Omega SP-006 User manual

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TM
User’s Guide
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SP-006
Layer N Pressure Monitoring and
Control Smart Probe

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omega.com [e-mail]
Servicing North America:
Omega Engineering, Inc.
800 Connecticut Ave. Suite 5N01, Norwalk, CT 06854
Toll-Free: 1-800-826-6342 (USA & Canada only)
Customer Service: 1-800-622-2378 (USA & Canada only)
Engineering Service: 1-800-872-9436 (USA & Canada only)
U.S.A.
Headquarters
Tel: [phone]
e-mail: [email protected]m
Fax: [phone]
The information contained in this document is believed to be correct, but OMEGA accepts no liability for any errors it contains and reserves
the right to alter specifications without notice.
Servicing UK:
Omega Engineering, Limited
One Omega Drive, Northbank
Irlam, Manchester M44 5BD
Servicing DE:
Omega Engineering, GmbH
Daimlerstrasse 26, Deckenpfronn,
Germany 75392

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Table of Contents
1Notes Cautions and Warnings .................................................................................................................... 5
2Introduction .............................................................................................................................................. 6
3Specifications ............................................................................................................................................ 7
4Hardware Setup ........................................................................................................................................ 8
4.1 Connecting your Layer N Smart Interface ..........................................................................................................8
5SYNC Configuration ................................................................................................................................... 9
5.1 Connecting to SYNC – Automatic Detect............................................................................................................9
5.2 Connecting to SYNC – Manual...........................................................................................................................9
5.2.1 Communication Interface..................................................................................................................................... 9
5.3 Input Configuration ........................................................................................................................................10
5.3.1 Pressure.............................................................................................................................................................. 10
5.3.1.1 Pressure User Calibration ............................................................................................................................................... 11
5.3.2 Temperature....................................................................................................................................................... 11
5.3.3 Discrete Input/Output (DIO) .............................................................................................................................. 12
5.3.3.1 Setting DIO as an Input ................................................................................................................................................... 12
5.3.4 Advanced Scaling Options .................................................................................................................................. 13
5.4Output Configuration .....................................................................................................................................13
5.4.1 Device Output Range/Types............................................................................................................................... 14
5.4.1.1 ON/OFF Output Type ...................................................................................................................................................... 14
5.4.1.2 Pulse-Width Modulation (PWM) Output Type ............................................................................................................... 14
5.4.1.3 SERVO Output Type ........................................................................................................................................................ 15
5.4.2 Sensor Output Mapping ..................................................................................................................................... 15
5.4.3 ON/OFF Control Module .................................................................................................................................... 17
5.4.4 Setting an Alarm................................................................................................................................................. 18
6Appendix: SP-006 Registers...................................................................................................................... 19
6.1 Register Base Addresses .................................................................................................................................19
6.2 Pressure Sensor..............................................................................................................................................19
6.2.1 Pressure Descriptor ............................................................................................................................................ 19
6.2.1.1 Pressure Sensor Type...................................................................................................................................................... 19
6.2.1.2 Pressure Data Type/Format ............................................................................................................................................ 20
6.2.1.3 Temperature Configuration Byte.................................................................................................................................... 20
6.2.2 Pressure Sensor Device Byte .............................................................................................................................. 21
6.2.3 Pressure User Calibration Parameters ............................................................................................................... 21
6.2.4 IPSO Pressure Sensor Definition......................................................................................................................... 22
6.2.4.1 Precision.......................................................................................................................................................................... 22
6.2.4.2 Sensor Trigger Function .................................................................................................................................................. 22
6.2.4.1 Max Range ...................................................................................................................................................................... 23
6.3 Temperature Sensor.......................................................................................................................................23
6.3.1 Temperature Descriptor..................................................................................................................................... 23
6.3.1.1 Temperature Sensor Type............................................................................................................................................... 23
6.3.1.2 Temperature Data Type/Format..................................................................................................................................... 23
6.3.1.3 Temperature Configuration Byte.................................................................................................................................... 24
6.3.1.4 Temperature Device Byte ............................................................................................................................................... 24
6.3.2 Temperature Parameters................................................................................................................................... 24
6.3.3 Temperature User Calibration............................................................................................................................ 24
6.3.4 IPSO Temperature Sensor Definition ................................................................................................................. 24
6.3.4.1 Precision.......................................................................................................................................................................... 24
6.3.4.2 Sensor Trigger Function .................................................................................................................................................. 25

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6.4 Discrete I/O Interface.....................................................................................................................................25
6.4.1 DIO Descriptor.................................................................................................................................................... 25
6.4.1.1 DIO Sensor Type.............................................................................................................................................................. 25
6.4.1.2 DIO Data Type/Format.................................................................................................................................................... 25
6.4.1.3 DIO Input Configuration.................................................................................................................................................. 26
6.4.1.4 DIO Device Configuration................................................................................................................................................ 26
6.4.2 DIO IPSO Definition ............................................................................................................................................ 27
6.4.2.1 Sensor Trigger Function .................................................................................................................................................. 27
6.5 Output Configuration Registers ......................................................................................................................27
6.5.1 Scaling Minimum / Maximum Values................................................................................................................. 28
6.5.2 Output Values..................................................................................................................................................... 28
6.5.3 Output Names .................................................................................................................................................... 28
6.6 Output Configuration .....................................................................................................................................29
6.6.1 Rate .................................................................................................................................................................... 29
6.6.1.1 PWM Rate ....................................................................................................................................................................... 29
6.6.1.2 SERVO Rate ..................................................................................................................................................................... 29
6.6.2 Output Type........................................................................................................................................................ 30
6.6.3 Active State......................................................................................................................................................... 30
6.6.4 Mapping Enabled ............................................................................................................................................... 30
6.6.5 Sensor Mapping.................................................................................................................................................. 30

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1Notes Cautions and Warnings
If the equipment is used in a manner not specified in this manual, the protection by the equipment may be impaired.
Do not operate the equipment in flammable or explosive environments.
It is important to read and follow all precautions and instructions in this manual before operating or commissioning this
device as it contains important information relating to safety and EMC. Failure to follow all the safety precautions may
result in injury and/or damage to the equipment.
The following labels identify information that is especially important to note:
Note: Provides information that is important to successfully set up and use the SP-006.
Caution or Warning: Informs about the risk of electrical shock.
Caution, Warning, or Important: Informs of circumstances that can affect the functionality of the instruments and
must refer to accompanying documents.

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2Introduction
The Layer N SP-006 Pressure Monitoring Smart Probe provides an easy way to integrate Absolute or Gauge pressure
readings and ambient temperature readings into the Layer N Ecosystem. The SP-006 accepts Layer N Smart Interfaces
through its M12 8-pin connector. See Figure 1.
For additional functionality, the Layer N SP-006 features 2 configurable discrete I/O pins which can be used for a myriad of
applications including driving relays, physical alarms, or sensing dry contacts like door switches. The SP-006 can also be
utilized as an edge controller with autonomous independent decision-making capabilities to generate local alarms or
provide control outputs based on sensor inputs. The optional M12.8-T-SPLIT Sensor Splitter can be used to access the
Discrete I/O pins on the M12 8-pin connector. The optional M12.8-S-M-FM mating connector can be utilized to easily
connect wire leads to the SP-006 or Sensor Splitter. See Figure 2.
Included with your SP-006
•SP-006 Unit
•Quick Start Guide
Additional Material Needed
•Layer N Smart Interface (wired IF-001 or wireless IF-006)
•Computer with Windows OS
•SYNC configuration software
Optional Materials
•M12.8-S-M-FM screw terminal connector (needed for discrete I/O)
•DM12CAB extension cable
Figure 2: Example SP-006 integrated into a Layer N ecosystem
Figure 1: SP-006 Unit
IF-001 sold
separately

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3Specifications
INPUT POWER
Voltage: 2.8 VDC - 3.3 VDC
DIO DISCRETE INPUTS
VinHighThreshold = 2.2 VMAX
VinLowThreshold = 0.3 VMIN
VinMAX = 30 VDC
DIO DISCRETE OUTPUTS
2x Open Drain 100 mA max
VMAX = 30 VDC
PRESSURE
Range: (See Ordering Guide below)
Accuracy: ±0.5%full-scale
Resolution: 0.1 kPa
Absolute Maximum Pressure: 1.5 time full-scale for each range
Caution: Do not exceed 500 psi
TEMPERATURE
Range: -10 to 80°C (14 to 176°F)
Accuracy: ±1.5°C
Resolution: 0.1°C
ENVIRONMENTAL
Storage Temperature: -40 to 85°C (-40 to 185°F)less than 95% RH, non-condensing
Environmental Rating: IP50
GENERAL
Configuration: Configurable via Layer N Smart Interface andSYNC configuration software
Software: Compatible with OEG,SYNC, and OMEGA Cloud
Figure 3: SP-006 Dimensions and Pressure Ports

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Ordering Guide
Model Number
SP-006-1-C-050G
Layer N pressure monitoring and control smart probe with discrete I/O -
50 psi 350 kPa Gauge
SP-006-1-C-050A
Layer N pressure monitoring and control smart probe with discrete I/O -
50 psi 350 kPa Absolute
SP-006-1-C-100G
Layer N pressure monitoring and control smart probe with discrete I/O -
100 psi 700 kPa Gauge
SP-006-1-C-250G
Layer N pressure monitoring and control smart probe with discrete I/O -
250 psi 1700 kPa Gauge
Notes:
•Model Numbers above have a ¼ - 18 NPT male pressure port (i.e. ordering code C)
•Inquire with Omega Engineering for other pressure port options. Refer to Figure 3.
4Hardware Setup
4.1 Connecting your Layer N Smart Interface
The SP-006 requires a Layer N Smart Interface to connect to a computer. Omega offers a variety of Layer N Smart
Interfaces such as the wired IF-001 (USB) and IF-002 (Modbus) or the wireless IF-006. Use the M12 8-Pin Connector
diagram below to connect the SP-006 to a Layer N Smart Interface.
Pin
Name
Function
Pin 1
DIO 0
Discrete I/O Signal 0
Pin 2
INTR
Interrupt Signal
Pin 3
SCL
I2C Clock Signal
Pin 4
SDA
I2C Data Signal
Pin 5
Shield
Shield Ground
Pin 6
DIO 1
Discrete I/O Signal 1
Pin 7
GND
Power Ground
Pin 8
3.3VDD
Power Supply
Figure 4: M12 8-Pin
Connector front view

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5SYNC Configuration
Layer N Smart Probe products are easily configurable through Omega’s SYNC configuration software. Ensure SYNC is
running on a Windows OS computer before continuing. Connect the SP-006 to a computer running SYNC through your Layer
N Smart Interface to begin.
Note: SYNC is available to download for free on the Omega website.
5.1 Connecting to SYNC – Automatic Detect
Once the SP-006 and Layer N Smart Interface are connected to a computer, SYNC will automatically detect the
device and display readings.
Note: If live readings from the SP-006 are displayed on SYNC, skip ahead to the section titled Input
Configuration.
5.2 Connecting to SYNC – Manual
If SYNC does not automatically detect the device, follow these instructions to manually connect it.
Step 2: Proceed through the Add Device Wizard and click End Device/Probe.
5.2.1 Communication Interface
Set the communication parameters for the Layer N Smart Interface that you are connecting.
Note: The connection type and parameters must be accurate for a proper connection to be established.
Failure to accurately set up communication parameters may result in communication errors.
•Connection Type: Select the type of connection you have between your SP-006 and your computer.
•Command Timeout: The maximum time (in milliseconds) for a command to be completed before the
command is aborted.
Note: The default command timeout is 500 milliseconds. It is recommended that this section be left
unchanged to avoid communication errors.
•Device Address: The default device address is 1. The numerical value will automatically increase to the next
available device address for every new device added to prevent duplicate addresses.
•Device IP or Port: The COM port number that your device is connected to on your computer.
Figure 5: USB Communication Interface
Figure 6: USB Serial Communication Interface

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•BaudRate: Controls bits per second
•DataBits: The number of bits in each character sent.
•Parity: A means of checking the correctness of a character by adding an extra bit to the character and setting
the value based on all the other bits in the character.
•StopBits: The number of bits used to indicate the end of the character.
Once you have completed setting the communication parameters for your device, click Finish.
5.3 Input Configuration
The SP-006 provides readings for pressure, temperature, and discrete I/O (DIO). To use these features, click the
Inputs configuration tab on SYNC and choose your preferred input mix from the Type dropdown. The SP-006 allows
selecting pressure and discrete I/O only or pressure, temperature, and discrete I/O.
5.3.1 Pressure
The SP-006 Pressure readings are fixed based on the specific model. The user may calibrate the Pressure
sensor using Single or Dual-Point calibration by clicking the Calibration button.
Figure 7: SYNC interface pressure input

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5.3.1.1 Pressure User Calibration
After clicking the Calibration button, the user must follow the onscreen directions to calibrate the
device.
Figure 8: SYNC pressure user calibration
5.3.2 Temperature
The SP-006 Temperature readings may be configured under the advanced scaling options which include Gain
and Offset.
Figure 9: SYNC interface temperature input

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5.3.3 Discrete Input/Output (DIO)
The Layer N SP-006 features 2 configurable discrete I/O pins DIO_0 and DIO_1. These DIO pins can be used
for a myriad of applications including driving relays, physical alarms, or sensing dry contacts like door
switches. The user may configure the polarity of the inputs (active HIGH or active LOW) or Disable the DIO to
utilize the outputs (ON/OFF, PWM, SERVO). The Advanced Scaling option does not apply to the DIO input
reading.
Figure 10: SYNC interface discrete I/O input configuration
The Discrete I/O input shares the same circuitry as the output. The internal process drives the output control
signal to turn on the output driver which will force the output low. When the state of the DIO input signal is
to be read the processor applies 3.3 VDC to the Input Bias signal and reads the level detected at the Input
Sense. If the output is inactive an external signal may be used to force the input level low. A diode protects
external positive voltages, allowing the output driver to activate loads greater than the internal 3.3 VDC.
5.3.3.1 Setting DIO as an Input
To use a DIO pin as an input, make sure it is set to Active Low (default) in the Output Tab in SYNC.
Then, in the Input Tab, select a Type from the drop-down which includes DIO. Each DIO pin has an
internal pull-up, but to save power, the internal pull-up is only active when the unit takes a reading.
Figure 11: Discrete I/O circuitry
Figure 12: SYNC interface outputs tab

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5.3.4 Advanced Scaling Options
The Layer N SP-006 allows for advanced scaling options on the pressure and temperature inputs.The
Advanced Scaling checkbox can be selected to expand additional configuration options. A gain and/or offset
can be applied to the input reading and the displayed unit can be changed.
To apply a gain or offset to the input, expand the Advanced Scaling menu and ensure that both Apply
Scaling and Lock are checked. Under Scaling, the gain and offset values can be adjusted. Both positive and
negative values may be entered as well as decimal numbers. The equation for the scaled input value is given
below.
 =( ×)+
The displayed units can be changed by entering a new value in the Unit field and clicking Apply Settings. This
field is limited to a maximum of 4 characters. Note that changing the Unit field does not change the base
unit type, only the display name. The Lock checkbox must be selected to use the user-defined Unit field.
Unchecking the Lock checkbox and clicking Apply Settings will revert the unit display back to the default
setting.
5.4 Output Configuration
The SP-006 offers two discrete outputs that share circuitry with the discrete inputs. If an output is to be used then
the corresponding input pin must be set to Disable. See section 5.3.3 Discrete Input/Output (DIO) for more
information.
There are three types of output options – On/Off, Pulse-Width Modulation (PWM), or Servo. See section 5.4.1 for
more information on each type.
Outputs may be configured as either Active High or Active Low. When configured as Active High the output
conducts normally and becomes high impedance when activated. When configured as Active Low, the Open-Drain
output is high impedance normally and will conduct when activated.
Option
Value
Description
Active
LOW
When the output is inactive, it is in a high impedance state.
HIGH
When the output is active, it is in a high impedance state.
Figure 13: SYNC interface SP-006 DIO_0 and DIO_1 set to Disable
Figure 14: SYNC interface Output Configuration

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An output may be controlled in one of three ways – a scaled mapping to an input, an on/off control from an input
setpoint, or as an input alarm. Sections 5.4.2 through 5.4.4describe these output control methods.
5.4.1 Device Output Range/Types
There are three types of output options – On/Off, Pulse-Width Modulation (PWM), or Servo. This section
describes these output options.
5.4.1.1 ON/OFF Output Type
The ON/OFF output mode switches the output to be a binary ON or OFF. Depending on if the
output is configured as Active Low or Active High, the ON/OFF mode can correspond to different
polarities.
5.4.1.2 Pulse-Width Modulation (PWM) Output Type
Pulse-Width Modulation (PWM) controls the amount of power given to a device by cycling the
on/off phases of a discrete signal. PWM consists of a duty cycle and frequency. The Duty Cycle
measures the amount of time a signal is in the ON state as a percentage. The frequency controls
how fast the PWM cycle is repeated. Users can select between the following settings:
Option
Value
Description
Rate
100 Hz
Signal has a constant 100 Hz frequency with 0-100% Duty Cycle
10 Hz
Signal has a constant 10 Hz frequency with 0-100% Duty Cycle
1 Hz
Signal has a constant 1 Hz frequency with 0-100% Duty Cycle
0.1 Hz
Signal has a constant 0.1 Hz frequency with a 0-100% Duty Cycle
Signal Type
Active LOW
When the output is active, it is pulled to ground (LOW)
Active HIGH
When the output is active, it is in a high impedance state
20 % Duty Cycle
Example shows a PWM output signal configured
with a 100 Hz frequency and active HIGH
outputs. The duty cycle has been set to 20%.
100 Hz
Figure 16: PWM function diagram
20 % Duty Cycle
Figure 15: SYNC interface output type selection

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5.4.1.3 SERVO Output Type
The SERVO output allows driving servo motors that control position. A Servo output is a special case
of the PWM output, where the ON time varies between 1.0 msec and 2.0 msec or between 0.5
msec and 2.5 msec, with the lower bound representing 0 degrees and the upper bound
representing 180 degrees of angular travel. The typical non-critical frequency is 50 or 100 Hz. Servo
outputs are always active high.
Option
Value
Description
Rate
100 Hz
Signal has a constant 100 Hz frequency
50 Hz
Signal has a constant 50 Hz frequency
Pulse Width
Range
1.0-2.0 msec
On time varies between 1 and 2 msec
0.5-2.5 msec
On time varies between 0.5 and 2.5 msec
Example: For the percent of angular travel, if the pulse width range is set to a range of 1.0-2.0 msec,
then an output of 50% of angular travel represents 1.5 msec or 90 degrees of travel.
5.4.2 Sensor Output Mapping
The SP-006 allows mapping a scaled copy of any of the input values to any of the outputs. To set a mapped
output, it must not be associated with any alarm or ON/OFF control module. Two user-defined values,
Scaling Minimum and Scaling Maximum, define the sensor range that is mapped to the output. A Factory
Reset sets the Input Minimum to 0 and the Input Maximum to 100.
The scaling equations for direct and reverse output percentages are given below.
 = 
×100%
Figure 18: Sensor output mapping configuration example
100% Angular Travel = 2.0 msec
50 Hz
Figure 17: SERVO output example
1.0 msec = 0°
1.5 msec = 90°
2.0 msec = 180°

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  =
×100%
Example: The figures below and above display a PWM output direct-mapped to a Rate input. The minimum
expected input rate is 25 Hz and the maximum expected rate is 150 Hz. A value of 50 Hz read at the input is
then mapped to a PWM output with an 80% duty cycle.
 , =150 50 
150 25 ×100% =80%
Figure 19: Sensor output mapping diagram

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5.4.3 ON/OFF Control Module
To configure an ON/OFF control module on a device, first ensure that the desired output pin is not
associated with any input alarms and that it is set as No Mapping in the Output Mapping menu in the
Outputs tab. The ON/OFF control module can be used with any selected output type including ON/OFF,
PWM, and SERVO. When enabled in PWM mode, ON corresponds to 100% duty cycle. When enabled in
SERVO mode, ON corresponds to 100% angular travel.
In the Outputs Tab in SYNC click on the icon located to the right of the available outputs. Clicking the
icon will open the Define ON/OFF Control dialog box as seen below.
The Enable Control checkbox enables the ON/OFF control module. If this box is unchecked, the output will
be disabled but the module with all its settings will remain available to be enabled at a later time.
The Inputs dropdown lists the available input sources and will depend on how the device is configured in the
Inputs tab.
The Setpoint field sets the threshold for activating the ON/OFF control module. The unit of the Setpoint field
will be the same as the unit of the chosen Input.
The Control Actions dropdown has options for direct or reverse control. In direct mode, once the Setpoint
value is reached then the output will be set to ON. In reverse mode, once the Setpoint value is reached then
the output will be set to OFF.
The DeadBand field together with the direct or reverse control action configures a deadband range around
the Setpoint where the ON/OFF control does not toggle. The unit of the DeadBand field will be the same as
the unit of the chosen Input.
•Example 1: the setpoint is configured for a 50 Hz rate input with a deadband of 10 Hz with direct
control action. The output will activate if the input rises above 60 Hz. Conversely, the output will
become inactive if the input falls below 50 Hz.
•Example 2: the setpoint is configured for a 50 Hz rate input with a deadband of 10 Hz with reverse
control action. The output will activate if the input falls below 40 Hz. Conversely, the output will
become inactive if the input rises above 50 Hz.
The Save button saves and applies the configurations settings to the ON/OFF control module. The Delete
button only appears for a previously saved ON/OFF control module and it removes the module and allows
other output types to be configured such as an alarm or mapping.
Figure 20: SYNC interface ON/OFF control module functions

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5.4.4 Setting an Alarm
Alarms are set by clicking the icon in SYNC on the desired input signal found in the Input Tab.
Configure the Condition that triggers the alarm by selecting an option from the drop-down such as Above,
Below, Outside the Range, or Within the Range.The Threshold field(s) will change to display whatever is
appropriate for the option chosen such as a High Threshold for an Above condition or a Low Threshold for a
Below condition. A Duration can be set for the trigger as well where the condition must be met for a certain
amount of time before the alarm flags.
Under the Action menu, the option to transmit or not transmit a notification can be set. The option to
enable “Turn On” an output can also be set. The output chosen must not be currently used in a sensor
mapping or ON/OFF control module. The data transmission interval may also be changed upon triggering an
alarm, e.g. increase the rate of transmission if an excessive value is detected.
The Recovery menu allows the option to clear the alarm after a certain Duration (in Seconds) once the
trigger condition is no longer met. The transmission interval can also be Reset to the normal system setting
once the alarm is cleared.
To create a new alarm, click the plus icon and a new alarm will be added. To remove an alarm once it
is created, select the alarm in question on the left side of the alarm panel and click the delete icon .
Figure 21: SYNC alarm configuration interface

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6Appendix: SP-006 Registers
The following Appendix provides the registers and list index for the Layer N SP-006 Pressure monitoring Smart Probe. This
information is intended to aid users who will be making configurations and adjustments to their Layer N SP-006 Pressure
monitoring Smart Probe through the Command Line Interface or other custom interfaces.
6.1 Register Base Addresses
Smart Probe devices share a common platform architecture that provides extensive monitoring and control
capabilities through a set of platform generic registers. These registers may be accessed using I2C based commands
directly to the Smart Probe devices or through a set of Modbus-based registers when using Omega Interface devices.
Refer to the Smart Sensor Device Interface manual for further information.
When powered on, or after a device reset, each Smart Sensor-based device will enumerate 1 or more sensor
instances which are described by the device-specific Sensor Descriptors which include configuration options,
measurement type, and units of measure for the corresponding sensor values. Additional sensor information is
provided in sensor-specific IPSO object descriptions which include extended measurement type, precision, and
tracking of minimum/maximum readings.
Sensors are always enumerated in the order Pressure, Temperature (T), and DIO.
Each enumerated Sensor has a Descriptor Base address location and a Sensor IPSO / Configuration structure address
location based on the sensor mix selected.
6.2 Pressure Sensor
Sensor
Descriptor Base
IPSO/Configuration
Enumerated Sensor Mix
SP-006-0
SP-006-1
0
0x0060 (0xf030)
0x08a8 (0xf454)
Pressure
1
0x0068 (0xf034)
0x09a8 (0xf4d4)
Temperature
Temperature
2
0x0070 (0xf038)
0x0aa8 (0xf554)
DIO
3
0x0078 (0xf03c)
0x0ba8 (0xf5d4)
6.2.1 Pressure Descriptor
The SP-006 configures the sensors based on the factory device list and user-specified list index. The Sensor
Configuration and Sensor Device fields may be written to provide control of the overall function of the channel
and the signal types used.
Offset
Name
Value
Description
0x00
Sensor Type
0x28
Pressure
0x01
Data Type/Format
0x06
Float type
0x02
Configuration Byte
??
See subsections below
0x03
Device Byte
0x00
Not Used
0x04..0x08
UOMR
“kPa”
Units of measure
6.2.1.1 Pressure Sensor Type
Sensor Type
SI Derived
Units
Measurement
0x28
kPa
Pressure

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6.2.1.2 Pressure Data Type/Format
The SP-006 supports extended configuration and provides factory calibration. All data values are
returned as 32-bit floating-point values.
Pressure Data Type/Format
7
6
5
4
3
2
1
0
Smart
Sensor
Configuration
Enable
Factory
Calibrate
Data Type
0
0
0
0
6 == Floating point
6.2.1.2.1 Data Type
The 4-bit Data Type field determines the type of data of the specific sensor.
6.2.1.2.2 Factory Calibrate
Factory calibration is available for the SP-006 process inputs. Clearing this bit will disable
the factory calibration values.
6.2.1.2.3 Writeable
The writeable bit is cleared, indicating that the sensor values may not be overwritten.
6.2.1.3 Temperature Configuration Byte
Pressure Sensor Configuration
7
6
5
4
3
2
1
0
Available
Assigned/
Channel
Apply
Scaling
Lock Sensor Range/Type
0
0
?
?
Read Only – Indicates pressure range
6.2.1.3.1 Lock
If set, the user-specified units of measure string (4-character maximum) will be used in
place of the default.
6.2.1.3.2 Apply Scaling
For more information on Gain and Offset, refer to the Smart Sensor Manual. If set, the user-
defined Offset, and Gain values will be used to adjust the sensor reading:
Result = (Raw Reading * Gain) + Offset
6.2.1.3.3 Assigned
The Assigned bit will always read as 0. Refer to the Smart Sensor Device Interface
documentation for further information.
6.2.1.3.4 Available
The Available bit will always read as 0. Refer to the Smart Sensor Device Interface
documentation for further information.