KP264

KP264 INFINEON | Alldatasheet

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Technical content

Digital Absolute Pressure Sensor KP264 dBAP Digital Barometric Air Pressure Sensor IC Sense & Control Data Sheet Revision 1.0, 2019-06-07

Data Sheet 2 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Table of Contents

Digital Absolute Pressure Sensor Data Sheet 3 Revision 1.0, 2019-06-07 List of Tables

Product Name Product Type Ordering Code Package Digital Absolute Pressure Sensor KP264 SP004854700 PG-DSOF-8-164 Data Sheet 5 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor

1 Product Description

The KP264 is a miniaturized Digital Barometric Air Pressure Sen sor IC based on a capacitive principle. It is surface micromachined wi th a monolithic integrated signal con ditioning circuit implemented i n BiCMOS technology. The sensor converts a pressure into a 10-bit digital value and sends the information via the SPI interfa ce. In addition, a temperature s ensor is integrated on chip. Based on the received SPI command, the 10-b it temperature information will be transmitted via the SPI interface. A special reliability feature is the integrated diagnostic mode , which allows testing the sensor cells as well as the signal path. Thi s diagnosis can be simply triggered with a SPI command. The chip is packaged in a “green ” SMD housing. The sensor has b een primarily developed for measuring barometric air pressure, but can also be used in other applicat ion fields. The high accuracy, high sensitivity and reliability features of the device makes it a perfect fit for advanced automotive applications as well as in industrial and consumer applications.

1.1 Features

The following features are supported by the KP264:

• High accuracy pressure sensing ( ± 1.5 kPa)
• Real 10-bit pressure resolution
• Integrated temperature sensor
• Real 10-bit temperature resolution
• Self diagnosis features
• “Green” 8 pin SMD housing
• Automotive qualified

1.2 Target Applications

The KP264 is designed for use in the following target applications:

• Automotive applications
• Industrial control
• Consumer applications
• Medical applications
• Weather stations
• Altimeters

Data Sheet 6 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description

2 Functional Description

2.1 Pin Configuration

Figure 1 shows the pin configuration. Figure 1 Pin configuration (to p view, figure not to scale)

2.2 Pin Description

Table 1 shows the pin description. Table 1 Pin description Pin No. Name Function Comment

1 NCS Not-Chip-Select (active-low) Communication is enabled when NCS is low

2 CLK Serial Clock External clo ck for serial communication

3 SDI Serial Data In Serial data input (e.g. from a controller)

4 SDO Serial Data Out Tri-s tate serial data output

5V DD Supply voltage – 6V PROG Programming Voltage Only required during EEPROM programming

7 NC Not Connected Pin is not bonded

8 GND Ground –

V PROG VDD SDI NCS CLK SDO

Data Sheet 7 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description

2.3 Block Diagram

Figure 2 shows the functional block diagram. Figure 2 Functional block diagram

2.4 Transfer Function Pressure

The KP264 device is fully calibrated on delivery. The sensor ha s a linear transfer function between the applied pressure and the digital output signal. Figure 3 Pressure transfer function Temperature Sensor Pressure Cells ADC ADC Digital Signal Processing Normal Mode/ Diagnosis Mode Temperature Compensation Digital Core SPI Interface EEPROM Interface EEPROMVoltage Regulator digital analog Reset VDDA VDDD NCS CLK SDI SDO GND NC VPROG VDD pressure [kPa] 511 1023 20 40 60 80 100 120 140 operating pressure range maximum input pressure range 160 180 200 output signal [LSB] Zoom

Data Sheet 8 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description

2.4.1 Pressure Transfer Fu nction Characteristics

The following calibration is adjusted with the parameters Sp and offsp Note: The points p IN,1/LSBOUT,1 and pIN,2/LSBOUT,2 define the calibrated transfer function and not the operating range. The operating pressure range is defined by the parameter 2.8 Ambient operating pressure range on Page 22

2.4.2 Accuracy

Figure 4 Accuracy for pressure acquisition Table 2 Pressure transfer function characteristics Pressure Output Code Gain and Offset Symbol Values Unit Symbol Values Unit Symbol Value Unit p IN,1 40 kPa LSBOUT,1 0 LSB Sp 13.64 LSB/kPa pIN,2 115 kPa LSBOUT,2 1023 LSB offsp -545.6 LSB p pp amb S offsoutp −= 0.0 0.2 0.4 0.6 0.8 1.0 1.2 1.4 1.6 1.8 2.0 -40 0 85 125 error multiplier temperature [°C] absolute error [kPa] 1.5 2.5 3.0

Data Sheet 9 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description

2.5 Transfer Function Temperature

Triggering the temperature command (see Section 2.6.1.4) the KP264 provides the ambient temperature. Figure 5 Temperature transfer function ( VDD = 5.0 V)

2.5.1 Temperature Transfer Fu nction Characteristics

The following calibration is adjusted with the parameters ST and offsT: Note: The points T IN,1/LSBOUT,1 and TIN,2/LSBOUT,2 define the calibrated transfer function and not the operating range. The operating temperature range is defined by the parameter 2.7 Operating temperature on Page 22 Table 3 Temperature transfer function characteristics Temperature Output Code Gain and Offset Symbol Values Unit Symbol Values Unit Symbol Value Unit TIN,1_5.0 1) Valid for VDD = 5.0 V -40 °C LSBOUT,1 0 LSB ST 5.115 LSB/°C TIN,2_5.0 1) 160 °C LSBOUT,2 1023 LSB offsT_3.3 offsT_5.0 2) Valid for VDD = 3.3 V 209.6 204.6 LSB LSB -40 511 1023 -20 0 20 40 60 80 100 operating temperaturerange 120 140 160 output signal [LSB] temperature [°C] Zoom T TT amb S offsoutT −=

Data Sheet 10 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description

2.6 Serial Interface

The communication and data transmission is based on a standard 16 bit serial peripheral interface (SPI). Figure 6 SPI timing

2.6.1 Commands

The following Commands are defined:

• Acquire identifier
• Acquire pressure (incl. the diagnosis pressure out of range, EEPROM check and last updated Diag1 & Diag2)
• Acquire temperature (incl. the diagnosis pressure out of range , EEPROM check and last updated Diag1 & Diag2)1)
• Trigger diagnosis (trig gers Diag1 and Diag2)
• Trigger test mode (entry into te st mode only occurs if this is the first command received after power up, in conjunction with a high voltage level (>10V) on pin VPROG)

2.6.1.1 Command Behavior

The SPI command interpretation is based on following rules:

• The response to command N is th e result of the previous command (N-1)
• The response to the first c ommand is the identifier
• When a command (N) is sent and the processing of the previous command (N-1) has not finalized, the last command (N) will not interrupt the processing
• Max. one command is stacked (du ring processing a command a new received command is stacked; further received commands will overwrite the stack)
• If a command has finished, the sensor takes the next command from the stack; if no command is in the stack, the sensor goes into the pressure measurement mode 1) Last updated diagnosis informa tion is only available if the Trigger diagnosis command was sent at any time before and the diagnostic reset is not active (Reset-bit C12 = ‘1‘, see Chapter 2.8.1). NCS SCLK SDO SDI tsclch thclcl tclh tcll MSB tpcld MSB tscld thcld LSB LSB tonncs tsclcl thclch tpchdz tcsdv

Data Sheet 11 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description

• The diagnosis command triggers the Diag1 and Diag2 measurement; during this time pressure values (including out of range information) will not be updated
• Pressure and temperature values can be updated continuously based on a parallel acquisition

2.6.1.2 Structure

The following structure is defined for an SPI command: Figure 7 SPI command structure Figure 8 SPI response structure Figure 9 SPI response structure for identifier

2.6.1.3 Parity

Except for the identifier response (see Section 2.6.1.6) every SPI response (including the Communication Error response, see Section 2.6.1.5) includes an odd parity (LSB, [0]). The number of bits with the value one in the 16 bit response is odd (including the parity bit). 0123456789101112131415 \0\REQUEST RESET BIT ADDITIONAL REQUEST MSB LSB 0123456789101112131415 DATADIAGNOSIS PARIT Y MSB LSB 0123456789101112131415 ASIC NAMESUPPLIER MSB LSB SILICON VERSION METAL VERSION

Data Sheet 12 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description

2.6.1.4 Command Definition

Figure 10 Acquire pressure command Figure 11 Acquire temperature command Figure 12 Trigger diagnosis command Figure 13 Acquire identifier command Note: The Reset-bit (C12) determines how the diagnostic re set is handled. For details about the function of the Reset-bit refer to Chapter 2.8.1. The “trigger test mode” command is only for information. The te st mode is only for calibration and EEPROM programming. Both are already do ne during the supplier’s back-e nd assembly. The information should serve to avoid command for unintentional test mode operation. Note: Additional safeguards are provided to prevent unintentional test mode operation. For test mode operation, the command must be the first command after power-up in combination with a high voltage level at pin V PROG. Figure 14 Trigger test mode command 0123456789101112131415 0 01X 000000000000 0123456789101112131415 0 10X 000000000000 0123456789101112131415 1 00X 000000000000 0123456789101112131415 1 11X 000000000000 0123456789101112131415 0 000 110000000000

Data Sheet 13 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description

2.6.1.5 Communication Error

In normal operation only the pre ssure, temperature, diagnosis a nd identifier comman d s a r e v a l i d . E v e r y abnormality of these commands (e.g. unused command, other value of unused bits, number of clocks not equal to 16n with n = 1, 2, 3...) will r esult in a communication error. The response to a detected communication error is given below. Figure 15 Response after a communication error

2.6.1.6 Identifier Response Definition

The response to an Acquire identifier command is a fixed value as stated below. With this response, the KP264 sensor can be indentified when operated in a bus system with several different parts. Figure 16 Identifier response definition 0123456789101112131415 0 000 000000000001 0123456789101112131415 0 101 000100110111

Data Sheet 14 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description

2.6.2 Single Device Operation

Figure 17 shows an example on how to connect a singe device to a microcontroller. After NCS is pulled to low, the request command is sent to the sensor with the next 16 cycles of the CLK. The response of the sensor for the pr evious request command is retu rned at the same time. The SPI signal timing is shown in Figure 18. Figure 17 Example for single device operation Figure 18 Example for single device signal timing µC MDO MDI CLK KP26x SDO SDI CLK NCS NCS low for 16 CLK pulses NCS NCS CLK MDI MDO COMMAND_n ANSWER_n-1 time

16 CLK cycles

... COMMAND_n+1 ANSWER_n ...

Data Sheet 15 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description

2.6.3 Daisy Chain Operation

The sensors can be connected to one SPI connection in daisy cha in operation to save micr ocontroller pins. The number of sensors connected in daisy chain operation is unlimited. Figure 19 Example for daisy chain operation Figure 19 shows an example of a combination of daisy chain mode and parallel operation. Note: Not all five sensors in this example could be addressed at once. Only one branch can be addressed at once (e.g. the KP26x_2.x branch). Finally only one NCS line can be low at the same time (NCS_S1, NCS_S2 or NCS_S3). The responding NCS line for the addressed sensor group must be low during the complete communication. During this time the provided number of clock pulses must be the multiplication result of 16 times the number of sensors in a daisy chain (e.g. 32 clock pulses for the KP26x_2.x branch in Figure 19). Figure 20 shows the whole signal diagram. It is important that NCS_S2.1 and NCS_S2.2 stay at the low level during the complete transmission. Therewith the sensor is able after receiving more than 16 clock pulses without a change in the NCS signal to switch automatically in daisy chain mode (in this example the first received 16 bit input data by the sensor S2.1 will be clocked to the output of sensor S2.1 with the last 16 clock pulses). µC MDO MDI CLK NCS_S1 NCS_S2 NCS_S3 KP26x_1.1 SDOSDI CLK NCS_S1 KP26x_2.1 SDOSDI CLK NCS_S2 KP26x_2.2 SDOSDI CLK NCS_S2 KP26x_3.2 SDOSDI CLK NCS_S3 KP26x_3.3 SDOSDI CLK NCS_S3 KP26x_3.1 SDOSDI CLK NCS_S3 NCS_S1 low for 16 CLK pulses NCS_S2 low for 32 CLK pulses NCS_S3 low for 48 CLK pulses

Data Sheet 16 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description Figure 20 Example for daisy chain signal diagram It is important that the number of clock pulses is a multiple of 16. Otherwise all commands for a daisy chain branch will be identified as invalid commands and the response of all sensors on this branch will be 01H.

2.7 Start-up Behavior

During the start-up phase (tstart-up), there is no response on any commands.

2.8 Diagnosis

The sensor is able to detect automatically the following malfunctions:

• Pressure out of range
• Signal path check (Diag1)
• Sensor cell check (Diag2)
• EEPROM check If a malfunction is detected, the responding diagnosis code is sent with the next response. Note: The Diag1 and Diag2 test can only be triggered by a separate SPI command. If more than one test fails, only that diagnosis code with the highest priority will be sent. NCS_S2.1 CLK_S2.1 SDO_S2.1 SDI_S2.1 COMMAND_S2.2_n ANSWER_S2.1_n-1 ANSWER_S2.1_n-1 ANSWER_S2.2_n-1 NCS_S2.2 CLK_S2.2 SDO_S2.2 SDI_S2.2 COMMAND_S2.1_n COMMAND_S2.2_n COMMAND_S2.2_n ANSWER_S2.1_n-1 time

Data Sheet 17 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description

2.8.1 Diagnostic Reset

The Reset-bit (C12) of a SPI command allows using different reset strategies:

• C12 = ‘0‘: All detected failur es will be reset (with the exeption of FEC error
• C12 = ‘1‘: A detected f ailure will not be reset Reset of FEC error is not possible. Once FEC error is detected and transmitted it remains until supply reset.

2.8.1.1 Reset-bit C12 = ‘0‘

A detected failure is only trans mitted by the responding diagno sis code as long as the failure is present. The diagnosis code will be reset after once transmitted. Only if the failure is detected again, the diagnosis code will be transmitted again with the next response. Figure 21 Example for reset strategy Reset-bit C12 = ‘0‘

2.8.1.2 Reset-bit C12 = ‘1‘

Once a failure is detected the responding diagnosis code will be transmitted as long as:

• A failure with a higher priority is not detected
• The sensor is not reset (power down)
• Independent of the presence of the failure Table 4 Diagnosis codes Failure Priority Diagnosis Code EEPROM: FEC error 1 10000 Acquisition chain failure: Diag1 1)Note: This diagnosis code is not valid until a self diagnosis is triggered by sending the Trigger diagnosis command. 2 01000 Sensor cell failure: Diag21) 3 00100 P r e s s u r e o u t o f r a n g e : H i g h 4 00010 P r e s s u r e o u t o f r a n g e : L o w 5 00001 N o e r r o r 01010 time failure presence command diagnosis code response 01010 00001 00001 01010 e.g. pressure out of range : low pressure sampling

Data Sheet 18 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description Figure 22 Example for reset strategy Reset-bit C12 = ‘1‘

2.8.2 Pressure out of Range

The measured pressure is internally checked. If the pressure value falls below the lower limit or exceeds the higher limit the responding diagnosis code will be set. The limits are defined in Table 10 “Transfer function” on Page 25

2.8.3 Diag1

The Diag1 test checks the functionality of the signal path. Therefore the inputs of the sigma delta ADC are shorted. Afterwards, the system response is compared with the expected r ange (~ 50% of full scale range). If the system response is out of range, the diagnosis code is set. Figure 23 Diag1 functionality

2.8.4 Diag2

The Diag2 test checks the func tionality of the pressure sensor cells. Therefore a malfunction (e.g. broken membrane) can be detected. The KP264 pressure sensing element i s made of 2 measuring cells and 2 reference cells. In the normal mode these four cells are connected in a Wheatstone bridge configuration. In the Diag2 mode, the connection of the cells is modified as shown in Figure 24. time failure presence command diagnosis code response 01010 00001 00001 00001 e.g. pressure out of range : low pressure sampling ΣΔ ADC Decimation Filter

Data Sheet 19 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Functional Description Figure 24 Diag2 functionality

2.8.5 EEPROM Check

During the initialization phase, and after receiving a SPI comm and, the content of the EEPROM cells is copied into the corresponding EEPROM registers. Thereby, a parity check is done based on the parity row and column. A one bit error is corrected by the forward error correction. Any additional bit error results in an FECerror. In that case the diagnosis code 1 will be transmitted with the next response U = f (p) p p Normal Operation U = f (p) pp Diag2 Mode

Data Sheet 20 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Specification

3 Specification

3.1 Application Circuit Example

Figure 25 Application circuit example Table 5 Component values Component Symbol Values Unit Min. Typ. Max. Supply Blocking Capacitor1) 1) The use of a blocking capacitor with a nominal value of 100nF is mandatory; any drift or tolerances in capacity of standard capacitors are already considered. To avoid any measurement inaccuracy the supply blocking capacitor has to be placed as close as possible to the VDD pin, at least the distance must be less than 10 mm. C1 302) 2) The minimum capacity including any variations or drift over l ifetime must not undershoot this value. 100 – nF Microcontroller SPI Interface CS CLK MOSI MISO NCS CLK SDI SDO GND NC V PROG VDD KP26x 3.3/5.0V 100nF

Data Sheet 21 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Specification

3.2 Absolute Maximum Ratings

Attention: Stresses above the max. values listed in Table 6 “Absolute maximum ratings” may cause permanent damage to the device. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. Maximum ratings are absolute ratings; exceeding only one of these values may cause irreversible damage to the integrated circuit. Table 6 Absolute maximum ratings Parameter Symbol Values Unit Note or Test Condition Number Min. Typ. Max. Voltage on any pin Vmax -0.3 – 5.5 6.0 V V Limited time: Max. 300 s 1.1 Voltage at output pins Vmax_out -0.3 – VDD + 0.3 V – 1.2 Storage temperature TS -40 – 125 °C – 1.3 Thermal resistance Rthj-pin – – 180 K/W Thermal resistance between the die and the pins 1.4 Maximum input pressure pamb_max 10 – 200 600 kPa kPa Limited time: Max. 300 s 1.5

Data Sheet 22 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Specification

3.3 Operating Range

The following operating conditions must not be exceeded in orde r to ensure correct operation of the device. All parameters specified in the following sections refer to these operating conditions, unless noted otherwise. Attention: KP26x is sensitive to light incident to the p ressure port. The specification “Accuracy pressure” (see Table 10) is valid for an illuminance of less than 1 lx. At higher light illuminance, a higher pressure error may occur. Table 7 Operating range Parameter Symbol Values Unit Note or Test Condition Number Min. Typ. Max. Supply voltage VDD3.3 VDD5.0 3.135 4.75 3.475 5.25 V V 2.1 Supply voltage power up/power down gradient Vgrad 1E-5 – 1E4 V/ms 2.2 Input voltage for low level at pins NCS, CLK & SDI V low_in -0.3 – 0.8 V 2.3 Input voltage for high level at pins NCS, CLK & SDI Vhigh_in 2.0 – 5.5 V Even with the supply voltage of VDD3.3_min the max. input voltage Vhigh_in is allowed; back biasing will not happen 2.4 Output voltage for low level at pin SDO Vlow_out – – 0.4 V Test current at pin SDO is 2.0mA 2.5 Output voltage for high level at pin SDO Vhigh_out VDDx.x - 0.4 – VDDx.x V Test current at pin SDO is 1.5mA 2.6 Operating temperature Ta -40 – +125 °C 2.7 Ambient operating pressure range pamb 40 – 115 kPa 2.8

Data Sheet 23 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Specification

3.4 Characteristics

Product characteristics involve the spread of values specified within the operating range. Typical characteristics are the median of the production. Table 8 Electrical characteristics Parameter Symbol Values Unit Note or Test Condition Number Min. Typ. Max. Supply current into VDD IVDD ––1 0 . 0 m A 3 . 1 Internal pressure update rate fupdate 150 – – kHz 3.2 Pressure signal path settling time tpath_pres ––5m s 3 . 3 a Temperature signal path settling time tpath_temp – – 15 ms 3.3b Start-up time tstart-up – – 10 ms no response on SPI commands during the start-up time 3.4 Resolution of pressure transmission n Resolution of temperature transmission Capacitive load at pins NCS, CLK & SDI Cload_in – – 14 pF 3.7 Capacitive load at pin SDO Cload_out – – 19 pF 3.8 Tri state leakage current ISDO -5 – 5 µA NCS = high VDD = 5V 3.9 Hysteresis of input voltage at pins NCS, CLK & SDI V SPI_Hys 200 – – mV 3.10 Current sink for NCS, CLK & SDI (each pin) ISPI_in -100 µA µA @ Vlow_in = 0 V @ Vhigh_in = 5 V no back biasing 3.11

Data Sheet 24 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Specification Table 9 SPI timing Parameter Symbol Values Unit Note or Test Condition Number Min. Typ. Max. Clock frequency of SPI interface fSPI 0.1 – 5 MHz No limitation with lower frequencies, but not subject to production test 4.1 Transmission speed at SDO (20% - 80%) tSDO_trans 5 ns ns VSDO = 5V & Cload = 50pF VSDO = 5V & Cload = 150pF 4.2 Clock high time tclh 75 – – ns 4.3 Clock low time tcll 75 – – ns 4.4 NCS filter time1) tfNCS 10 – 60 ns Pulses below the NCS filter time will be ignored 4.5 Delay between NCS falling edge and SDO changing from tri-state to low t csdv – – 75 ns 4.6 Delay between CLK rising edge and start SDO data tpcld – – 50 ns incl. tSDO_trans 4.7 Delay between CLK low and start NCS low t sclch 75 – – ns 4.8 Delay between NCS low and rising edge 1st CLK pulse thclcl 75 – – ns 4.9 Time between start SDI data and falling edge CLK tscld 15 – – ns 4.10 Time between falling edge CLK and end SDI data t hcld 15 – – ns 4.11 Delay between falling edge lst CLK pulse and rising edge NCS tsclcl 100 – – ns 4.12

Data Sheet 25 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Specification Delay between rising edge NCS and rising edge CLK pulse thclch 100 – – ns 4.13 Delay between rising edge NCS and end SDO data tpchdz – – 75 ns 4.14 Time between rising edge NCS and falling edge next NCS t onncs 300 – – ns 4.15 1) not subject to production test - verified by characterization/design Table 10 Transfer function Parameter Symbol Values Unit Note or Test Condition Number Min. Typ. Max. Sensitivity pressure Sp –1 3 . 6 4 –L S B /kPa 5.1 Offset pressure offsp – -545.6 – LSB 5.2 Sensitivity temperature ST –5 . 1 1 5 –L S B /°C 5.3 Offset temperature offsT_3.3 offsT_5.0 209.6 204.6 LSB LSB VDD = 3.3 V VDD = 5.0 V 5.4 Accuracy pressure central temperature range accp_Tmid -1.5 – 1.5 kPa 0°C - 85°C 5.5a Accuracy pressure low temperature range accp_Tlow -3 – 3 kPa @-40°C 5.5b Accuracy pressure high temperature range accp_Thigh -2.5 – 2.5 kPa @125°C 5.5c Accuracy temperature accuracy is referenced to the ambient temperature 5.6 Table 9 SPI timing (cont’d) Parameter Symbol Values Unit Note or Test Condition Number Min. Typ. Max.

Data Sheet 26 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Specification Pressure out of range: Low plow plow_d kPa LSB Accuracy not considered; below/equal the value the diagnosis code is set 5.7 Pressure out of range: High p high phigh_d 115 1023d kPa LSB Accuracy not considered; above/equal the value the diagnosis code is set 5.8 Table 10 Transfer function (cont’d) Parameter Symbol Values Unit Note or Test Condition Number Min. Typ. Max.

Data Sheet 27 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor

Package Information

4 Package Information

For passivation the sensor is covered with a transparent gel.

4.1 PG-DSOF-8-164 Outline

Data Sheet 28 Revision 1.0, 2019-06-07 KP264 Digital Absolute Pressure Sensor Green Product (RoHS compliant) To meet the world-wide customer r equirements for environmentally friendly products and to be compliant with government regulations the device is available as a green produ ct. Green products are RoHS-Compliant (i.e Pb- free finish on leads and suitable for Pb-free soldering according to IPC/JEDEC J-STD-020).

4.2 Identification Code

The identification code is provided in a machine readable format. The date and sales code are provided in human readable format. Figure 27 Identification code The identification code for the KP264 is on the same side of the package as pin 8 (GND). For further information on alternative packages, please visit our website: http://www.infineon.com/packages. Dimensions in mm Data Matrix Code 8 x 18 Dots Dot Size: 0.15 mm x 0.15 mm Date Code Sales Code BYY W KP264 W B: BE Location ´M´ = Malacca ´R´ = Regensburg YY: Year WW: Week

Data Sheet 29 Revision 1.0 2019-06-07 KP264 Digital Absolute Pressure Sensor

Revision History

5 Revision History

KP264 Digital Absolute Pressure Sensor Revision History: 2019-06-07, Revision 1.0 Previous Revision: Revision 0.2 Page Subjects (major chang es since last revision)

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© 2019 Infineon Technologies AG. All Rights Reserved. Do you have a question about any aspect of this document? Email: erratum@infineon.com IMPORTANT NOTICE The information given in this document shall in no event be regarded as a guarantee of conditions or characteristics ("Beschaffenheitsgarantie"). With respect to any examples, hints or any typical values stated herein and/or any information regarding the application of the product, Infineon Technologies hereby disclaims any and all warranties and liabilities of any kind, including without limitation warranties of non- infringement of intellectual property rights of any third party. In addition, any information given in this document is subject to customer's comp liance with its obligations stated in this document and any applicable legal requirements, norms and standards concerning customer's products and any use of the product of Infineon Technologies in customer's applications. The data contained in this document is exclusively intended for technically t rained staff. It is the responsibility of customer's technical departments to evaluate the suitability of th e product for the intended application and the comp leteness of the product information given in this document with respect to such application. For further information on technology, delivery terms and conditions and prices, pl ease contact the nearest Infineon Technologies Office (www.infineon.com). WARNINGS Due to technical requirem ents products may contain dangerous substances. For in formation on the types in question please contact your nearest Infineon Technologies office. Except as otherwise explici tly approved by Infineon Technologies in a written document signed by authorized representatives of Infineon Technologies, Infineon Technologies’ products may not be used in any applications where a failu re of the product or any consequences of the use th ereof can reasonably be expected to result in personal injury. Please read the Important Notice and Warnings at the end of this document