HV120 SUPERIOR-SENSORS | Alldatasheet
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Differential Low Pressure Sensors HVAC Applications www.SuperiorSensors.com 1 DS‐0001G.DOCX Highly integrated sensor with ADC and DSP Selectable pressure range from 0.1 to 60 inH2O Integrated 50/60Hz Notch Filter Selectable Bandwidth Filter from 0.1Hz to 10Hz Very High Accuracy +/‐ 0.1% of Selected Range Long Term Stability +/‐ 0.1% FSS Temperature Compensated 0°C to 50°C Supply Voltage Compensation Fully Integrated Compensation Math Standard I2C and SPI Interface Product Summary Superior Sensor Technology's HV Series Family offers the industry's highest performing and most flexible Differential Low Pressure Sensors for HVAC (Heating, Ventilation, and Air Conditioning) applications. Targeting pressure ranges from as low as 0.1" inH2O (Water Column) to 60" inH2O with industry leading 16 bits of resolution for each range supported. Competing solutions degrade as the pressure range is lowered; but, Superior's HV Series with the Multi‐Range capability enabled maintains optimal performance from 60" inH2O down to even 0.1" inH2O. The HV Series family employs Superior's proprietary NimbleSense™ architecture to create the industry's first generation of "Smart Sensors." NimbleSense™ provides very high dynamic range to enable a single device to cover the entire range of HVAC pressure requirements. For example, one Multi‐Range enabled Superior Sensor device can replace three to five (or more) competing products greatly simplifying installation requirements and significantly lowering inventory costs. As an example, an HV Series device installed in the ceiling vent can now be programmed to accommodate any pressure requirement without additional installation charges. For added performance, the HV Series has incorporated a 50/60Hz notch filter to minimize the impact of power noise spikes. The HV Series family provides a new level of integration combining an advanced piezoresistive sensing element with integrated amplification, ADC, DSP and digital interface which greatly simplifies customer integration efforts. The incorporation of advanced digital signal processing enables new functionality thus simplifying system development, manufacturing ease and increased reliability. Constructed with a high reliability plastic enclosure, the HV Series family provides the ideal combination of very high performance and reliability while ensuring customers have a high volume cost effective solution optimized for their HVAC requirements.
Differential Low Pressure Sensors www.SuperiorSensors.com 2 DS‐0001G.DOCX Table of Contents
1 Maximum Ratings
Parameter Sym Min Max Units Supply Voltage VDDM Gnd‐0.3 4.0 V Voltage on I/O Pins VDD > 3.3V VDD ≤ 3.3V VIOML VIOMH Gnd‐0.3 Gnd‐0.3 5.8 VDD+2.5 V V I/O Current IIOM ‐ 25 25 mA
2 Suggested Operating Conditions
Parameter Sym Min Max Units Supply Voltage VDDOP 2.8 3.5 V Temperature TA 0 50 °C
3 Environmental
Parameter Sym Min Max Units Temperature Range Compensated Operating Storage TCMP TOP TSTG ‐20 ‐40 Humidity (Non‐condensing) RHOP 0 95 % RH Vibration (10Hz‐2kHz) GVIBE ‐ 15 g Shock (6 ms) GSHOCK ‐ 100 g Life CYLIFE 1M ‐ Pressure Cycles
4 Equivalent Circuit
HV‐Series Equivalent Circuit FIG‐0026B DAV nRST SCK nSS VDD Gnd DAV nRST SCK nSS VDD Gnd Port B Port APLOW PHI GH MISO/SDA MOSI/SCL MISO/SDA MOSI/SCL PLO W PHI GH Sensor (SPI) Port B Port A Sensor (I2C) VI2C Address
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5 Feature List
Parameter Sym HV160 HV120 HV110 HV210 Units Notes Number of FS Pressure Ranges PNUM 8 4 5 7 Each Specified FS Range Extents PEXT ±2.5 to ±60 ±2.5 to ±20 ±0.5 to ±10 ±0.1 to ±10 inH2O Number of BW Filter Corners BWNUM 7 Each BW Corner Frequency Extents fBWEXT 0.1 to 10 Hz Common Mode Pressure PCM 700 500 500 500 inH2O 1 Proof Pressure PPROOF 400 40 40 40 inH2O 2 Burst Pressure PBURST 480 120 120 120 inH2O 3 1) Pressure applied to both ports simultaneously without incurring part damage. 2) Pressure at which the sensor will not suffer permanent damage. 3) Pressure if exceeded could cause permanent damage to the sensor.
6 Performance Characteristics
Note: Unless otherwise specified, characteristics specified with VDD = 3.3V, TA = 25C Parameter Sym HV160 HV110/HV120 HV210 Units Notes Min Typ Max Min Typ Max Min Typ Max Thermal Hysteresis THYS ‐ 0.05 ‐ ‐ 0.05 ‐ ‐ 0.025 ‐ % FSS Pressure Hysteresis PHYS ‐ 0.05 ‐ ‐ 0.05 ‐ ‐ 0.05 ‐ % RNG 1 Position Sensitivity PPS ‐ 2.0 ‐ ‐ 2.0 ‐ ‐ 0.25 ‐ Pa Supply Rejection PSR ‐ 0.0005 ‐ ‐ 0.0005 ‐ ‐ 0.0005 ‐ Pa/mV Resolution RES ‐ 16 ‐ ‐ 16 ‐ ‐ 16 ‐ bit 4 System ENOB ENOB ‐ 17 ‐ ‐ 19 ‐ ‐ 19 ‐ BitRMS 5 Data Update Rate fUPDATE 108 111 114 108 111 114 108 111 114 Hz 6 1) Percentage of selected range. 2) Uncertainty limited by system noise for ranges of 0.5 inH2O and below. 3) Includes errors of offset, span and thermal effects. 4) Each selected range has the specified resolution 5) ENOB stated for fBW set to 0.1 Hz. 6) The internal update rate is fixed and does not change with range or filter settings. Sampling at lower data rates are possible provided the Nyquist frequency is observed. It is suggested to sample at least 3x the set fBW frequency.
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7 Electrical Characteristics
7.1 Supply Characteristics
Parameter Sym HV110/HV120/HV160 HV210 Units Notes Min Typ Max Min Typ Max Supply Current IDD ‐ 3.5 3.8 ‐ 4.5 4.8 mA Supply Capacitance CDD ‐ 10 ‐ ‐ 10 ‐ uF 1 1) Supply capacitance is provided within the part however it is recommended to include a 0.1 uF decoupling cap near the supply pads.
7.2 Reset Characteristics
Parameter Sym Condition HV110 / HV120 /HV160/ HV210 Units Notes Min Typ Max Power‐On Reset Threshold VPORR VPORF Rising Voltage on VDD Falling Voltage on VDD 0.75 1.4 1.36 V V Interface Detect Delay tIOD From POR or External Reset ‐ ‐ 40 ms First Response Settling Time tFRD From POR or External Reset ‐ ‐ 150 ms 1 External Reset Low tRSTL 15 ‐ ‐ us Input High Voltage VIH VDD‐0.6 ‐ ‐ 2 Input Low Voltage VIL ‐ ‐ 0.6 2 Internal Pull‐Up Current IPU VIN = 0V ‐ ‐ 10 ‐ 30 uA 2 Input Capacitance CIN ‐ 7 ‐ pF 2 1) The filter settling time to ensure the first reading is completely settled. 2) Input nRST
7.3 DAV Characteristics
Parameter Sym Condition HV110 / HV120 /HV160/ HV210 Units Notes Min Typ Max Output High Voltage VOH IO = ‐3 mA VDD‐0.7 ‐ ‐ V Output Low Voltage VOL IO = 8 mA ‐ ‐ 0.6 V
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7.4 SPI Characteristics
Parameter Sym Condition HV110 / HV120 /HV160/ HV210 Units Notes Min Typ Max Output High Voltage VOH IO = ‐3 mA VDD‐0.7 ‐ ‐ V 1 Output Low Voltage VOL IO = 8 mA ‐ ‐ 0.6 V 1 Input High Voltage VIH VDD‐0.6 ‐ ‐ 2, 3 Input Low Voltage VIL ‐ ‐ 0.6 2, 3 Internal Pull‐Up Current IPU VIN = 0V ‐ ‐ 10 ‐ 30 uA 2, 3 Time nSS to First SCK Edge tSC 150 ‐ ‐ us Clock Cycle Time tCC 8 ‐ ‐ us Byte to Byte Cycle Time tBC 150 ‐ ‐ us Time Last Clock to nSS High tCN 25 ‐ ‐ us Cycle Time nSS tCS 8 ‐ ‐ us Input Capacitance CIN ‐ 7 ‐ pF 2 1) Output MOSI 2) Inputs MISO, SCK, nSS 3) Inputs are 5V compliant.
7.5 I2C Characteristics
Parameter Sym Condition HV110 / HV120 /HV160/ HV210 Units Notes Min Typ Max SCL Clock Frequency fSCL 100 ‐ 400 kHz Clock Stretch Time tCKSTR ‐ 15 150 us Input High Voltage VIH VDD‐0.6 ‐ ‐ Input Low Voltage VIL ‐ ‐ 0.6 Output Low Voltage VOL IO = 8 mA ‐ ‐ 0.6 V Input Capacitance CIO ‐ 7 ‐ pF
8 Materials
8.1 Wetted Materials
Parameter Sym HV110/HV120/HV160 HV210 Units Notes PA PB PA PB Wetted Materials MATWET Epoxy Nylon RTV Silicon Epoxy Nylon RTV Silicon Gold Aluminum Epoxy Nylon RTV Silicon Gold Aluminum Epoxy Nylon RTV Silicon Gold Aluminum
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8.2 Material Compliance
Parameter Sym HV110 / HV120 /HV160/ HV210 Units Notes RoHS REGRoHS RoHS Compliant REACH REGREAC REACH Compliant
9 System Overview
The HV Series pressure sensor is a fully integrated pressure acquisition system in a sensor module. The acquisition system includes anti‐alias filters, data acquisition, 50/60Hz notch filter, sensor compensation, bandwidth limiting and I/O functions. Refer to the figure below for the HV Series block diagram. Pressure Sensor Δ‐Sigma Modulator Δ‐Sigma Modulator SAR ADC SAR ADC Decimation 4 50/60Hz Notch (Sinc2)
26 Term
4 SPI/I2C
(2nd Order) Compensation FPU with Linearization Anti‐Alias Filter Rate Controller HW Interface Anti‐Alias Filter MISO/SDA MOSI/SCL SCK nSS FIG‐0011A There are also two user controlled registers that tune the sensor to the specific user requirements. The first register is the Mode Control register that determines the output pressure range, the corner frequency of the bandwidth limiting filter and enables or disables the 50/60Hz notch filter. The second register is the Rate Control register which controls the rate at which the Data Available (DAV) pin is asserted. The internal sensor data update rate is 111 Hz. This is generally much faster than the requirements of an HVAC transmitter so the Rate Control register will throttle down the rate at which the Data Available pin (DAV) is asserted. The DAV is reset upon each read of the pressure sensor. An internal model of the Rate Controller is illustrated in the figure to the right. Rate Counter Rate Control Register S R QOverflow Reload Value Internal Update (111Hz Rate) Data Read DAV FIG‐0012A
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10 Interface
10.1 Reset
Reset timing is shown in the diagram below. The communications method (SPI or I2C) is established during the time just after reset. During this time (tIOD), no communications should take place. Also, the internal filters are settling during the time tFRD and data acquired during this time may not be fully settled. VDD Reset Timing Diagram FIG‐0021A VPORR Internal Reset Communications Available Filters Settled VPORF _RST tIOD tFRD tIOD tRSTL tFRD
10.2 Communication Interface Selection
The communications interface is selected by interrogating the nSS pin after the internal power on reset delay. If nSS is high, the SPI interface will be selected otherwise (if low) the I2C interface will be selected. Grounding the nSS pin is an acceptable method for selecting the I2C interface. NOTE: The I2C interface supports 10 interface addresses. Refer to section 10.4.1 for the details on I2C address selection.
10.3 SPI Interface
The SPI interface uses a 16 bit transfer for all communications. Data is MSB first for both MOSI and MISO data transfers. Refer to the figure below for specific timing requirements. The data communications has been reduced to a simple 16 bit transfer model for reading the pressure output. Each communication cycle consists of master sending the Mode and Rate data to be placed into the sensor Mode Register and Rate Registers respectively. Simultaneously, the sensor sends the pressure data for the master to receive. Refer to the figure below for the data communication model of the HV Series sensor. Bit 7 Bit 6 Bit 5 Bit 4 Bit 3 Bit 2 Bi t 1 Bi t 0 Bi t 7 Bi t 6 Bi t 5 Bit 4 Bit 3 Bit 2 Bit 1 Bit 0 Bit 7 Bit 6 Bit 5 Bit 4 Bit 3 Bit 2 Bi t 1 Bi t 0 Bi t 7 Bi t 6 Bi t 5 Bit 4 Bit 3 Bit 2 Bit 1 Bit 0 SCK MOSI MISO nSS tsc tcc tbc tcn tcs SPI Timing Diagram FIG‐0013A
Differential Low Pressure Sensors www.SuperiorSensors.com 8 DS‐0001G.DOCX The requirement to send the Mode and Rate bytes on each data read cycle is intentional. The purpose is to force the master to send specific data for each communication and prevent inadvertent data from being sent to the sensor. Since a SPI interface will generally re‐circulate data through its shift register, the intention is to prevent the pressure output from the sensor from being re‐circulated back to the sensor and potentially causing unintended corruption of manufacturing data.
10.4 I2C Interface
The HV Series is compatible with the I2C protocol. For detailed information regarding the I2C protocol, please refer to the Philips I2C Bus Specification, Version 2.
10.4.1 I2C Address
The I2C address is set to 0x28 by grounding the SCK line. Other I2C addresses can be established by applying a voltage to the SCK line by use of a resistor divider across the sensor supply voltage. The suggested resistor values and the respective I2C address are shown in the table to the left. Note: R1 is the lower resister of the divider where R2 is the upper resistor of the divider.
10.4.2 I2C Communications Model
The sensor is configured as a slave device and as such, the communicating host must be configured as a master. There are two types of possible data transfers, data transfers from the master transmitter to an addressed sensor (WRITE), and data transfers from an addressed sensor to a master receiver (READ). The master device initiates both types of data transfers and provides the serial clock pulses on SCL. The communications model for I2C is similar to that of SPI however, since I2C is a half‐duplex protocol, the transfer of information to and from the sensor is separated into two separate communications. This is in contrast to the SPI interface where the transmitted and received data occurs simultaneously to and from the host. Refer to the figure to the right for the data communication model for the HV Series sensors. User Mode By te SCK MOSI MISO nSS Pressure Output High Byte User Rate Byte Pressure Output Low Byte SPI Data Diagram FIG‐0014A R1 (kΩ)R 2 (kΩ) Address (decimal) Address (hex) 120 5.6 49 0x31 120 12 48 0x30 120 27 47 0x2F 120 51 46 0x2E 120 100 45 0x2D 56 100 44 0x2C 30 100 43 0x2B 15 100 42 0x2A 5.6 100 41 0x29
0 NoPop 40 0x28
I2C Address Selection Table
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10.4.3 I2C Clock Stretching
The figure to the right illustrates the I2C clock stretching by the sensor. At times, the sensor requires additional time to respond to the host and utilizes the clock stretching feature of the I2C protocol. This is accomplished by holding the SCL low after the ACK cycle of a data transfer. Refer to Section 7.5 for the clock stretching timing. Note, the maximum clock stretch time will generally only occur once during the three ACK cycles of a two byte transfer. That is, the balance of ACK's during a multi‐byte transfer will generally include the typical clock stretching time.
10.4.4 I2C Bus Compatibility
The I2C specification allows any recessive voltage between 3.0 and 5.0 V. Different devices on the bus may operate at different voltage levels. However, the maximum voltage on any port pin must conform to the electrical characteristics specifications (See section 1). The bi‐directional SCL (serial clock) and SDA (serial data) lines must be connected to a positive power supply voltage through a pull‐up resistor or similar circuit. Every device connected to the bus must have an open‐drain or open‐collector output for both the SCL and SDA lines, so that both are pulled high (recessive state) when the bus is free.
10.5 Extended Data Acquisition
10.5.1 Available Extended Data
For either the SPI or I2C interface, additional data is available beyond the pressure. The means to access this extended data is to continue reading data (either SPI or I2C) beyond the first 16 bits of pressure information. The following table defines the order of the available data and respective format. Data Bytes Format Interpretation Example Pressure 1‐2 2 byte, Signed Int See Section 10.7 See Section 10.7 Temperature 3‐4 2 byte, Signed Int Fixed Decimal [8.8 bits], Upper 8 bits integer, lower 8 bits fractional. Temperature in °C Model 5‐10 6 byte, ASCII, null terminated Right reading ASCII with null termination 48H,56H,32H,31H,30H,00H = HV210 Serial Number 11‐14 4 byte, Hex Unique 4 byte serial for each part 2FD627A4H Build Number 15‐20 6 byte, ASCII, null terminated Right reading ASCII with null termination 30H,30H,30H,33H,43H,00H = 0003C
10.5.2 SPI Extended Data Read
Reading the extended data while using the SPI interface is the same as shown in Section 10.3 with exception that the master continues to read during the same nSS sequence to read all 20 bytes of the extended data. Any portion of the 20 bytes can be read during the transfer. That is, for example, 4 bytes could be read to acquire only the pressure and temperature information. When reading the extended data, only the first two bytes sent to the sensor (User Mode and User Rate) are used to set the internal registers. The subsequent bytes (bytes 5 through 20) are ignored. Data read following the first 20 bytes is undefined.
10.5.3 I2C Extended Data Read
Reading the extended data via the I2C interface is similar to using the SPI interface where the master can simply continue to reading the sensor during the pressure reading transfer. The master continues Ack'ing until the number of desired bytes are read.
Differential Low Pressure Sensors www.SuperiorSensors.com 10 DS‐0001G.DOCX b7 b6 b5 b4 b3 b2 b1 b0 Pressure Range Sel ect I/ O Watchdog Enable BW Limit Select No tch Enable Mode Reg ister (General) b7 b6 b5 b4 b3 b2 b1 b0 Mode Reg ister (Detail) 0 0 0 0 0 1 0 1 0 0 1 1 1 0 0 1 0 1 1 1 0 1 1 1 2.5 inH2O 2.5 inH2O 2.5 inH2O 2.5 inH2O 2.5 inH2O 5.0 inH2O 10.0 inH2O 20.0 inH2O Disabled 0 0 0 0 0 1 0 1 0 0 1 1 1 0 0 1 0 1 1 1 0 1 1 1 0.1 Hz 0.25 Hz 0.5 Hz 1.0 Hz 2.5 Hz 5.0 Hz 10.0 Hz Auto Se lect No tch Fi lter Disabled No tch Fi lter Enabled HV120 BW Limit Select No tch Enable Mode Control Register Detail 0.1 Hz 0.25 Hz 0.5 Hz 1.0 Hz 2.5 Hz 5.0 Hz 10.0 Hz 10.0 Hz Auto Se lect BW Limit 0.5 inH2O 0.5 inH2O 0.5 inH2O 1.0 inH2O 2.5 inH2O 5.0 inH2O 10.0 inH2O 10.0 inH2O HV110 0.1 inH2O 0.25 inH2O 0.5 inH2O 1.0 inH2O 2.5 inH2O 5.0 inH2O 10.0 inH2O 10.0 inH2O HV210 Pressure Range Sel ect (by Mod el) FIG‐0023C 10 sec 4 sec 2 sec 1 sec 400 ms 200 ms 100 ms I/ O Watchdog Timeout
1 Enabled
2.5 inH2O 5.0 inH2O 10.0 in H2O 20.0 in H2O 30.0 in H2O 40.0 in H2O 50.0 in H2O 60.0 in H2O HV160
10.6 Control Registers
10.6.1 Mode Control Register
Default Value: 0xF6 Details of the Mode Control register are illustrated in the figure to the right. Bits 0‐2 control the output pressure range. Bit 3 is the I/O Watchdog Enable bit. When set, the I/O watchdog is enabled. When enabled, the I/O watchdog will monitor the I/O activity. If I/O activity is not detected for the I/O Watchdog timeout time, the pressure sensor will reset itself. The I/O watchdog timeout time is determined by the currently active bandwidth setting. This is whether the bandwidth is selected directly or by using the Auto Select bandwidth. Bits 4‐6 control the BW Limit Filter. Note: When the BW bits are all set, the BW is automatically selected according to the selected pressure range (see table to right). Bit 7 is the Notch Filter Enable bit. When enabled, the 50/60Hz notch filter is active. Please note the available pressure ranges for the different sensor models are indicated in the table. For values where the pressure range is not available for the given sensor (high or low), the table is highlighted in light orange and indicates the given full scale value to use for pressure conversion. It is possible to use these values however, since they do effect the set sensor bandwidth when the Auto Select bandwidth value (BW Limit Select = 111b) is used. It should also be noted that upon changing the Mode Control value, there is a one cycle latency before the new Mode Control value becomes valid. That is, the data of the communication cycle following a change to the Mode Control register will not reflect the change. It is not until the second communication cycle that the change in the Mode Control register will be reflected in the output data.
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10.6.2 Rate Control Register
Default Value: 0x00 The Rate Control Register controls the rate at which the DAV pin is asserted indicating new data is available. This register is primarily used to throttle down the actual data transfer rate (when using the DAV as the trigger to sample) since the general HVAC requirement is less than the internal 111Hz update rate. The function of this register is that it is the reload value of a data rate counter. The value of the Rate Control Register is the divisor of the 111 Hz internal data rate. Since a divisor of zero is not possible, a zero value will select the auto‐select rate mode. In this mode, the rate is selected based on the selected bandwidth limit. The auto rate value is 11.1 times the corner frequency of the bandwidth limit in all auto selected rates. Note: Start‐up time for the sensor is approximately 250ms for the first sample to be settled. Requesting data during this time will result in invalid information. However, this start‐up time can be used for configuring the Mode and Rate registers by performing a transfer with the desired Mode and Rate register values and discarding the received pressure data. After waiting the required start‐up time, the sensor will respond with desired data since the Mode and Rate registers have been pre‐established.
10.7 Computing Pressure
The pressure data is in the form of 16 bit signed integer sent in high byte then low byte order. This is a differential output by definition and the data range is ±215. There is a 10% margin in the output scaling and the selected full scale will reside in the 90% band of the total available output data range. Refer to Equation 1 (below) for the general model for computing the output pressure. As an example, if the sensor output is 3,647 counts and the selected pressure range is 1.0 inH2O, then the output pressure is 0.124 inH2O. Conversely, for a ‐3,647 count with the selected pressure range of 1.0 inH2O, the computed output pressure is ‐0.124 inH2O. Refer to Example 1 (below) for the specific example computation. ை௨௧ವಸಲಽ ଷ,ସ ଽ% ∗ ଶభఱܱ b7 b6 b5 b4 b3 b2 b1 b0 Rate Control Reg ister 0 0 0 0 0 1 0 1 0 0 1 1 1 1 0 1 1 1 Auto Se lect 111 Hz 55.5 Hz 37 Hz 0.437 Hz 0.435 Hz 0.1 Hz 0.25 Hz 0.5 Hz 1.0 Hz 2.5 Hz 5.0 Hz 10.0 Hz Selected BW Limit 0 0 00 0 0 0 00 0 0 0 00 0 0 0 00 0 1 1 11 1 1 1 11 1 111 Hz 55.5 Hz 27.7 Hz 11.1 Hz 5.55 Hz 2.77 Hz 1.11 Hz Auto Se lect Rate Rate Control Register Detail FIG‐0024A
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11 Mechanical and Manufacturing
11.1 Package Dimensions
11.2 Suggested Pad Layout
The suggested pad layout is shown in the figure below. An Eagle PCB symbol library is available with the shown pad dimensions. Please consult the factory to obtain the library.
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11.3 Pinout
(active low) Tie to Ground
2 MOSI/SCL MOSI SCL
3 MISO/SDA MISO SDA
4 SCK Serial Clock See Section 10.4.1
5 DNC Do Not Connect
6 DNC Do Not Connect
7 DNC Do Not Connect
8 Gnd Ground
9 VDD Sensor Supply
10 nRST Reset (active low)
11 DAV Data Available
11.4 Reflow Soldering and Handling Conditions
Soldering Specifications (Max) Preheat Ramp Rate Soak Time Time Above 217C Time Above 230C Time Above 250C Peak Temperature Cooling Ramp Rate tPHRR tSOAK tGT217 tGT230 tGT250 tPT tCRR 255 °C/s min s s s °C/s Weight WPRT 3.5 gm Moisture Sensitivity MSL 3 ESD (Human Body Model) ESD 2 kV
11.5 Pick and Place Pick-up Zone
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11.6 Packaging Options
11.6.1 Tray Packaging
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11.6.2 Tape and Reel
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11.7 Part Identification
12 Packaging Labeling
Packaging labels are provided with barcode Code 128 symbology. The provided fields are Company Name, Part Number, Packaging ID and Quantity. The Packaging ID traces back to the Lot Number (or Lot Numbers) contained in the package. The purpose is to eliminate multiple labels (one for each included Lot Number) in the event of multiple Lot Numbers within a single package. This is for ease of customer tracking and maintenance. The Packaging ID is a 24 bit value printed in hexadecimal format. Part Number Part Package Packaging Packaging Qty Order Number HV160‐SM02 SM02 Tape and Reel Multi‐Tray Single Tray Quarter Reel Cut Tape 256 512 1‐63 HV160‐SM02‐R HV160‐SM02‐M HV160‐SM02‐T HV160‐SM02‐Q HV160‐SM02‐C HV120‐SM02 SM02 Tape and Reel Multi‐Tray Single Tray Quarter Reel Cut Tape 256 512 1‐63 HV120‐SM02‐R HV120‐SM02‐M HV120‐SM02‐T HV120‐SM02‐Q HV120‐SM02‐C HV110‐SM02 SM02 Tape and Reel Multi‐Tray Single Tray Quarter Reel Cut Tape 256 512 1‐63 HV110‐SM02‐R HV110‐SM02‐M HV110‐SM02‐T HV110‐SM02‐Q HV110‐SM02‐C HV210‐SM02 SM02 Tape and Reel Multi‐Tray Single Tray Quarter Reel Cut Tape 256 512 1‐63 HV210‐SM02‐R HV210‐SM02‐M HV210‐SM02‐T HV210‐SM02‐Q HV210‐SM02‐C
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14 Revisions
Rev Change Description(s) Date By A Initial Release 3/25/18 T.S. B 1) Revised web address from SuperiorSensorTechnology.com to SuperiorSensors.com 2) Revise ordering information to include single tray and cut tape 3) Add multiple I2C address feature 4) Add extended data availability 5) Add I/O Watchdog feature 6) Revise TEB (all parts) 7) Revise Position Sensitivity (all parts) 8) Revise multi‐tray box dimensions 9) Revise packaging label for more reliable barcode reading 10) Correct port pressure assignments in FIG‐0026 11) Correct various typo's 1/17/2019 T.S. C 1) Correction of contact address and typo's. No material change 3/25/2019 T.S. D 1) Add HV160 5/20/2019 T.S. E 1) Correct I2C Address Selection Table 3/31/2020 T.S. F 1) Revise I2C Address Selection Table Resistor Values 2/4/2021 T.S. G 1) Updated Ordering Information 9/27/2021 A.G.
15 Warranty
Superior Sensor Technology and its subsidiaries warrant goods of its manufacture as being free of defective materials and faulty workmanship during the applicable warranty period. In all cases, Superior Sensor Technology's standard product warranty applies; please refer to your order acknowledgement or consult your local sales office for specific warranty details. If warranted goods are returned to Superior Sensor Technology during the period of coverage, Superior Sensor Technology will repair or replace, at its option, without charge those items that Superior Sensor Technology, in its sole discretion, finds defective. The foregoing is buyer’s sole remedy and is in lieu of all other warranties, expressed or implied. In no event shall Superior Sensor Technology be liable for consequential, special, or indirect damages. While Superior Sensor Technology may provide application assistance personally, through literature or the Superior Sensor Technology web site, it is buyer's sole responsibility to determine the suitability of the product in their application. Superior Sensor Technology assumes no liability for applications assistance or customer product design. Superior Sensor Technology reserves the right to make corrections, modifications, enhancements, improvements and other changes to its products and services at any time and to discontinue any product or service without notice. Customers should obtain the latest relevant information before placing orders and should verify that such information is current and complete. Superior SENSOR TECHNOLOGY
3080 Oakmead Village Road
Santa Clara, CA 95051 www.SuperiorSensors.com info@SuperiorSensors.com +1.408.703.2950 NimbleSense is a trademark of Superior Sensor Technology