SwiftSensors 3 Series User guide

Series 3 System Manual
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Table of Contents
1. Table of Contents 2
2. General 4
3. Intended Use 5
3.1 Operating Environment 6
3.1.1 Gateway 6
3.1.1.1 Deployment Environment 6
3.1.1.2 Operating Temperature and Flammability 6
3.1.2 Sensor 6
3.1.2.1 Deployment Environment 6
3.1.2.2 Probe Environmental Limits 6
3.2 Hazards / Failure Conditions 7
3.2.1 Gateway and Sensor 7
3.2.1.1 Exposure and Mechanical Damage 7
3.3 Warnings 7
3.3.1 Gateway 7
3.3.1.1 Disassembly and Risk of Electrical Shock 7
4. Mounting and Deployment 8
4.1 Operating Environment Indications 8
4.1.1 Gateway 8
4.1.1.1 Optimal Orientation 8
4.1.1.2 Mounting Options 8
4.1.2 Sensor 9
4.1.2.1 Optimal Orientation 9
4.1.2.2 General Mounting Options 9
4.1.2.3 Labeling the Sensor 10
4.1.2.4 Sensor Model-Specific Installation Guidance 9
4.1.2.5 SS3-615: Wireless Universal Analog Sensor Adaptor Installation and Use 16
5. Technical Specification 21

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5.1 Electrical Specification 21
5.2 Equipment Ratings 21
6. Equipment Operation 22
6.1 Accessories / Interconnects 22
6.1.1 Gateway 22
6.1.1.1 USB3.0 Ports and Cellular Modem 22
6.1.1.2 Optional IP67/NEMA Enclosures 25
6.1.1.3 Ethernet Cable Gland Installation
6.1.2 Sensor 26
6.1.2.1 Thermal Buffer Bottles (Glycol, Glass Bead) 26
6.2 Battery Replacement 28
6.2.1 Sensor 28
6.2.1.1 Battery Specifications 28
6.2.1.2 Battery Replacement Procedure 28
i. Appendix A: Data Sheets 30
A. Gateway 30
B. Sensor 30
ii. Appendix B: Compliance Notices 32
A. FCC Compliance Notice 32
B. Industry Canada (IC) Compliance Notice 32
C. CE Compliance Notice 32

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2. General
System Overview
Congratulations on your purchase of a Swift Sensors Wireless Monitoring and Notification System. The
introduction of wireless sensors and the industrial internet of things (IIOT) are revolutionizing measurement
and monitoring applications across many different industries – including foodservices, manufacturing,
laboratory and pharmaceutical, facilities management, and agriculture. Across all these industries, our users
are applying wireless sensors to protect their valuable inventory, equipment and facilities to prevent
catastrophic losses and optimize their business processes. We appreciate your business and look forward to
helping you get up and running successfully with our innovative products and systems.
The Swift Sensors system is made up of four primary components:
1. Wireless Sensors: battery-powered sensors that perform a variety of measurements
2. Gateways: dedicated, Swift Sensors-specific wireless access points that receive measurement values
from Swift Sensors wireless sensors and transmit them to the cloud.
3. Cloud: Servers which handle and negotiate all customer data.
4. Console: the configuration and monitoring software for setting up your sensors, viewing the data, and
sending notifications when specific alarm conditions occur.
Sensors Gateway Cloud Console
This manual provides general instructions for proper installation and operating guidelines of Swift Sensors
gateways and wireless sensors. Additional notes and information are provided for specific sensors as well.
We recommend you read this manually carefully to understand the broad measurement capabilities of the
system and how best to take advantage of the system.
Please read this manual fully before deployment of your Swift Sensors system. This manual and linked
supplemental media should be used to gain understanding in all aspects of Swift Sensors Series 3 sensors and
gateways.

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Use of product outside of recommended environments, ratings, and specifications will result in impairment or
degradation of protection mechanisms. This may ultimately result in a partial or complete failure due to
mishandling.

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3. Intended Use 3.1 Operating Environment
3.1.1 Gateway
3.1.1.1 Deployment Environment
The SG3-1010 (Shown in Figure 3.1) and SG3-1012
gateways are designed for indoor use only in a dry
environment, away from water. Gateways used outdoors
without proper protection may void their guarantee.
While Series 3 gateways currently do not carry an IP-
Rating, Swift Sensors offers IP67-rated NEMA enclosures
as optional accessories for outdoor use and for use in an
indoor wash down environment.
The small NEMA enclosure (Model SG3-NEMA-1010-Kit)
shown in Figure 3.2 can accommodate the gateway SG3-
1010. Larger NEMA enclosures can accommodate the
gateway SG3-1012 with the external RF antenna (Model
SG3-NEMA-1012) or the cellular network module (Model
SG3-NEMA-1012-C1).
Figure 3.1: Model SG3-1010 Series 3 Gateway
Figure 3.2:
Model SG3-NEMA-1010-Kit
3.1.1.2 Operating Temperature and Flammability
According to the gateway’s internal circuitry, the operating environment shall not exceed +50°C or go below -
20°C. The gateway has a flammability rating of UL94-V0.
3.1.2 Sensor
3.1.2.1 Deployment Environment
Series 3 sensors without an IP-rating are suggested to be used indoors, in a dry environment only. Most Series
3 sensors carry an IP-Rating of IP66, making them suitable for use in any environment, including wash down.
Please check the data sheet for your sensor in Appendix A: Data Sheets to confirm its IP-Rating.
3.1.2.2 Probe Environmental Limits
If the sensor has an external probe, the probe may be fully submerged in any non-volatile medium unless
otherwise specified on its datasheet. Please refer to the relevant sensor data sheet in Appendix A: Data Sheets
for additional environmental limits specific to sensor models with probes.

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3.2 Hazards / Failure Conditions
3.2.1 Gateway and Sensor
3.2.1.1 Exposure and Mechanical Damage
Whenever possible, ensure that sensors and gateways are in environments away from their critical temp +
humidity boundaries. Exposure to heat, humidity, and liquid outside the datasheet indicated ranges may cause
a partial or total failure in gateway or sensor operation.
• Persistent exposure to borderline environmental elements may affect certain readings, and potentially
cause faster degradation of the system over time.
o For example, installing Sensor Enclosures in a +60C or -40C environment will affect battery
voltage readings, although it will not have a large impact on battery life.
o Borderline environments also risk occasional exposure outside the specification threshold, which
may truncate the system life. Using a +60C environment again for a Sensor enclosure will risk
exposure to temperatures >60C, risking unexpected behavior and potential damage.
• Physical Damage may also occur resulting in partial or total failure in gateway operation if the equipment
is dropped repeatedly, or from a height higher than 3-meters (~10’). Gateways are at greater risk of
damage from falls.
3.3 Warnings
3.3.1 Gateway
3.3.1.1 Disassembly and Risk of Electrical Shock
Disassembling the gateway should never be necessary. If it is deemed necessary for any reason by Swift
Sensors qualified support resources, ensure complete removal from power before disassembly to avoid risk of
electrical shock.

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4. Mounting and Deployment
4.1 Operating Environment Indications
4.1.1 Gateway
4.1.1.1 Optimal Orientation
For optimal wireless sensor communication, the Series 3 gateway should be mounted in the correct orientation,
with the power and communication ports facing down (as shown in Figures 4.1-4.3 below).
4.1.1.2 Mounting Options
Several mounting options are available for the gateway, depending on environmental factors. Mounting on the
wall or placing in the gateway stand is recommended to prevent movement or damage to the gateway if the
power cord is accidentally pulled or kicked. The power cable provided with any gateway has a thread-locking
mechanism, which provides protection against accidental removal from power.
● The gateway can be mounted indoors to a drywall or a similar material using drywall mounting anchors
that are provided with each gateway. See Figure 4.1.
● An optional gateway stand (model SG3-Stand) is available for placing the gateway indoors on a flat
surface in the correct orientation. See Figure 4.2.
● Optional IP67-rated enclosures (models SG3-NEMA-1010-Kit, SG3-NEMA-1012, or SG3-NEMA-1012-
C1) are available to protect the gateway from water in outdoor or wash down environments. The gateway
is screwed to the interior of the enclosure, and the enclosure is designed to be mounted to a wall using
screws. See Figure 4.3- More information about NEMA IP-Rated Gateway Enclosures (Mounting,
Assembly, and Use) can be found in the Accessories section 6.1.1.2.
Figure 4.1:
Drywall-mounted indoors
Figure 4.2:
Mounted in stand indoors
Figure 4.3:
Mounted in enclosure indoors or
outdoors

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4.1.2 Sensor
4.1.2.1 Optimal Orientation
The Series 3 sensor has optimal wireless sensor communication when mounted in the correct orientation, with
an upright, readable Swift Sensors logo. See Figure 4.4 below:
Figure 4.4
4.1.2.2 General Mounting Options
There are multiple ways to mount Series 3 sensors, please reference Figure 4.5 below for mounting all Series 3
sensor enclosures. Section 4.1.2.4 includes additional mounting guidance for specific sensor models:
- Zip-ties: Sensors may be mounted from a rack in a refrigeration unit from the “zip-tie handle” on top to
the enclosure that ensures the correct sensor orientation. You can also securely mount the sensors
against a pipe or round object using the zip-tie holes on each corner of the sensor. Zip-tie sizes vary
from 6” to 11” in length, with a width up to 0.187” to properly fit in the holes.
- Screws: Sensors may be wall-mounted using #6 x ¾” screws. Recommended screw size is #6 X ¾”.
- Adhesive: Sensors may be wall-mounted with adhesive affixed to the back of the sensor.
Different measurement types will see best results with optimal mounting. For example, a vibration sensor should
always use a rigid mount with adhesive or screws. If mounting with adhesive, ensure the adhesive has the
corresponding strength and resilience for the operating environment.
Figure 4.5
4.1.2.3 Labeling the Sensor
The front of the sensor has a rectangular space provided just below the button icon to place a label or write a
sensor name or ID. Use the same name or ID when configuring the sensor in the Swift Sensors console so the
sensor can be easily identified after it is deployed. Labeling space specified in Figure 4.6 below:
Zip-tie Holes
Screw Holes
Zip-tie Handle

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4.1.2.4 Sensor-Specific Installation Guidance
Below is sensor-specific mounting and installation guidance that discusses unique considerations for each
sensor model. As explained in Section 4.1.2.2, all sensor enclosures share the same basic mounting options,
but guidance is needed for external probes and special features of unique sensor models. All sensor models
below carry an IP-rating of IP66 unless otherwise specified.
SS3-101
The SS3-101 Temperature and Humidity sensor is easily mounted or placed in the desired location to monitor
ambient conditions. Because there is no probe on the SS3-101, excessive temperature or humidity beyond the
Operating Temperature specification listed on the datasheet will degrade performance. While the SS3-101
carries an IP66 rating, please avoid persistent, excessive water exposure to the Humidity filter shown below in
Figure 4.7:
Figure 4.7: S3-101 Filter
SS3-102
The SS3-102 Water Resistant Temperature sensor is easily mounted or placed in the desired location to
monitor ambient conditions. Since there is no probe on the SS3-102, excessive temperature or humidity
beyond the Operating Temperature specification listed on the datasheet will degrade performance. The sensor
is water and dust resistant with an IP 66 rating.
SS3-103
The SS3-103 Ring Lug Temperature sensor is typically used to monitor temperature inside equipment such as
a refrigerator. The temperature sensor is located at the end of the wire inside the ring lug. Mount the sensor
enclosure on the side of the equipment or on a nearby wall with two mounting screws (optimal) and place the
ring lug in the desired location. SS3-103 Leads are discrete enough to allow door gaskets to close on them
without obstruction. The deflection of the gasket on the door will not affect temperature readings or cause a
consequential leak. Ensure that the gasket does not close on the wire splices, shown below in Figures 4.8-4.9.
Ring lug dimensions are shown for mounting assistance in Figure 4.10. Sensor is IP66-rated.
Labeling Space
Figure 4.6

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Figure 4.8: Incorrect Gasket Insertion Figure 4.9: Correct Gasket Insertion
Figure 4.10: Ring Lug Dimensions

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SS3-105
The SS3-105 Remote Temperature sensor is typically used to monitor temperature inside equipment such as a
walk-in cooler, refrigerator, or freezer. The temperature measurement is made from the capsule at the end of
a 1-meter (3.25’) probe. Mount the sensor enclosure on the side of the equipment or on a nearby wall with two
mounting screws (optimal) and place the metal temperature sensing element at the end of the probe in the
desired location. When used on a walk-in refrigeration system, drill a 6.35mm (¼”) hole through the walk-in
exterior, insert the end of the probe through the hole and pull the lead to the desired location inside the
refrigerated environment. The lead is typically “twist tied” or “zip-tied” to a shelf in a place where the tip and
the wire will not be disturbed (Shown in Figure 4.11). Please note the temperature inside a large walk-in may
vary several degrees depending on the vertical placement and proximity to the door. An offset calibration is
available on the configuration panel of the sensor in the Swift Sensors console if needed. 10(~30’) and 15-
meter (~50’) lead lengths are available if extra length is required for the application. Sensor is IP66-rated.
Figure 4.11: SS3-105 Capsule tied to Cooler
Figure 4.12 shows a dimensional drawing of the SS3-105 Probe, Figure 4.13 shows a dimensional drawing of
the SS3-105-10/15 Probe. These drawings may be used for drilling + placement guidance. 6.35mm (1/4”) hole
suggested as SS3-105-10/15 capsule sizes are 6mm.
Figure 4.12 Figure 4.13
SS3-106
The SS3-106 sensor has a 1.5-meter (~5’) lead from the sensor enclosure to a right-angle M12 probe junction
(Junction rated IP68). This M12 Probe Junction creates a thread-locking, IP68 connection between the sensor

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lead and the provided rigid, Stainless Steel Immersion probe which contains the sensing element. These
probes are available in different lengths (100 / 150 / 750 / 1000mm). Probe diameter is 3mm (<1/8”) for probe
lengths < 500mm (1.6’), and is a 6mm (<1/4”) diameter for probe lengths >500mm (1.6’). Immersion probes are
generally placed into the measurement medium and left alone, but mounting may be supported with zip-ties as
needed. It’s best to place any supporting mounts at the right-angle probe junction. Figure 4.14 identifies the
probe junction, sensing element, and sensor enclosure. Sensor is IP66-rated.
Figure 4.14
SS3-108
SS3-108 is a Water Detection sensor that may be used for small spot-leaks and flood detection. There is a
simple 1-meter (3.25’) cable length attached to the sensor enclosure, with Red + Black Leads emerging from
the end of the cable length. The presence of water completes the circuit between the Red + Black Leads.
Therefore, these leads may be mounted in any style, as long as the leads are not actively touching each other.
Figure 4.15 shows the SS3-108 and indicates where these leads are located. Sensor is IP66-rated.
Figure 4.15

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SS3-109
SS3-109 is a Water Detection Rope sensor. A 3-meter (~10’) lead comes attached to the sensor enclosure,
with a 3-meter orange water detection rope which connects to the 3-meter lead with a waterproof connector.
The 3-meter lead allows for more placement options of the actual water detection rope. For water presence to
be detected, the water detection rope must see at least 10% or 0.3 meters (1’+) of saturation. Therefore, the
SS3-109 is most useful for flood detection, or larger leak detection. The rope may be coiled or extended for
specific applications to optimize performance. For example, water leaking from above would benefit most from
a coiled rope placed on the ground. This gives a smaller point of water detection. However, if water is leaking
up through the ground, an extended rope may perform better, as a coiled rope would require a higher water-
level threshold to trigger detection (or will detect water falling onto it). Figure 4.16 shows this sensor with the
crucial parts identified. Twist ties may be used for any necessary suspension of the water detection rope.
Sensor is IP66-rated.
Figure 4.16
SS3-110
Mounting of the SS3-110 Sub-Zero Temperature Sensor is similar to SS3-105, however, SS3-110 has a
30AWG 1-meter (3.25’) lead that may be placed between any gaskets, if necessary, without negative effects
(similar to SS3-103), and is a free-hanging probe. Depending on the specific application, the probe may be left
“free-hanging” inside of the sensing environment or may be anchored with zip-ties against any part of the
sensing environment. Please Reference Figures 4.8, 4.9 under “SS3-103” and Figure 4.11 under “SS3-105” for
photo-guidance. Figure 4.17 below shows the SS3-110 probe dimensions, with guidance for drilling if
placement in a gasket is not possible. Sensor is IP66-rated.
Figure 4.1
SS3-114
The SS3-114 Remote Temperature + Humidity Sensor provides a solution to measure temperature (-40C to
+125C) and Humidity (0-100%) with a high degree of accuracy in harsh environments (reference datasheet for
Accuracies). Attached to the IP66-rated sensor is a 1-meter probe, containing a stainless steel gland at the
end. This gland is where the temperature and humidity measurements are taken. Place the gland in the

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location of the desired measurement, and mount the sensor in a safe environment (-40C to +60C) as advised
in Section 4.1.2.2. Although the gland can withstand +125C, the sensor enclosure is limited to +60C due to the
use of batteries. Stainless steel gland is shown below with dimensions for placement strategy (Figure 4.18).
SS3-116
The SS3-116 High Temp has a 1-meter (3.25’) stainless steel-braided cable for holistic exposure to high-
temperatures, such as BBQ pits, fire pits, and any situation where the cable may also be exposed to extreme
temperature. The probe has a penetrating tip. Common use applications involve penetration with the probe,
ultimately leaving it “free-hanging.” The sensor enclosure itself must be mounted externally, away from heat.
An optional grill mount is included. Figure 4.19 identifies the aforementioned parts; Figure 4.20 is the Grill
Mount. Sensor is IP66-rated.
Figure 4.19 Figure 4.20

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SS3-301
The SS3-301 Door Sensor operates using a remote magnet, which trips the
attached switch capsule to determine the door’s state (open/closed). The
sensor enclosure is mounted on a wall near the door being monitored. Both
switch and magnet capsules have adhesive for easy mounting on the door
frame and door. Sensor is IP66-rated. (Figure 4.21 shows magnet/switch
capsule dimensions)
1. Mount the contact with the wire leads above the door or window on the
frame. For doors, ensure that the mounting is farthest from the hinged side
of the door.
2. Mount the magnet on the door/window so that it will face the contact. Be
sure that the gap between the contact and magnet does not exceed 3/4”
(19mm)
3. Contact and magnet must be installed on the protected side of the door
or window. Spacers are included for difficult or misaligned installations.
Figure 4.21
SS3-202
The SS3-202 Vibration Amplitude sensor performs best with secure, rigid mounting to ensure vibration activity
is accurately conducted to the sensing element. To obtain an optimal measurement of vibration amplitude,
direct screw mounting, or epoxy mounting is strongly recommended. Zip-tie mounting, or any mounting with a
single point of contact will greatly reduce the integrity of the measurement.
1. Direct Screw Mounting: Clean the measurement surface and sensor underside with alcohol to remove
debris. Install two #6 Countersunk/Countersunk Raised screws into the sensor’s Screw Mounting Holes,
directly into the measurement surface. See section 4.1.2.2 for screw hole location if needed.
2. Adhesive Mounting (Epoxy/Loctite): It’s best to use the most rigid epoxy available for best results. Loctite
454 has become a standard for accelerometers, but any rigid-curing epoxy will do well.
SS3-203, SS3-501, SS3-502
Please reference the mounting guidance above for SS3-202 in application for SS3-203, SS3-501, SS3-502. As
accelerometer measurements, they require the same requirements for mounting and performance.

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SS3-605
The SS3-605 4-20mA Current Sensor has a 1-meter (3.25’) cable connected to the sensor enclosure,
terminating with red and black leads. The red lead connects to a terminal block, or any preferred method of
connection to the current loop Positive (+). The black lead connects to a terminal block, or any preferred
method of connection to the current loop Negative (-). Please reference the Transducer/Object of
measurement to ensure Loop Positive (+) and Loop Negative (-) connections are made properly. Below is an
example of using the SS3-605 in a 4-20mA current Loop, with a Loop-Powered Transducer.
SS3-610
The SS3-610 0-500VACrms Voltage Meter has a 0.5-Meter (1.6’) length of cable connected to the sensor
enclosure, terminating with white and black leads. The black lead connects to “Live” (+), and the white/brown
lead connects to the “Neutral” (“N”) wire if monitoring Mains voltage. If monitoring a signal generator, the white
lead connects to “negative” (-).
If wire leads are desired to directly enter a terminal block, the sensor enclosure must be mounted within 0.5-
meters of the terminals. Connect the black and white leads correspondingly inside the receiving terminals to
“Live” (+), and “Neutral” (“N”)
Lever-Nuts are provided with each sensor to create fast and easy wire-to-wire connections. Figure 4.22 shows
a typical Mains monitoring application with the SS3-610, and how the Lever-Nuts are used to connect the
proper wires.

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Figure 4.22
SS3-612
The SS3-612 0-10Vdc Sensor has a 1-meter (3.25’) cable connected to the sensor enclosure, terminating with
red and black leads. The red lead connects to positive (+), and the black lead connects to negative (-) or GND.
The two most typical applications for this sensor are DC Voltage Monitoring and Industrial/Transducer
Monitoring. For DC voltage monitoring, connect the red lead to Vdc+, and the black lead to GND/V-/Vss.
For Industrial/Transducer monitoring, the “0-10V Output signal” connects to the red lead, positive (+). The
black lead connects to GND/Common.
Wire connections, similarly to the SS3-605, will be made directly to provided terminals on an object of
measurement, or can be connected “wire-to-wire” if necessary for the application. Leads may also be soldered
into place for permanent installations if needed.
SS3-611, SS3-613
The SS3-611 0-50VDC Meter and SS3-613 0-30VDC Meter has a 1-meter (3.25’) length cable connected to
the sensor enclosure, terminating with red and black leads. The red lead connects to positive (+), and the black
lead connects to negative (-) or GND.
These sensors may be used for any DC Voltage measurement application such as; Logic Level Monitoring
(3.3/5/12/24VDC), 12/24VDC power system monitoring, and even PoE Monitoring (48VDC - SS3-611 only)
For Industrial/Transducer 0-5/0-10VDC output monitoring, SS3-612 is suggested for better accuracy and
resolution.

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Wire connections, similarly to the SS3-612, will be made directly to provided terminals on an object of
measurement, or can be connected “wire-to-wire” if necessary for the application. Leads may also be soldered
into place for permanent installations if needed.
SS3-617-30/100/200
The SS3-617 family are Sensors with 1-meter cables (2-meters for SS3-617-200) which connect to high-quality
current transformer clamps (“CTs”), which arrive pre-calibrated. The Sensor bodies themselves are IP66 rated,
but please keep CT latches closed whenever possible to delay/prevent corrosion.
The CTs are “split-core” meaning they can be opened and latched around a single wire lead, without needing
to cut or re-install wire leads.
These sensors measure current consumption, and can approximate power consumption as well. Sensor
enclosures shall mount with standard guidance, with more detailed information mentioned below.
There is a complete User Guide + Application Note (AN617), which gives detailed information about the
transformers being used, getting the most accurate measurements, and approximating power consumption. If
using any SS3-617 sensor, please view this User Guide + Application Note here: <Insert Link to AN617>
4.1.2.5 SS3-615: Wireless Universal Analog Sensor Adaptor
Important: Please read the SS3-615 Datasheet before use. For SS3-615 Setup, Configuration, Wiring,
and Use-Case Examples, Please Refer to the SS3-615 Configuration Guide Here: <Insert Link to SS3-
615 Configuration Guide>
4.1.2.5.1: SS3-615 Overview and Capabilities
Mounting and External Connector:
The SS3-615 is mounted using standard mounting guidance from Section 4.1.2.2, Using #6 Screws or Zip-
ties. Since the SS3-615 has an external connector plug (shown inf Figure 4.23) that is removable, stable
mounting is important. SS3-615 should be mounted in an orientation with the external connector facing the
ground, ensuring the Bluetooth antenna is parallel to the gateway antenna. If SS3-615 is mounted with the
antenna 90-degrees (orthogonal) from the gateway, up to 30% of range may be lost. The best range
performance will always occur with the antenna from SS3-615 being parallel to the gateway antenna.
SS3-615 has an 8-position external connector with Pins Numbered 1-8. The Pinout is available on the
datasheet and may be viewed in the Swift Sensors Cloud Console. The external connector may only be
inserted only one way, and proper insertion occurs when the external connector (plug) is flush with the on-

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board receptacle (Figure 4.24). It may also be removed using a thumb and index finger, applying a pulling
force. It may help to add lateral force to the pulling force to “wiggle” the connector out gently. (Figure 4.25)
Note: When the external connector is removed, Hardware Alerts may be triggered on an existing
measurement, due to loss of connection. Similarly, if SS3-615 is set into any mode (Voltage, Current, or
Resistance), there will be a Hardware Alert if no connections are made to the external connector, due to the
absence of connection. In both situations, the sensor will continue transmitting all other data (Battery %, RSSI)
to the Swift Sensors Console, and any Hardware Alert will restore itself once a connection is restored or the
connector is re-inserted.
Figure 4.23 Figure 4.24 Figure 4.25
Making a Connection: Insert wires into the terminal slots and tighten with a flathead screwdriver until
connection is secure and will not be removed accidentally. For all connection Diagrams, reference “SS3-615
Typical Connection Diagrams” available here: <Insert Link to SS3-615 Typical Connection Diagrams>
Powering SS3-615:
SS3-615 Can be Powered Externally by any 5-24Vdc Source, or by its Internal 2xAAA Energizer “Ultimate
Lithium” L92 Batteries. Average Battery life is 6-8yrs in almost all scenarios except those defined in Section
4.1.2.5.2 as power consumption only increases when SS3-615 is using the Digital Out Trigger switch.
Below in Section 4.1.2.5.2 are also Lifetime tables, showing the effects of DOUT usage in “Automatic Mode,”
and what lifetimes to expect when these scenarios occur in Tables 4-1 to 4-3.
SS3-615 Measurements:
SS3-615 Has the capabilities to add wireless data monitoring to nearly any instrument or transducer that has
an analog output of the following types:
• Voltage: Linear 0-10V DC Output
• Current: Linear Current Output up to 20mA
• Resistance: Linear or Logarithmic Resistance up to 3Mohm
Measurement Notes:
1. Only one measurement mode is possible at a time (as stated in the SS3-615 configuration guide) but
may be switched at any time.