NSPGS2F100AT08

NSPGS2 Series Integrated Gauge Pressure Sensor Datasheet (EN) 2.8 Product Overview Applications NSPGS2 series are calibrated gauge pressure sensor which combines state-of-art MEMS sensor technology and CMOS mix-signal processing technology to produce an amplified, fully conditioned, multi-order pressure and temperature compensated sensor in a Small Outline Package (SOP) with tube port. NSPGS2 series pressure sensor is target for consumer and medical application. Combining the pressure sensor with a signal conditioning ASIC in a single package simplifies the use of advanced silicon micromachined pressure sensors. The pressure sensor can be mounted directly to a standard printed circuit board and an amplified, highlevel, calibrated pressure signal can be acquired from the digital interface or analog output. This eliminates the need for additional circuitry, such as a compensation network or micro-controller containing a custom correction algorithm. NSPGS2 series are designed for operating pressure ranges of -100kPa Gauge to 350kPa Gauge, very suitable for consumer electronics such as vacuum cleaner and medical applications.  Vacuum cleaner, vacuum juicer  Air bed, massage chair  Smart blood pressure monitoring, oxygen concentrators  Industrial pressure sensor  IoT pressure sensor Device Information Part Number NSPGS2 Package SOP6 Body Size 7mm*7mm Outline Key Features  High accuracy over the life better than ±1.5% from 0°C to 60°C；(analog) better than ±2.5% from -40°C to 70°C；(analog) better than ±1% from 0°C to 60°C；(digital) better than ±2% from -40°C to 70°C；(digital)  Large temperature range -40°C ~70°C  Ratio-metric/Absolute analog output  24bit I2C  SOP package with air nozzle, easy to assembly Copyright © 2020, NOVOSENSE Page 1 NSPGS2 Series Datasheet (EN) 2.8 INDEX 1. PIN CONFIGURATION AND FUNCTIONS ..................................................................................................................................... 3 2. ABSOLUTE MAXIMUM RATINGS .................................................................................................................................................. 5 3. RECOMMENDED OPERATING CONDITIONS ................................................................................................................................ 5 4. SPECIFICATIONS ......................................................................................................................................................................... 6 4.1. 4.2. ELECTRICAL CHARACTERISTIC................................................................................................................................................. 6 I2C ELECTRICAL CHARACTERISTICS .......................................................................................................................................... 7 5. FUNCTION DESCRIPTION ........................................................................................................................................................... 8 5.1. 5.2. 5.3. 5.4. OVERVIEW ........................................................................................................................................................................... 8 ANALOG OUTPUT TRANSFER FUNCTION .................................................................................................................................... 8 DIGITAL OUTPUT TRANSFER FUNCTION ..................................................................................................................................... 9 I2C INTERFACE ................................................................................................................................................................... 10 6. TYPICAL APPLICATION .............................................................................................................................................................. 11 6.1. APPLICATION CIRCUIT ......................................................................................................................................................... 11 7. PACKAGE INFORMATION ........................................................................................................................................................... 13 7.1. 7.2. PACKAGE SIZE.................................................................................................................................................................... 13 RECOMMENDED FOOTPRINT ................................................................................................................................................. 13 8. ORDER INFORMATION .............................................................................................................................................................. 14 9. SOLDERING PARAMETERS ........................................................................................................................................................ 15 9.1. 9.2. REFLOW SOLDERING (SMD TERMINAL) .................................................................................................................................. 15 MANUAL SOLDERING ........................................................................................................................................................... 15 10. TUBE INFORMATION ............................................................................................................................................................... 16 11. IDENTIFICATION CODE ........................................................................................................................................................... 16 12. REVISION HISTORY ................................................................................................................................................................. 17 NOTES： ....................................................................................................................................................................................... 18 Copyright © 2022, NOVOSENSE Page 2 NSPGS2 Series Datasheet (EN) 2.8 1. Pin Configuration and Functions NC 1 6 NC OUT 2 5 NC VDD 3 4 GND Fig 1.1 NSPGS2 series analog out pin definition (Top view) Table 1.1 analog output pin description Pin NO. Pin name Description 1 NC No connect 2 OUT Analog output 3 VDD Power supply 4 GND Ground 5 NC No connect 6 NC No connect Copyright © 2022, NOVOSENSE Page 3 NSPGS2 Series Datasheet (EN) 2.8 GND 1 6 NC VDD 2 5 SCL NC 3 4 SDA Fig 1.2 NSPGS2 series IIC out pin definition (Top view) Table 1.2 digital output pin description Pin NO. Pin name Description 1 GND Ground 2 VDD Power supply 3 NC No connect 4 SDA I2C data signal 5 SCL I2C clock signal 6 NC No connect Copyright © 2022, NOVOSENSE Page 4 NSPGS2 Series Datasheet (EN) 2.8 2. Absolute Maximum Ratings Parameters Supply voltage Symbol Min VDD -0.3 Typ Analog output current limit Digital pin voltage -0.3 Proof pressure Pproof 300 Burst pressure Pburst 500 ESD susceptibility HBM Storage temperature Tstg Max Unit 6.5 V 25 mA VDD+0.3 V Comments 25°C kPaG 1000 2 -40 kPaG kV 100 °C 3. Recommended Operating Conditions Parameters Supply voltage Symbol Min Typ VDD 3 3.3 4.5 5 Max Unit Comments 3.6 V VDD=3.3V 5.5 V VDD=5V Operating pressure Pamb -100 350 kPaG Operating pressure range Prange 20 450 kPa Operating temperature Topr -40 70 °C Copyright © 2022, NOVOSENSE Pmax - Pmin Page 5 NSPGS2 Series Datasheet (EN) 2.8 4. Specifications 4.1. Electrical Characteristic Parameters Symbol Power on reset VDDPOR 2 Iavdd 2.5 mA Operation mode 200 nA Standby mode in digital output 24 Bits 120 dB 12 Bits Operating current ADC resolution RESRAW PSRR PSRR Min 90 DAC resolution Output load resistance Rload Output load capacitance Cload Full life accuracy (analog output)1,2 ACC Full life accuracy (I2C output)1,2 ACC Power up time TUP EEPROM data retention Tlive Typ Unit Comments V 1 kOhm Analog output nF Analog output 1.5% %FS 0°C ~ 60°C 2.5% %FS -40°C ~ 70°C 1% %FS 0°C ~ 60°C 2% %FS -40°C ~ 70°C 100 ms 15 10 1. Accuracy includes non-linearity, temperature, pressure hysteresis, temperature hysteresis; 2. Full life accuracy based on the 1000 hour of HTOL, LTOL, HTSL, THB and PCT testing; Copyright © 2022, NOVOSENSE Max years @125℃ Page 6 NSPGS2 Series Datasheet (EN) 2.8 4.2. I2C Electrical Characteristics Parameters Symbol Clock frequency f scl SCL low pulse t LOW SCL high pulse t HIGH SDA setup time t SUDAT SDA hold time t HDDAT Setup time for a repeated start condition t SUSTA Hold time for a start condition t HDSTA Setup time for a stop condition t SUSTO Time before a new transmission can start t BUF Copyright © 2022, NOVOSENSE B B B B B B B B B B B B B B B B Min B B Typ Max Unit 400 kHz 1.3 us 0.6 us 0.1 us 0.0 us 0.6 us 0.6 us 0.6 us 1.3 us Comments Page 7 NSPGS2 Series Datasheet (EN) 2.8 5. Function Description 5.1. Overview NSPGS2 uses a MEMS piezoresistive absolute pressure sensor element as a pressure sensitive component that provide an original signal output that is proportional to ambient pressure. The built-in conditioning IC drives the sensitive component and amplifies, temperature compensates, and linearizes the original signal to output a voltage signal that is linear with the applied pressure. VDD REF Diag Control Logics MUX 4X~64X PGA Buffer Interface SCL SDA DAC VOUT ADC Filter& DSP OSC &Timing POR Int Temp sensor GND Fig 5.1 Product Function Block Diagram 5.2. Analog output transfer function 𝑂𝑈𝑇 = (𝐴 × 𝑃 + 𝐵) × 5 @absolute analog output, VDD=5V 𝑂𝑈𝑇 = (𝐴 × 𝑃 + 𝐵) × 3.3 @absolute analog output, VDD=3.3V 𝑂𝑈𝑇 = (𝐴 × 𝑃 + 𝐵) × VDD @ratiometric analog output Note: OUT is the analog output, unit is V； P is the pressure value, gauge pressure, unit is kPa； Table 5.1 Analog Output Transfer Function Coefficient Product type NSPGS2F035RT01 Copyright © 2022, NOVOSENSE Pressure range PL 0kPa PH -35kPa Output range OL 0.1*VDD OH 0.9*VDD Gain and offset A -0.02286 B 0.1 Page 8 NSPGS2 Series Datasheet (EN) 2.8 @VDD=5V VOUT(V) 5 4.5 4 3.5 3 2.5 2 1.5 1 0.5 Pressure(kPaG) 0 -35 -30 -25 -20 -15 -10 -5 0 Fig 5.2 Analog Output Transfer Function 5.3. Digital output transfer function 𝐶𝑜𝑑𝑒 = (𝐴 x 𝑃 + 𝐵) ∗ 8388607 Code is the register 0x06~0x08 value; P is the pressure value, gauge pressure, unit is kPa； Table 5.2 Digital Output Transfer Function Coefficient Product type Pressure range NSPGS2F035DT09 PL 0 PH -35 Output range OL 838861 OH 7549746 Gain and offset A -0.02286 B 0.1 Register Map： Addr Bit Addr Description Default Description 0x30 7–4 Reserve 4’b0000 3 Sco 1’b0 Write with 0x0A to start a conversion, automatically come back to 0x02 after conversion ends. 2–0 Measurement_ctrl 3’b000 0x06 7–0 PDATA 0x00 Output Pressure Data. 0x07 7–0 PDATA 0x00 Code = Data0x06*2^16+ Data0x07*2^8+ Data0x08； 0x08 7–0 PDATA 0x00 For example: If the value of the registers 0x06、0x07、0x08 are 0x3F, 0xFF, 0xFF, according to NSPGS2F035DT09 transfer function, Code = 4194303, P(Pa) = (4194303/8388607-B)/A, and finally get the value of pressure about -17.5kPa. Copyright © 2022, NOVOSENSE Page 9 NSPGS2 Series Datasheet (EN) 2.8 5.4. I2C interface I2C bus uses SCL and SDA as signal lines. Both lines are connected to VDD externally via pull-up resistors so that they are pulled high when the bus is free. The I2C device address of NSPGS2 is shown below. Table 5.3 I2C address A7 A6 A5 A4 A3 A2 A1 W/R 1 1 1 1 1 1 1 0/1 The IIC interface protocol has special bus signal conditions. Start (S), stop (P) and binary data conditions are shown below. At start condition, SCL is high and SDA has a falling edge. Then the slave address is sent. After the 7 address bits, the direction control bit R/W selects the read or write operation. When a slave device recognizes that it is being addressed, it should acknowledge by pulling SDA low in the ninth SCL (ACK) cycle. At stop condition, SCL is also high, but SDA has a rising edge. Data must be held stable at SDA when SCL is high. Data can change value at SDA only when SCL is low. Fig 5.3 I2C Protocol Fig 5.4 I2C Write Byte Copyright © 2022, NOVOSENSE Page 10 NSPGS2 Series Datasheet (EN) 2.8 Fig 5.5 I2C Read Byte 6. Typical Application 6.1. Application circuit NC NC NSPGS2 VOUT Vout NC VDD VDD GND C1 100nF Fig 6.1 Analog Output Application Circuit Note: For applications with higher ESD requirements, it is recommended that customers use the Fig 6.2 protection circuits. Copyright © 2022, NOVOSENSE Page 11 NSPGS2 Series Datasheet (EN) 2.8 NC NC NSPGS2 R1 200Ω VOUT VOUT NC D1 VDD VDD GND C1 100nF D2 Fig 6.2 Analog Output Protection Circuit GND GND NC NSPGS2 MCU_IIC VDD VDD SCL NC SDA R1 4.7K VDD C1 100nF MCU_IIC R2 4.7K Fig 6.3 I2C Output Application Circuit Copyright © 2022, NOVOSENSE Page 12 NSPGS2 Series Datasheet (EN) 2.8 7. Package Information 7.1. Package size Top view Bottom view Fig 7.1 Package Outline mm 7.2. Recommended footprint Top view Fig 7.2 Footprint mm Copyright © 2022, NOVOSENSE Page 13 NSPGS2 Series Datasheet (EN) 2.8 8. Order Information Product Type Output type NSPGS2F035RT01 Ratiometric NSPGS2F100RT02 NSPGS2F100RT03 NSPGS2F200AT04 Pressure range kPaG Output range Clamp level Gain and offset Supply voltage PL PH OL OH VCL VCH A B 0kPa -35kPa 0.50V 4.50V 4.76% 94% -0.02286 0.10000 5.0V Ratiometric 0kPa -100kPa 0.50V 4.50V 4.76% 94% -0.00800 0.10000 5.0V Ratiometric Absolute 0 kPa -100 kPa 100kPa 100kPa 0.50V 0.20V 4.50V 4.70V 4.76% 0% 94% 100% 0.00800 0.00450 0.10000 0.49000 5.0V 5.0V NSPGS2F020RT05 NSPGS2F100AT06 Ratiometric Absolute 0 kPa 0 kPa -20kPa -100kPa 0.50V 0.77V 4.50V 4.60V 0% 4.76% 100% 94% -0.04000 -0.00766 0.10000 0.15400 5.0V 5.0V NSPGS2F020RT07 Ratiometric 0 kPa -20kPa 0.50V 4.50V 4.76% 94% -0.04000 0.10000 5.0V NSPGS2F100AT08 NSPGS2F035DT09 Absolute I 2C 0 kPa 0 kPa -100kPa -35kPa 0.50V 838861 4.50V 7549746 4.76% NA 94% NA -0.00800 -0.02286 0.10000 0.10000 5.0V 5.0V NSPGS2F020AT10 NSPGS2F200AT11 Absolute Absolute 0 kPa 0 kPa -20kPa 200kPa 0.50V 0.55V 4.50V 3.47V 0% 0% 100% 100% -0.04000 0.00292 0.10000 0.11000 5.0V 5.0V NSPGS2F020AT12 NSPGS2F200RT13 Absolute Ratiometric 0kPa 0 kPa 20kPa 200kPa 0.33V 0.33V 2.97V 2.97V 0% 0% 100% 100% 0.04000 0.00400 0.10000 0.10000 3.3V 3.3V NSPGS2F040AT14 Absolute 0kPa 40kPa 0.33V 2.97V 0% 100% 0.02000 0.10000 3.3V NSPGS2F350ATK1 NSPGS2F020DT15 Absolute I 2C 0kPa 0kPa 350kPa -20kPa 0.20V 838861 4.70V 7549746 0% NA 100% NA 0.002571 -0.04000 0.040000 0.10000 5.0V 5.0V NSPGS2F200DT16 NSPGS2F350DT17 I 2C I 2C -100kPa 0kPa 100kPa 350kPa 838861 838861 7549746 7549746 NA NA NA NA 0.00400 0.002286 0.50000 0.10000 3.3V 5.0V NSPGS2F050DT18 I 2C 0kPa 50kPa 838861 7549746 NA NA 0.01600 0.10000 3.3V NSPGS2F010DT19 NSPGS2F050RT20 2 IC Ratiometric 0kPa 0kPa 10kPa 50kPa 838861 0.20V 7549746 4.70V NA 0% NA 100% 0.08000 0.01800 0.10000 0.04000 5.0V 5.0V NSPGS2F100AT21 NSPGS2F050AT22 Absolute Absolute 0kPa 0kPa 100kPa 50kPa 0.50V 0.33V 4.50V 2.97V 4.76% 0% 94% 100% 0.00800 0.01600 0.10000 0.10000 5.0V 3.3V NSPGS2F100DT23 NSPGS2F300RT24 I 2C Ratiometric -50 0kPa 50kPa 300kPa 838861 0.33V 7549746 2.97V NA 0% NA 100% 0.00800 0.00267 0.50000 0.10000 3.3V 3.3V Naming Convention: NSP(GS2)(F)(035)(R)(T)(01) Series Air nozzle Pressure range: 0kPa ~ -35kPa Copyright © 2022, NOVOSENSE Customer ID Tube A:Absolute analog output R:Ratiometric analog output D:Digital output Page 14 NSPGS2 Series Datasheet (EN) 2.8 9. Soldering Parameters 9.1. Reflow soldering (SMD Terminal) Reflow Condition Pre Heat Lead–free assembly Temperature Min (Ts(min)) 150°C Temperature Max (Ts(max) 180°C Time (min to max) (ts) 60 – 150 secs Average ramp up rate (Liquidus Temp (TL) to peak 2°C/second max TS(max)to TL - Ramp-up Rate Reflow 2°C/second max Temperature (TL) (Liquidus) 210°C Time (min to max) (tL) 60 – 220 seconds Peak Temperature (TP) 240°C Time within 5°C of actual peak Temperature (tp) 12 – 30 seconds Ramp-down Rate 6°C/second max Time 25°C to peak Temperature (TP) 230 seconds Max. Do not exceed 240°C tp TP Critical Zone TL to Tp Ramp-up TL Temperature tL Ts(max) Ramp-down Ts(min) 25 ts Preheat t 25 to Peak Time 9.2. Manual soldering ・Raise the temperature of the soldering tip between 260 °C and 300 °C and solder within 5 seconds. ・Use a flattened soldering tip when performing rework on the solder bridge. ・Complete rework in one time Copyright © 2022, NOVOSENSE Page 15 NSPGS2 Series Datasheet (EN) 2.8 10. Tube Information This series product using tube package, each tube contains 70ea devices. There are 10 tubes per box, and the minimum order quantity is 1400ea. Each tube has a blue plug at the bottom and a white plug at the top, as follows: White plug Blue plug Tube direction Pin1 point faces to the white plug at the top: White plug Tube direction 11. Identification Code NSPGS2: series name; A: analog output; D: I2C digital output; AxxxxPxx: package date code; Copyright © 2022, NOVOSENSE Page 16 NSPGS2 Series Datasheet (EN) 2.8 12. Revision History Revision 0.1 Description Initial version. Date 1.0 Formal release. 2018/12/8 1.1 1.2 Add packing type description. Update footprint size. 2019/8/12 2019/9/11 1.3 Add digital and frequency output description; I2C pin definition; I2C protocol description. 2019/11/25 2.0 2018/4/23 Part number update. Add part number NSPGS2F020RT05, NSPGS2F100AT08, NSPGS2F035DT09, NSPGS2F020AT10, delete NSPGS2F040DT05; Difference description ratiometric & absolute output; 2020/5/17 2.2 Add part number NSPGS2F020AT10. 2020/12/3 2.3 2.4 Update identification code. Update format, font. 2020/12/23 2020/1/8 2.5 Update logo, format. Add Prange, update I2C pin definition, package information, add part number NSPGS2F200RT13. Add Soldering Parameters, update order Information, add important notice. 2020/2/25 2.1 2.7 2.8 Copyright © 2022, NOVOSENSE 2020/11/16 2021/6/15 2022/6/1 Page 17 NSPGS2 Series Datasheet (EN) 2.8 Notes： 1. I2C code void IIC_Init(void) { SCL_H; SDA_H; SCL_W; SDA_W; } void IIC_Start(void) { SDA_W; SCL_H; SDA_H; delay10us(); SDA_L; delay10us(); } void IIC_Stop(void) { SCL_L; delay10us(); SCL_H; SDA_W; SDA_L; delay10us(); SDA_H; delay10us(); } void IIC_ACK(void) { SDA_W; SDA_L; SCL_H; delay10us(); SCL_L; } void IIC_NACK(void) { SDA_W; SDA_H; SCL_H; delay10us(); Copyright © 2022, NOVOSENSE Page 18 NSPGS2 Series Datasheet (EN) 2.8 SCL_L; } uchar IIC_Wait_ACK(void) { int ErrTime=0; SDA_R; SCL_H; delay10us(); while(Read_SDA) { ErrTime++; if(ErrTime>200) { IIC_Stop(); return 1; } } SCL_L; SDA_W; SDA_L; delay10us(); return 0; } void IIC_Send(uchar IIC_Data) { uchar i; SDA_W; SCL_L; delay10us(); for(i=0;i>7) SDA_H; else SDA_L; IIC_Data