SM5391-BCE-S-012.00-451

SM5391-BCE-S-012.00-451 TEC | Alldatasheet

Document overview

• Manufacturer or author: Provided By alldatasheet.com(free datasheet download site)
• PDF pages: 15

Technical content

Features

 Pressure ranges: from 0.07 up to 2.49 PSI  Pressure type:  gage  differential  asymmetric differential  16-bit I2C digital and analog output interface available  Total error band  ± 1% FS (digital)  ± 1.5% FS (analog)  Pressure calibrated and temperature compensated output  Compensated temperature range: -20 to 85oC

Applications

 CPAP / Sleep Apnea  Ventilators  Gas Flow Instrumentation  Air Flow Measurement  HVAC / VAV  Pressure Transmitters  Pneumatic Gauges  Pressure Switches  Safety Cabinets CLICK HERE › CONNECT WITH A SPECIALIST

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 2 Performance Specification 1. Calibrated Pressure Ranges Series Pressure Type Output Type PMIN (PSI) PMAX (PSI) SM7291 Gage Digital & Analog 0 +0.14 to +0.29 SM7231 Gage Digital SM7391 Differential* Digital & Analog -0.29 to -0.07 +0.07 to +0.29 SM7331 Differential* Digital SM7491 Asymmetric Digital & Analog -0.29 to 0 0 to +0.29 SM7431 Asymmetric Digital SM6291 Gage Digital & Analog 0 +0.3 to +0.79 SM6231 Gage Digital SM6391 Differential* Digital & Analog -0.79 to -0.3 +0.3 to +0.79 SM6331 Differential* Digital SM6491 Asymmetric Digital & Analog -0.79 to 0 0 to +0.79 SM6431 Asymmetric Digital SM5291 Gage Digital & Analog 0 +0.8 to +2.49 SM5231 Gage Digital SM5391 Differential* Digital & Analog -2.49 to -0.8 +0.8 to +2.49 SM5331 Differential* Digital SM5491 Asymmetric Digital & Analog -2.49 to 0 0 to +2.49 SM5431 Asymmetric Digital Comments: *For differential devices the absolute value of PMIN must match absolute value of PMAX. **For asymmetric devices the delta between PMAX and PMIN must be at least 0.14 PSI. 2. Absolute Maximum Ratings All parameters are specified at VDD = 3.3 V / 5.0 V supply voltage at 25°C, unless otherwise noted. Characteristic Symbol Min Max Units Compensated Temperature TCOMP -20 85 °C Operating Temperature(a) TOP -40 105 °C Storage Temperature(a) TSTG -40 125 °C Supply Voltage VDD -0.3 6 V Media Compatibility(a) Clean, dry air compatible with wetted materials (b) Burst pressure and proof pressure by pressure range and series Max Operating Pressure Range PMAX (PSI) Series Proof Pressure(a, c) PBurst (PSI) Burst Pressure(a, d) PProof (PSI) 0.07 to 0.29 7X91 and 7X31 1.5 3 0.3 to 0.79 6X91 and 6X31 4.5 6 0.8 to 2.49 5X91 and 5X31 12 15 Notes: a) Tested on a sample basis. b) Wetted materials include silicon, epoxy, RTV, gold and aluminum. c) Proof pressure is defined as the maximum pressure to which the device can be taken and still perform within specifications after returning to the operating pressure range. d) Burst pressure is the pressure at which the device s uffers catastrophic failure resulting in pressure loss through the device.

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 3 3. ESD Description Condition Symbol Min Max Units ESD HBM Protection at all Pins AEC Q100-002 (HBM) chip level test VESD(HBM) -2 2 kV 4. External Components Description Symbol Min Typ Max Units Supply bypass capacitor CVDD 100 nF 5. Recommended Operating Conditions The recommended operating conditions must not be exceeded in order to provide proper functionality of the device. All parameters specified in the following sections refer to these recommended operating conditions unless stated otherwise. Description Symbol Min Typ Max Units Low level input voltage at Digital I/O VIN,I2C,lo -0.3 0.9 V High level input voltage at Digital I/O VIN,I2C,hi 0.8 * VDD VDD+0.3 V Current Consumption with analog output (only applicable for XX91) 4.5 mA Current Consumption without analog output 3 mA 6. Operating Characteristics Table All parameters are specified at VDD = 3.3 V / 5.0 V supply voltage at 25°C, unless otherwise noted. Characteristic Series Symbol Min Typ Max Units Digital Pressure Output PMIN (e) All DOUTMIN -26,215 Counts Digital Pressure Output PMAX (e) DOUTMAX 26,214 Counts Digital Full Scale Span(e) DFS 52,429 Counts Resolution 16 Bits Digital Output Total Error Band (f, g, h) DACC -1 +1 %FS Analog Pressure Output @ PMIN (e) XX91 AOUTMIN 10 %VDD Analog Pressure Output @ PMAX (e) AOUTMAX 90 %VDD Analog Full Scale Span AFS 80 %VDD Analog Output Accuracy (f, g, h) AACC -1.5 +1.5 %FS Notes: e) Only the typical values are shown here. However, the ou tput values can be customized or changed upon request. f) The total error band specification applies over all opera ting conditions in dry clean air. This specification includes the combination of linearity, repeatability, and hysteresis errors over pressure, temperature, and voltage. g) Maximum 10-year zero pressure offset shift < ±2%FS bas ed on 1000 hours of HTOL, TC and THB testing. h) For less demanding applications, devices with relaxed accuracy sp ecifications are available.

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 4 7. Digital Output Transfer Function Prୣaୢ = P୫i୬ + P_DOUTrୣaୢ − P_DOUT୫i୬ P_DOUT୫ax − P_DOUT୫i୬ ሺP୫ax − P୫i୬ሻ Prୣaୢ = P୫i୬ + P_DOUTrୣaୢ − P_DOUT୫i୬ P_DOUT୫ax − P_DOUT୫i୬ ሺP୫ax − P୫i୬ሻ P୫i୬ and P୫ax are minimum and maximum rating pressure in specified pressure unit on the specification. P_DOUT୫i୬ and P_DOUT୫ax are minimum and maximum digital counts on the specification. P_DOUTrୣaୢ is digital reading from the output and Prୣaୢis the converted pressure output based on P_DOUTrୣaୢ. For example, the P୫i୬ and P୫ax for the sensor are specified as -15 psi and +15 psi. The DOUT୫i୬ and DOUT୫ax are - 26214 and +26214. So, Prୣaୢ = −ͳͷ + DOUTrୣaୢ + ʹ͸ʹͳͶ ͷʹͶʹ8 × ͵Ͳ psi

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 5 8. Package Reference SOIC-16 (C) Dual Vertical Package Dimensions Lot number identification on top side Notes:

• All dimensions in units of [mm]
• Moisture Sensitivity Level (MSL): Level 3
• Wetted materials: Silicon, glass, gold, aluminum, copper, sil icone, epoxy, mold compound.
• [B] is tube connected to bottom side of sensor die.
• [T] is tube connected to top side of sensor die. Topside pr essure is positive pressure. An increase in topside pressure will result in an increase in sensor output.
• Bottom pla te is stainless steel.
• Electrically isolate the bottom metal cover, do not connec t to the cover and keep the board underneath free from electrical circuits.
• Robust JEDEC SOIC-16 package for automated assembly
• Manufactured according to ISO9001, ISO14001 and ISO/TS 16949 standards

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 6 SOIC-16 (C) Dual Horizontal Package Dimensions Lot number identification on top side Notes:

• All dimensions in units of [mm]
• Moisture Sensitivity Level (MSL): Level 3
• Wetted materials: Silicon, glass, gold, aluminum, copper, sil icone, epoxy, mold compound.
• [B] is tube connected to bottom side of sensor die.
• [T] is tube connected to top side of sensor die. Topside pr essure is positive pressure. An increase in topside pressure will result in a increase in sensor output.
• Bottom plate is stainless steel
• Robust JEDEC SOIC-16 package for automated assembly
• Electrically isolate the bottom metal cover, do not connec t to the cover and keep the board underneath free from electrical circuits.
• Manufactured according to ISO9001, ISO14001 and ISO/TS 16949 standards

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 7 Applications Circuit Pin No Pin Function (XX91) Pin Function (XX31)

1 NC (No Connect) NC (No Connect)

2 NC NC

3 NC NC

4 VSS VSS

5 VDD VDD

6 VOUT (Analog Output) NC

7 NC NC

8 NC NC

9 NC NC

10 SDA SDA

11 SCL SCL

12 NC NC

13 NC NC

14 NC NC

15 NC NC

16 NC NC

Notes:

• Do not connect to NC pins

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 8 9. Part Numbering Key Pressure Series (PSI) 7 +0.07 to +0.29 6 +0.3 to +0.79 5 +0.8 to +2.49 Pressure Type

2 Gage

3 Differential

4 Asymmetric Differential

9 16 bit I2C and Amplified Analog Total Error Band 1 1% FS Digital and 1.5% FS Analog Package Type and Porting BC SOIC-16 w/ dual vertical porting BB SOIC-16 w/ dual horizontal porting Compensated Temperature Range E -20 to +85°C Shipping Format S Stick T Tape & Reel Minimum Pressure Max. -999.99 (unsigned and only displayed in the part number for asymmetric parts) Pressure Direction

1 Topside

2 Backside

3 3.3 V 5 5.0 V Pressure Unit 1 psi 2 mbar 3 Pa 4 kPa 5 mmHg 6 cmH2O 8 inH2O Maximum Pressure Max. 999.99 Part Number SMXXXX-XXX-X-XXX.XX-XXX-XXX.XX

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 9 10. Ordering Information (Example Configurations) Part Number Part

Description

Configuration Voltage Shipping(a) 7391-BCE-S- 500-000 SM7391-BCE-S- 500.00-331 -500 to +500 Pa Digital & Analog SOIC-16 Dual Vertical 3.3 V Sticks (45 parts/stick) 7291-BCE-S- 001-000 SM7291-BCE-S- 001.00-431 0 to +1 kPa Digital & Analog SM7391-BCE- S-500 SM7391-BCE-S- 500.00-331 -500 to +500 Pa Digital & Analog 6391-BCE-S- 040-000 SM6391-BCE-S- 040.00-631 -40 to +40 cmH2O Digital & Analog 5391-BCE-S- 100-000 SM5391-BCE-S- 100.00-631 -100 to +100 cmH2O Digital & Analog 5291-BCE-S- 100-000 SM5291-BCE-S- 100.00-631 0 to +100 cmH2O Digital & Analog Notes: a) All parts also available in shipping configuration Tape & Reel (SO IC-16 Dual Horizontal 500 parts/reel; SOIC-16 Dual Vertical 350 parts/reel), see section 10. Part Numbering Key for ordering information b) The above table shows example configurations, not all available part num bers are listed. Contact Customer Care (customercare.mlpt@te.com) and provide configuration information based on part numbering key to order other configurations. c) If support is needed during the part selection process, please contact the Sensor Qualification Team (sensorsqt@te.com).

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 10 11. I2C Communication protocol

11.1 I2C Electrical Table

Description Condition Symbol Min Typ Max Units SDA output low voltage ISDA = 3 mA VSDA,OL 0 0.4 V Low-to-High transition threshold pins SA0, SCL VSDA,LH 0.5 0.6 0.7 *VDD High-to-Low transition threshold pins SA0, SCL VSDA,HL 0.3 0.4 0.5 *VDD I2C clock frequency**) fSCL 0 400 kHz Bus free time between a START and STOP condition*) tBUSF 1300 ns Clock low time*) tLO 1300 ns Clock high time*) tHI 600 ns START condition hold time*) tSH 100 ns Data setup time*) tSU 100 ns Data hold time*) tH 0 ns Setup time for repeated START condition*) tRSH 600 ns Setup time for STOP condition*) tPSU 600 ns Rise time of SDA and SCL signals*) tR 300 ns Fall time of SDA and SCL signals*) tF 300 ns *) Not tested in production **) For I2C bus capacitance load >100pF maximum possible clock frequency is 100kHz

11.2 I2C Interface

The sensor features an I2C slave interface. This interface provides direct access to registers of the memory of the pressure sensor. An external I2C master (e.g. a microcontroller) can read from and write to memory addresses (registers) of the device using the following commands:

• Random write: Sets a memory address and writes data to consecutive memory addresses of the device starting at the set memory address.
• Random read: Sets a memory address and reads data from consecutive memory addresses of the device starting at the set memory address.
• Read last: Reads data from the device starting at the last memory address set by the master. This facilitates repeated reading of the same memory addresses without transmitting a memory address first. All reads/writes must start at word aligned addresses (i.e. LSB of memory address equals 0) and read/write an even number of bytes. I2C Interface Timing Diagram:

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 11

11.3 I2C Command Format

The sensor uses a standard 7-bit I2C slave address field. The LSB of the slave address specifies the frame type used to perform read and write operations. For LSB = 0 the protocol is compatible to standard I2C EEPROMs, for LSB = 1 the protocol is extended by a CRC protection. Thus, each device occupies two I2C addresses: even addresses are for standard EEPROM compatible protocols and odd addresses are for CRC protected protocols. Unprotected and CRC protected frames can be interleaved. The two different frame types - standard EEPROM (without CRC) or CRC protected - are shown in the next two figures. I2C Read / Write Commands - Standard EEPROM compatible protocol I2C Read / Write Commands - CRC protected protocol The memory address field sets the byte address of the first memory location to be read from or written to. Only 16-bit-word aligned reads/writes are supported, i.e. the LSB of memory address has to be zero always. The read/write data is transferred MSB first, low byte before high byte. The length field (bits[7:4]) required for CRC protected frames specifies the number of data bytes to be transferred decremented by one, i.e. a value of 0001b corresponds to two bytes. All frames must transfer an even number of bytes. The maximum length for CRC protected read/write frames is 4 bytes (2 registers). For unprotected frames the length is unlimited. The CRC4 and CRC8 for redundancy check are computed in the same bit and byte order as the transmission over the bus. The polynomials employed are:

• CRC4: polynomial 0x03; initialization value: 0x0F
• CRC8: polynomial 0xD5; initialization value: 0xFF If a CRC errors occurs, then the event bit com_crc_error in the STATUS register will be set.

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 12

11.4 I2C Command Examples

For all examples below the 7-bit device slave address used is 0x6C for unprotected commands, and 0x6D for CRC protected commands, respectively. The command sequence following describes an unprotected Read command (without CRC) of 3 subsequent 16-bit words starting at memory address 0x2E to read the corrected IC temperature, corrected pressure signal, and (synchronized) status bits of the sensor. Byte # 0 1 2 3 4 5 6 7 8 SBM (sent by master) 0xD8 0x2E 0xD9 SBM comment slave address 6C + LSB = 0 for Write memory address slave address 6C + LSB = 1 for Read SBS (sent by sensor) 0xF2 0x7D 0xEA 0x82 0x1E 0x00 SBS comment DSP_T (Lo-Byte) ad. 0x2E DSP_T (Hi-Byte) DSP_S (Lo-Byte) ad. 0x30 DSP_S (Hi-Byte) sync‘ed Status (b7 - b0) ad. 0x32 sync‘ed Status (b15 - b8) Random Read – protected by CRC: The following sequence describes the CRC protected version of reading 3 subsequent 16-bit words starting at memory address 0x2E to read the corrected IC temperature, corrected pressure signal, and (synchronized) status bits of the sensor. Byte # 0 1 2 3 4 5 6 7 8 SBM (sent by master) 0xDA 0x50 0x39 0xDB SBM comment slave address + LSB = 0 for Write memory address 3: length = 4Byte 9: CRC4 slave address + LSB = for Read SBS (sent by sensor) 0x0C 0x00 0xF3 0x61 0x0A SBS comment SER0 (Lo-Byte) ad. 0x50 SER0 (Hi- Byte) SER1 (Lo- Byte) ad. 0x52 SER1 (Hi- Byte) CRC8 (calc'd) Random Write: The following sequence writes one 16-bit word to address 0x22 (without CRC protection). This will copy 0x6C32 into the command register CMD to move the component to Sleep Mode. Byte # 0 1 2 3 SBM (sent by master) 0xD8 0x22 0x32 0x6C SBM comment slave address 6C + LSB = 0 for Write memory address Lo-Byte written to CMD[7:0] Hi-Byte written to CMD[15:8] SBS (sent by sensor) SBS comment

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 13 Random Write - protected with CRC: The next example describes a Write of one 16-bit word (contents 0xCF9E) with CRC protection to address 0x36 to clear events in the STATUS register. Byte # 0 1 2 3 4 5 SBM (sent by master) 0xDA 0x36 0x16 0x9E 0xCF 0x0E SBM comment slave address 6D + LSB = 0 for Write memory address 1: length = 2Byte 1: CRC4 STATUS (Lo-Byte) ad. 0x36 STATUS (Hi-Byte) CRC8 (calculated) SBS (sent by sensor) SBS comment

11.5 Register Descriptions

Register Read or Write are performed via the digital communication interface. After power-up of the IC all registers except STATUS and CMD are write protected. Command register: 0x22 CMD bits name default rw description 15:0 cmd 0 w Writing to this register controls the state of the device. 0x6C32: SLEEP Mode Initiate the power state SLEEP, powering down the ASIC 0xB169: RESET Performs a reset. After reset the power-up sequence will be executed, i.e. the registers are loaded with data from the configuration memory, also a CRC check is performed. Temperature register: 0x2E DSP_T bits name default rw description 15:0 dsp_t r Corrected temperature measurement value of the sensor. Whenever this register is updated with a new measurement the STATUS.dsp_t_up event bit is set. Pressure register: 0x30 DSP_S bits name default rw description 15:0 dsp_s r Corrected pressure measurement value of the sensor. Whenever this register is updated with a new measurement the STATUS.dsp_s_up event bit is set. The registers DSP_T and DSP_S contain invalid data after power-up until the first temperature and pressure values have been measured by the device and transferred to these registers. In case a NVM CRC error occurred, the DSP_T and DSP_S registers would never be updated. Thus, after power up it is necessary to wait until the STATUS.dsp_s_up and dsp_t_up bits have been set at least once before using the temperature or pressure data. It is not sufficient to wait just for a fixed time delay.

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 14 Status register - synchronized: 0x32 STATUS_SYNC bits name default rw type description 0 idle 0 rw status STATUS.idle 1 - reserved - 0 rw event reserved 2 - reserved - 0 rw event reserved 3 dsp_s_up 0 rw event when DSP_S is read STATUS.dsp_s_up is copied here 4 dsp_t_up 0 rw event when DSP_T is read STATUS.dsp_t_up is copied here 5 - reserved - 0 rw status reserved 6 - reserved - 0 rw status reserved 7 bs_fail 0 rw event STATUS.bs_fail 8 bc_fail 0 rw event STATUS.bc_fail 9 - reserved - 0 rw event reserved 10 dsp_sat 0 rw status STATUS.dsp_sat 11 com_crc_error 0 rw event STATUS.com_crc_error 12 - reserved - 0 rw status reserved 13 - reserved - 0 rw status reserved 14 dsp_s_missed 0 rw event STATUS.dsp_s_missed 15 dsp_t_missed 0 rw event STATUS.dsp_t_missed The bits STATUS_SYNC[15:5,0] are identical to the bits STATUS[15:5,0]. The bits STATUS_SYNC[4:3] are copied from the STATUS register when the corresponding DSP registers are read. First reading the DSP registers and then STATUS_SYNC confirms that both values are consistent to each other. The synchronized status STATUS_SYNC register can be used to continuously poll the pressure, temperature and status of the device with a single read command by reading three 16 bit words starting at address 0x2E. By evaluating STATUS_SYNC.dsp_t_up and STATUS_SYNC.dsp_s_up it can be determined if the values in DSP_T and DSP_S acquired during the same read contain recently updated temperature or pressure values. Status register: 0x36 STATUS bits name default rw type1 description 0 idle 0 rw status 0: chip in busy state 1: chip in idle state 1 - reserved - 0 rw event reserved 2 - reserved - 0 rw event reserved 3 dsp_s_up 0 rw event 1: DSP_S register has been updated. Cleared when DSP_S is read 4 dsp_t_up 0 rw event 1: DSP_T register has been updated. Cleared when DSP_T is read. 5 - reserved - 0 rw status reserved 6 - reserved - 0 rw status reserved 7 bs_fail 0 rw event 1: bridge supply failure occurred 8 bc_fail 0 rw event 1: sensor bridge check failure occurred 9 - reserved - 0 rw event reserved 10 dsp_sat 0 rw status 1:a DSP computataion leading to current DSP_T or DSP_S values was saturated to prevent overflow 11 com_crc_error 0 rw event 1:communication CRC error 12 - reserved - 0 rw status reserved 13 - reserved - 0 rw status reserved 14 dsp_s_missed 0 rw event 1:dsp_s_up was 1 when DSP_S updated 15 dsp_t_missed 0 rw event 1:dsp_t_up was 1 when DSP_T updated

• "Event" type flags remain set until cleared by writing '1' to the respective bit position in STATUS register (not STATUS_SYNC). Writing 0xFFFF to the STATUS register will clear all event bits.
• "Status" type flag represents a condition of a hardware module of the IC and persists until the condition has disappeared.

LOW PRESSURE DIGITAL AND ANALOG SENSOR SM7000/SM6000/SM5000 Series TE CONNECTIVITY SENSORS /// SM7000/SM6000/SM5000 SERIES 05/2021 Page 15 Serial Number register 0: 0x50 SER0 bits name default rw description 15:0 ser0 r Serial number of the IC, Lo-Word Serial Number register 1: 0x52 SER1 bits name default rw description 15:0 ser1 r Serial number of the IC, Hi-Word 12. Qualification Standards REACH Compliant RoHS Compliant PFOS/PFOA Compliant For qualification specifications te.com/sensors TE Connectivity, TE, TE Connectivity (logo) and Every Connection Co unts are trademarks. All other logos, products and/or company n ames referred to herein might be trademarks of their respective owners The information given herein, including drawings, illustrations and schematics which are intended for illustration purposes only, is believed to be reliable. However, TE Connectivity makes no warranties as to its accuracy or completeness and discl aims any liability in connection with its use. TE Connectiv ity‘s obligations shall only be as set forth in TE Connectivity‘s Standard Terms and Conditions of Sale for this product and in no case will TE Connectivity be liable for any incidental, indirect or consequential damages arising out of the sale, resale, use or misuse of the product. Users of TE Connectivity products should make their own evaluation to determine the suitability of each such product for the specific application. © 2020 TE Connectivity Corporation. All Rights Reserved. Version 05/2021 GLOBAL Tel +1 408 577 0100 customercare.mlpt@te.com CLICK HERE › CONNECT WITH A SPECIALIST