retry sampling.
Close main.c and TopDesign.cysch for Example2. Go
back to the Workspace Explorer and right-click on Project
‘Example3’. Select Set as Active Project.
Open TopDesign.cysch for Example3 to start working on
this project. Program the Example3 project into the DVK
by selecting Debug > Program from the pull-down menus.
If the project is running correctly, the text displayed on the
debug LCD should look similar to the following picture:
In this example, a timer is added to control the
temperature sensor sample rate. By default, the timer is
configured to generate an interrupt every 1 second. This
can be changed by changing the period parameter of the
Timer component placed on the schematic sheet.
If an error is detected, a message is displayed and the
firmware tries again to sample from the sensors. The error
message displayed on the LCD should look like the
following picture:
To generate an error condition, you can disconnect one of
the wires connected to P4.0 or P4.1.
The code of Example3 is shown in the Code 3 excerpt.
Code 3. Example3 main.c Firmware code
#include <device.h>
#define TEMP_SCALE
(100u)
static void DisplayTemp(void);
static void DisplayErrorMsg(void);
/* Display temperatures on the LCD */
/* Display error messages on the LCD */
static CYBIT errorFlag;
static CYBIT timerFlag;
/* Error condition flag */
/* Timer expired flag */
/* Interrupt handler for the error scenarios */
CY_ISR(AlertInterruptHandler)
{
/* Set the error flag for the main loop to process */
errorFlag = 1;
}
/* Interrupt handler for the temperature sensor sample rate timer */
CY_ISR(TimerInterruptHandler)
{
/* Clear the timer registers */
Timer_ReadStatusRegister();
/* Set the timer flag for the main loop to process */
timerFlag = 1;
}
int main(void)
{
uint8 status;
/* Clear flags */
errorFlag = 0;
timerFlag = 0;
/* Enable global interrupts to the CPU core */
CyGlobalIntEnable;
/* Start the hardware components */
LCD_Start();
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Document No. 001-65977 Rev. *D
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PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
LCD_ClearDisplay();
TMP05_Start();
Timer_Start();
/* Start and configure the Alert interrupt handler */
AlertISR_Start();
AlertISR_Disable();
AlertISR_SetVector(AlertInterruptHandler);
AlertISR_Enable();
/* Start and configure the Timer interrupt handler */
TimerISR_Start();
TimerISR_Disable();
TimerISR_SetVector(TimerInterruptHandler);
TimerISR_Enable();
/* Trigger the first TMP05 sensor measurement */
TMP05_Trigger();
while (1)
{
/* Error handling */
if (errorFlag)
{
errorFlag = 0;
/* Display error message */
DisplayErrorMsg();
/* Restart the component */
TMP05_Stop();
TMP05_Start();
/* Trigger again to re-try the measurements */
TMP05_Trigger();
}
/* Check for new temperature conversion result */
else
{
/* Read the status of the conversion */
status = TMP05_ConversionStatus();
if ((status & TMP05_STATUS_COMPLETE) && !(status & TMP05_STATUS_ERROR))
{
/* Display the temperature(s) measured from the sensor(s) */
DisplayTemp();
}
}
/* Timer expired, initiate a new measurement */
if (timerFlag)
{
timerFlag = 0;
TMP05_Trigger();
}
}
return(0);
}
/* Function to display temperatures on the character LCD */
static void DisplayTemp(void)
{
uint8 I;
LCD_ClearDisplay();
LCD_Position(0,0);
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Document No. 001-65977 Rev. *D
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PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
/* Display the temperature in a specific location on the LCD */
for (i=0; I < TMP05_CUSTOM_NUM_SENSORS; i++)
{
/* Print the following string on LCD: T1=xxC */
LCD_PrintString(“T”);
LCD_PrintNumber(i+1);
LCD_PrintString(“=”);
LCD_PrintNumber((uint16)TMP05_GetTemperature(i)/TEMP_SCALE);
LCD_PrintString(“C “);
}
}
/* Function to display an error message */
static void DisplayErrorMsg(void)
{
LCD_ClearDisplay();
LCD_Position(0,0);
LCD_PrintString(“Error Detected! “);
LCD_Position(1,0);
LCD_PrintString(“Retrying...
“);
}
8
Example 4 – Firmware Details
In this example, the TMP05 component is configured in
one-shot mode. The main difference in this example is the
addition of a discovery mechanism that automatically
determines the number of sensors in the daisy-chain. This
feature is useful in cases where the same PSoC design
will be used across several different variations of the same
product, but each one supports a different number of
TMP05 sensors.
Close main.c and TopDesign.cysch for Example3. Go
back to the Workspace Explorer and right-click on Project
‘Example4’. Select Set as Active Project.
Open TopDesign.cysch for Example4 to start working on
this project. Program the Example4 project into the DVK
by selecting Debug > Program from the pull-down menus.
If the project is running correctly, the text displayed on the
debug LCD should look similar to the following picture.
This example also uses a 1-second timer to control the
temperature sensor sample rate.
If an error is detected, the temperature will be displayed as
‘- - -’. In the above LCD picture, the firmware only
discovered two sensors in the daisy-chain, therefore only
the measurements of the first two temperatures are
displayed. You could manually change the number of
sensors in the daisy-chain of your hardware and test the
discovery feature. The code of Example4 is shown in the
following excerpt.
Code 4. Example4 main.c Firmware code
#include <device.h>
#define MAX_NUM_SENSORS
#define TEMP_SCALE
(4u)
/* Max number of sensors in the daisy-chain */
(100u)
static void DisplayTemp(void);
/* Display temperatures on the LCD */
static CYBIT errorFlag;
static CYBIT timerFlag;
static uint8 sensorCount;
/* Error condition flag */
/* Timer expired flag */
/* Number of TMP05 sensors connected to PSoC */
/* Interrupt handler for the error scenarios */
CY_ISR(AlertInterruptHandler)
{
/* Set the error flag for the main loop to process */
errorFlag = 1;
}
/* Interrupt handler for the temperature sensor sample rate timer */
CY_ISR(TimerInterruptHandler)
{
/* Clear the timer registers */
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Document No. 001-65977 Rev. *D
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PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
Timer_ReadStatusRegister();
/* Set the timer flag for the main loop to process */
timerFlag = 1;
}
int main(void)
{
uint8 status;
/* Clear flags */
errorFlag = 0;
timerFlag = 0;
/* Enable global interrupts to the CPU core */
CyGlobalIntEnable;
/* Start the hardware components */
LCD_Start();
LCD_ClearDisplay();
TMP05_Start();
/* Start and configure the Alert interrupt handler */
AlertISR_Start();
AlertISR_Disable();
AlertISR_SetVector(AlertInterruptHandler);
AlertISR_Enable();
/* Discover the number of TMP05 temperature sensors in the daisy-chain */
sensorCount = TMP05_DiscoverSensors();
errorFlag = 0;
/* Trigger the first TMP05 sensor measurement */
TMP05_Trigger();
/* Start and configure the Timer interrupt handler */
TimerISR_Start();
TimerISR_Disable();
TimerISR_SetVector(TimerInterruptHandler);
TimerISR_Enable();
Timer_Start();
while (1)
{
/* Error handling */
if (errorFlag)
{
/* Restart the component */
TMP05_Stop();
TMP05_Start();
/* Clear the temperatures on LCD */
sensorCount = 0;
DisplayTemp();
/* Re-discover the number of sensors in the daisy-chain */
sensorCount = TMP05_DiscoverSensors();
errorFlag = 0;
/* Trigger again to re-try the measurements */
TMP05_Trigger();
}
/* Check for new temperature conversion result */
else
{
/* Read the status of the conversion */
status = TMP05_ConversionStatus();
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PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
if ((status & TMP05_STATUS_COMPLETE) && !(status & TMP05_STATUS_ERROR))
{
/* Display the temperature(s) measured from the sensor(s) */
DisplayTemp();
}
}
/* Timer expired, initiate a new measurement */
if (timerFlag)
{
timerFlag = 0;
TMP05_Trigger();
}
}
return(0);
}
/* Function to display temperatures on the character LCD */
static void DisplayTemp(void)
{
uint8 I;
LCD_ClearDisplay();
LCD_Position(0,0);
/* Display the temperature in a specific location on the LCD */
for (i=0; i<MAX_NUM_SENSORS; i++)
{
/* Print the following string on LCD: T1=xxC */
LCD_PrintString(“T”);
LCD_PrintNumber(i+1);
LCD_PrintString(“=”);
if (I < sensorCount)
{
LCD_PrintNumber((uint16)TMP05_GetTemperature(i)/TEMP_SCALE);
LCD_PrintString(“C “);
}
else
{
LCD_PrintString(“--- “);
}
if (I == 1)
{
/* Line break */
LCD_Position(1,0);
}
}
}
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PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
10
9
Evaluation Kits
If you would like to continue working with the
TMP05 component, consider purchasing the
PSoC Thermal Management Expansion Board
Kit (CY8CKIT-036) shown in Figure 7. The
CY8CKIT-036 consists of two TMP05 devices
and can be used to implement a complete
thermal management design.
Figure 7. CY8CKIT-036 PSoC Thermal Management
Expansion Board Kit (EBK)
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Conclusion
The TMP05 Digital Temperature Sensor Interface
component enables designers to quickly and
easily
design
thermal
monitoring
and
management solutions providing support of
multiple
TMP05
sensors
in daisy-chain
applications.
The unique ability of the PSoC architecture to
combine custom digital logic, analog signal chain
processing, and an MCU in a single device
enables system designers to integrate many
external fixed-function ASSPs. This powerful
integration capability not only reduces BOM cost,
but also results in PCB board layouts that are
less congested and more reliable.
Document No. 001-65977 Rev. *D
13
PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
Document History
Document Title: AN65977 - PSoC® 3, PSoC 4, and PSoC 5LP – Temperature Measurement with a TMP05/TMP06 Digital
Sensor
Document Number: 001-65977
Revision
ECN
Orig. of
Change
Submission
Date
Description of Change
**
3123189
AMKH
12/29/2010
New Spec – Initial Release
*A
3571727
RLOS
04/05/2012
Updated the document using the new template.
Updated the example projects to use the TMP05 Component v1.20.
Added support for PSoC 5.
*B
3819560
JK
11/22/2012
Updated the example projects to use the new TMP05 Component v1.30 revised to
work with PSoC Creator v2.1 SP1 and PSoC 5LP.
Updated the example project pinouts to work with the CY8CKIT-030 PSoC 3
Development Kit (DVK) and CY8CKIT-050 PSoC 5LP DVK.
*C
4680806
RLRM
03/16/2015
Project files updated to PSoC Creator 3.1
Updated example code shown in application note
Updated screenshots
Cleaned up grammar and general text in application note.
*D
5100103
RLRM
01/27/2016
Updated example project to PSoC Creator 3.3 and added PSoC 4 support.
Updated template
Updated title
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Document No. 001-65977 Rev. *D
14
PSoC® 3, PSoC 4, and PSoC 5LP –
Temperature Measurement with a TMP05/TMP06 Digital Sensor
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© Cypress Semiconductor Corporation 2010-2016. The information contained herein is subject to change without notice. Cypress Semiconductor
Corporation assumes no responsibility for the use of any circuitry other than circuitry embodied in a Cypress product. Nor does it convey or imply any
license under patent or other rights. Cypress products are not warranted nor intended to be used for medical, life support, life saving, critical control or
safety applications, unless pursuant to an express written agreement with Cypress. Furthermore, Cypress does not authorize its products for use as
critical components in life-support systems where a malfunction or failure may reasonably be expected to result in significant injury to the user. The
inclusion of Cypress products in life-support systems application implies that the manufacturer assumes all risk of such use and in doing so indemnifies
Cypress against all charges.
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NOT LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE. Cypress reserves the
right to make changes without further notice to the materials described herein. Cypress does not assume any liability arising out of the application or
use of any product or circuit described herein. Cypress does not authorize its products for use as critical components in life-support systems where a
malfunction or failure may reasonably be expected to result in significant injury to the user. The inclusion of Cypress’ product in a life-support systems
application implies that the manufacturer assumes all risk of such use and in doing so indemnifies Cypress against all charges.
Use may be limited by and subject to the applicable Cypress software license agreement.
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Document No. 001-65977 Rev. *D
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