Reference Information .............................................................................................................. 29
3
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Precautions
READ this manual BEFORE operating or servicing this equipment.
FOLLOW these instructions carefully.
SAVE this manual for future reference.
DO NOT allow untrained personnel to operate, clean, inspect, service or tamper with
this equipment.
ALWAYS DISCONNECT this equipment from the power source before cleaning or
performing maintenance.
Contact your local Parker Division for parts, information and service.
DISCONNECT ALL POWER TO THIS UNIT BEFORE INSTALLING,
SERVICING, CLEANING OR REMOVING THE FUSE. FAILURE TO DO
SO COULD RESULT IN BODILY HARM AND/OR PROPERTY DAMAGE.
OBSERVE PRECAUTIONS FOR HANDLING ELECTROSTATIC
SENSITIVE DEVICES.
ONLY PERMIT QUALIFIED PERSONNEL TO SERVICE THIS
EQUIPMENT. EXERCISE CARE WHEN MAKING CHECKS, TEST AND
ADJUSTMENTS THAT MUST BE MADE WITH POWER ON. FAILING TO
OBSERVE THESE PRECAUTIONS CAN RESULT IN BODILY HARM.
FOR CONTINUED PROTECTION AGAINST SHOCK HAZARD, CONNECT
TO PROPERLY GROUNDED OUTLET ONLY. DO NOT REMOVE THE
GROUND PRONG.
WARNING
CAUTION
WARNING
WARNING
USE ONLY CLASS 2 LISTED EXTERNAL 24 VDC POWER SUPPLY WITH
THESE DEVICES.
4
CAUTION
Page 5
Précautions
LISEZ ce manual AVANT de faire fonctionner ou d’entretenir cet équipment.
SUIVEZ attentivement ces instructions.
CONSERVEZ ce manuel pour future référence.
NE LAISSEZ PAS du personnel non qualifié utiliser, nettoyer, inspecter, entretenir, réparer ou
manipuler cet équipement.
DÉBRANCHEZ TOUJOURS cet équipement de la source de courant avant de nettoyer ou
d’exécuter l’entretien.
APPELEZ PARKER pour pièces détachées, renseignements et entretien.
DÉBRANCHEZ TOUT COURANT DE CETTE UNITÉ AVANT DE FAIRE
L’INSTALLATION, D’EFFECTUER L’ENTRETIEN, LE NETTOYAGE OU
AVANT DE RETIRER LE FUSIBLE. NE PAS OBSERVER CES
PRÉCAUTIONS RISQUERAIT DE CAUSER DES BLESSURES
CORPORELLES OU/ET D’ENDOMMAGER L’ÉQUIPEMENT.
SOYEZ PRUDENT LORSQUE VOUS MANIPULEZ DES APPAREILS
SENSIBLES À L’ÉLECTROSTATIQUE.
ONLY PERMIT QUALIFIED PERSONNEL TO SERVICE THIS
EQUIPMENT. EXERCISE CARE WHEN MAKING CHECKS, TEST AND
ADJUSTMENTS THAT MUST BE MADE WITH POWER ON. FAILING TO
OBSERVE THESE PRECAUTIONS CAN RESULT IN BODILY HARM.
POUR ASSURER UNE PROTECTION CONTINUE CONTRE UNE
DÉCHARGE ÉLECTRIQUE, BRANCHEZ UNIQUEMENT SUR UNE PRISE
CORRECTEMENT RELIÉE Á LA TERRE. NE RETIREZ PAS LA FICHE DE
TERRE.
ATTENTION
PRUDENCE
ATTENTION
ATTENTION
PRUDENCE
N'UTILISER QUE DE L'ALIMENTATION ÉLECTRIQUE 24 VDC
EXCLUSIVE DE CLASSE 2 AVEC CES DISPOSITIFS.
5
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Introduction
You will find the SciLog® DINCon, DINPres and DINTemp Modules and sensors easy to use. The stateof-the-art hardware and software design of the SciLog
to measure and document the conductivity, pressure or temperature of many filtration / separation
processes. With proper maintenance, the SciLog
service and performance.
Please read the following instructions carefully!
Inspections: Remove the products carefully from the shipping container. Check the contents against
the purchase order to verify that all parts are included and undamaged.
Please do the inspection now, even if the products are not used immediately. Many carriers must
receive damage claims within seven days of delivery. Please retain all packing material so unit may be
shipped safely, if necessary.
Customer Service: Parker Bioscience customer service: If assistance is required, please contact us at:
Serial number and model name of the equipment
Installation procedure being used
Concise list of symptoms
List of operating procedures and conditions in use when problem arose
Calibration
The SciLog® DIN Modules are calibrated devices, and are calibrated with test equipment that is
traceable to SI through NIST.
A Calibration Certificate is included with each unit, and has a one year expiration date.
It is highly recommended that the Module be calibrated on an annual basis or more often if your
Metrology Department deems it necessary.
Parker Bioscience provides this Calibration Service, complete with a new certificate, showing the “as
found” and “as left” data.
Contact your local Parker Bioscience representative.
6
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Warranty
Country specific information can be found at: www.parker.com/termsandconditions
Standards
EN 61326-1:2006, Class B
EN 61010-1:2010 Ed.3+ C1; C2
Conforms to UL STD 61010-1:2012 Ed.3+ R: 29Apr2016
Certified to CSA STD C22.2 No 61010-1-12:2012 Ed.3+U1;U2
Caution: The maximum recommended pressure for the sensors is 60 psi.
If this is exceeded, problems with leakage and functionality can occur.
Installation & Start Up
Installation of the SciLog® DINCon® DINPres®, and DINTemp® Modules must be carried out only by
trained personnel in accordance with the relevant regulations and this operations manual.
Make sure that the technical specifications and input ratings of the SciLog
the appropriate Sensor Specifications page.
The protection provided by this equipment may be impaired if the SciLog
manner inconsistent with this manual or for purposes not specified by the manufacturer.
®
sensors are observed. See
®
sensors are used in a
Maintenance & Cleaning
The SciLog® DIN Modules are maintenance free. The single-use SciLog® sensors come pre-calibrated
from the factory and require no maintenance.
To remove dust, dirt and stains, the outer surfaces of the DIN Modules may be wiped using a soft, nonfluffing cloth moistened with water. If required, you may also use a mild detergent or 2-propanol.
The single-use sensors may be sanitized with 0.1 Molar NaOH, or 2-propanol. They may be autoclaved
up to 2 times, or gamma-irradiated with exposure up to 45 kGy.
8 Pin Sensor Connection, DINCon has 1, DINPres and
DINTemp have 3.
Power Status LED, Sensor Status LED’s
Environmental
8
Software
Modbus
Temperature
Altitude
IP Rating
Rel. Humidity
Voltage
Pollution
Modbus RTU via RS-232
Modbus RTU via RS-485
Modbus RTU via USB
Modbus TCP via Ethernet
4 – 60° C
Up to 2000 Meters
IP20, Indoor dry environments, unit is wipe-down only
0 – 95%
Fluctuation allowed: +/- 10%
Degree: 2
Page 9
Specifications – Sensors
SciCon:
Power
Fluid Connections
Wetted Materials
®
5 VDC provided by DINCon
Choice of five sizes: Luer, 3/8” Barb, 1/2” Barb,
3/4” Tri-Clover (TC) Sanitary and 1” Tri-Clover
(‘Ladish’) Sanitary.
Polysulphone meets USP Class VI and FDA 21
CFR 177.1520, all wetted materials made with
animal-free compounds.
Module
SciPres:
Sensor Type
Conductivity Range
Accuracy
Temperature Range
Temperature Accuracy
Temperature Probe
Pre-Calibration
Sensor Microchip
Sensor Connector & Cables
Power
4-Electrode Conductivity Cell, gold plated pins.
1 μS/cm to 200 mS/cm; Resolution: 0.1 μS/cm.
High: ± 0.25 mS in the 0.1 - 200 mS range;
Low: ± 3 μS in the 0 - 100 μS range
4-50° C
+/- 0.5° C
Thermistor
0.10 M KCI Solution, 12.88 mS at 25.0° C
EPROM, Stores Sensor ID, and
Calibration Factor.
Lockable and Waterproof.
5 VDC provided by DINPres
®
Module
Choice of five sizes: Luer, 3/8” Barb, 1/2” Barb,
Fluid Connections
Wetted Materials
Sensor Type
Sensor Isolation
Pressure Range
3/4” Tri-Clover (TC) Sanitary and 1” Tri-Clover
(‘Ladish’) Sanitary.
Polysulphone meets USP Class VI and FDA 21
CFR 177.1520, all wetted materials made with
animal-free compounds.
Medical grade, silicone piezoresistive sensing
element with on-chip temperature compensation.
Insoluble silicone dielectric gel isolates sensing
element from process solution. The gel is a non-
toxic, non-allergenic elastomeric system.
-5 to 60 psi (-0.34 to 4.14 bar).
9
Page 10
+/- 0.30 psi at -5 to 30 psi for 2 point calibrated
Accuracy
sensors (can be improved to -5 to 60 psi with 3
point calibration, also available)
Sensor Connector & Cables
SciTemp:
Resolution
Temperature Range
Sensor Microchip
Power
Fluid Connections
Wetted Materials
Sensor Type
Temperature Range
0.01 psi
0 to 60 °C (32 to 140 °F).
EPROM, Stores Sensor ID, and
Calibration Factor.
Lockable and Waterproof.
5 VDC provided by DINTemp
®
Module
Choice of five sizes: Luer, 3/8” Barb, 1/2” Barb,
3/4” Tri-Clover (TC) Sanitary and 1” Tri-Clover
(‘Ladish’) Sanitary.
Polysulphone meets USP Class VI and FDA 21
CFR 177.1520, all wetted materials made with
animal-free compounds.
Thermistor, Epoxy coated, 2252 Ω
-40 to +150° Celsius
Accuracy
Resolution
Sensor Microchip
Sensor Connector & Cables
+/- 0.10° Celsius in the 4.0 to 70° Celsius range.
0.01 ° Celsius
EPROM, Stores Sensor ID, and
Calibration Factor.
Lockable and Waterproof.
10
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Installation:
Overview:
The DINCon, DINPres, and DINTemp Modules are designed to be installed as part of a
control system inside a control cabinet that has a 24 VDC source available and has
Modbus communication protocol capability.
The DIN Modules are installed on standard DIN rail. They are usually mounted with the
red locking tab located at the bottom of the unit. This places the Power and
Communication connections at the top of the Module and the Sensor connections at the
bottom.
Wiring Power and Communication:
Connect 24 Volts DC, 250 mA power to Pins 1 (+) and 2 (-) of the 8 pin terminal block.
(Note - pin 1 is at the rear.)
All data acquisition is via Modbus registers in either RTU or ASCII. The available
physical layers are RS-232, RS-485, Ethernet and USB. The recommended physical
layer for installation of multiple units is Modbus/RTU over RS-485 with Modbus/TCP via
Ethernet a close second.
For RS-232, connect to the following: Pin 4 = Signal Ground, Pin 5 = RX, Pin 6 = TX.
For RS-485, connect to the following: Pin 4 = Signal Ground, Pin 7 = B, Pin 8 = A.
For Ethernet connect an Ethernet cable to the provided RJ45 jack.
For USB connect to the provided USB Type A jack.
11
Page 12
A
Pin 1: +24VDC
Pin 2: Common
Pin 3: Not
Pin 4: Signal
Pin 5: RS-232 RX
Pin 6: RS-232 TX
Pin 7: RS-485
Pin 8: RS-485 B
RJ45 Ethernet
USB
Connecting Sensors:
All Sensors, SciCon for use with the DINCon Module, SciPres for use with the DINPres
Module and SciTemp for use with the DINTemp Module are disposable flow through
sensors that are purchased separately from Parker and come Pre-Calibrated.
The Sensors connect to a provided cable that has a watertight connector on the sensor
end and an 8 pin connector on the other end that plugs into a matching port on the
bottom of the Module. The DINCon has only one port, and uses only one SciCon
Sensor. The DINPres and DINTemp have 3 ports, can support up to 3 SciPres or
SciTemp Sensors, and they are referred to as P1 – P3 or T1 – T3 beginning with P1
and T1 at the rear, or the closest connector to the DIN rail.
12
Page 13
DIN Rail locking clip
Sensor 1
Sensor 2
Sensor 3
When powered up and connected the Sensor Status LEDs on the front of the Module
are colored as follows:
Green = Connected
Red = Disconnected
Yellow = Connected but not calibrated.
If the LED shows Yellow, it’s time to replace the affected Sensor with a new one.
Connecting the wrong type of Sensor to the module also results in a Yellow indication.
13
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Operating Instructions:
Modbus Overview:
The Parker DIN modules communicate via the Modbus protocol. All data is transferred
using the Modbus holding registers. The default connection is RS-485 at 115,200 baud,
8 bits, even parity and one stop bit.
Note: If parity setting (register 109) is changed to “none” then two stop bits must be
used.
The default Modbus mode is RTU. The Default Modbus addresses (register 105) for the
various Modules are:
DINCon: 10
DINPres: 20
DINTemp: 30
Four physical layer interfaces are available for DIN Module communications:
RS232 – Modbus/RTU or Modbus/ASCII
RS485 – Modbus/RTU or Modbus/ASCII
Ethernet - Modbus/TCP
USB - Modbus/RTU or Modbus/ASCII
The active Modbus interface is selected by connecting to the modules built-in web
server. Connect using an Ethernet patch cable and a hub on your network, or directly to
the unit with an Ethernet crossover cable. The default IP addresses are 192.168.0.142
for the DINCon, 192.168.0.143 for the DINPres, and 192.168.0.144 for the DINTemp. It
may be necessary to create a new connection, or modify and existing one. Make any
changes required to configuration and click on “Submit” to save them to the module.
14
Any changes made via this interface require a power cycle of the module to take effect.
Page 15
Modbus register definitions are listed below for each type – DINCon, DINPres, and
DINTemp.
For floating point values the DIN modules use the standard IEEE-754 format.
The Modbus address and communication parameters for a module can be changed by
writing to registers 104-109 as a block (at the same time).
The Modules contain a Real Time Clock that will be set to the current date and the end
users time zone prior to shipment from Parker. If re-setting the Real Time Clock is
needed, the data must also be written in one continuous Modbus multi-register write
operation to registers 130-137.
The DINPres Module has a selectable Data Refresh Rate, with the default of 13
milliseconds being raw data. (Register 143) If the default setting is not used, a
conditioned signal is provided.
The Sensors have individual ID numbers and calibration information stored in, and
printed on them. Values relating to the ID numbers can be found in registers 201-206
for Sensor 1, 241-246 for Sensor 2 and 281-286 for Sensor 3. (Note: The first letter of
this ID number, a “C”, “S” or “T”, is not in any of the registers.)
Units and Alarm Limits:
The Modules provide the ability to set the desired Units for the outputs, as well as
appropriate High and Low Alarm Limits. The alarms are absolute and not dependent
upon signal direction. (i.e. The signal does not have to be above the low alarm limit
value first to trip it.) The register list in section C below lists the available units for each
Module. All Alarm Limits default to 0.0 and are thereby initially disabled.
Temperature Units: Default: ⁰C Register 140
T1 Temperature Limits: Low: Registers 160-161
High: Registers 162-163
T2 Temperature Limits: Low: Registers 164-165
High: Registers 166-167
T3 Temperature Limits: Low: Registers 168-169
High: Registers 170-171
Hardware Calibration:
The factory hardware calibration data is available as read only values and is only
performed on new modules with a special test fixture at the time of manufacture.
User Calibration of the Sensors:
If User Custom Calibration of a Sensor is desired, it can be accomplished by adjusting
the Cal Concentration, Cal Temperature or Cal Pressure values, and setting the proper
Start Bit in the appropriate User Cal Status Register.
Custom Calibration of SciPres and SciTemp Sensors is rare, and it is only
recommended on the SciCon Sensors if a much lower Cal Concentration is desired.
(12.88 mS is standard, and functions with satisfactory results.)
Factory Calibration of SciPres Sensors:
The DINPres reads and utilizes calibration data from SciPres Sensors that have been
calibrated to two points, 0 and 30 psi, or three points, 0, 54 and 6 psi depending upon the
type of stock purchased. It has also been equipped a Max Pressure Watchdog feature.
The Max Pressure Watchdog feature records in the sensor’s memory the maximum
pressure seen by the sensor while it is connected to the DINPres. The maximum
recommended pressure for the sensors is 60 psi. If this is exceeded, problems with
leakage and functionality can occur. This value is available in the appropriate register;
see the list in the next section.
Please Note: If the company Metrology Department tests the Sensors using a regulated
air source, care must be taken to avoid hi inrush pressure. Much like inrush current in
electronics, if the valve to the regulator is opened too fast, this can expose the Sensor to
higher pressures than the regulator is set for. This will be reflected in the Max Pressure
value, and may risk damage to the sensor if this is done near the 54 psi calibration point
or above.
existing factory two or three point calibration. This can be reset or cleared if desired.
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Modbus Register List:
DINCon Register List:
ADDRESS ACCESS FORMAT VALUE Default
90-99 R ASCII StringDINCon Serial Number
100 R 16 bit Model Number
101-102 R IEEE Float Software Version
103 R/W 16 bit Reset Control
104-105 R/W 16 bit Modbus Address
106 R/W 16 bit Modbus Mode
107 R/W 16 bit Modbus Baud Rate (115200 default)
108 R/W 16 bit Modbus Serial Word Length ( 7 or 8)
109 R/W 16 bit Modbus Serial Parity (Even, 1 Stop Bit default)
110 R/W 16 bit TCP Address P1
111
0 = DINCon
bit 0 = System Reset
bit 1 = Reset to Defaults
bit 2 = Alarm Reset
131 R/W 16 bit Day of Week (1-7)
132 R/W 16 bit Month
133 R/W 16 bit Day
134 R/W 16 bit Year
135 R/W 16 bit Hour (24)
136 R/W 16 bit Minute
137 R/W 16 bit Second
140 R/W 16 bit Conductivity Units
141-142 R/W IEEE Float
0 = uS
1 = mS
2 = ppm KCl
3 = ppm NaCl
4 = ppm 442
Cal Concentration (default 12.88mS)
(Only change for use with a Custom Calibration)
143 R/W 16 bit Temperature Units
144-145 R/W IEEE Float
0 = C
1 = F
Cal Temperature (default 25.0C)
(Only change for use with a Custom Calibration)
150 R 16 bit Conductivity Status
bit0 = disconnected
bit1 = uncalibrated
bit2 = low alarm
bit3 = high alarm
151-152 R IEEE Float Conductivity Value
153 R 16 bit Temperature Status
bit0 = disconnected
bit1 = uncalibrated
bit2 = low alarm
0
142
255
255
255
0
192
168
0
1
0
12.88
0
25.0
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bit3 = high alarm
154-155 R IEEE Float Temperature Value
160-161 R/W IEEE Float Conductivity Alarm Limit - Low
162-163 R/W IEEE Float Conductivity Alarm Limit - High
164-165 R/W IEEE Float Temperature Alarm Limit - Low
166-167 R/W IEEE Float Temperature Alarm Limit - High
180 R/W IEEE Float Temperature Reference
182 R/W IEEE Float Temperature Coefficient
0.0
0.0
0.0
0.0
25.0
1.90
184 R/W IEEE Float Temperature Offset
186 R/W 16 bit Temperature Comp. Disabled if NZ
0.0
201 R/W 16 bit Sensor ID Type
0 = Luer
1 = 3/8" Barb
2 = 1/2" Barb
3 = 3/4" TC
4 = 1" TC
100 = Cal Fixture
202 R/W 16 bit Sensor ID Material
0 = Polypropylene
1 = Polysulfone
203 R/W 16 bit Sensor ID Month
204 R/W 16 bit Sensor ID Year
205 R/W 16 bit Sensor ID Lot
206 R/W 16 bit Sensor ID Unit Number
208 R/W IEEE Float Sensor Temperature Offset (TO)
210 R/W IEEE Float Sensor Cal Factor (CCF)
220 R/W 16 bit Sensor Custom Cal Status
bit 0 = Invalid
bit 2 = Start Cal
bit 6 = Cal in Progress
bit 7 = Write Cal Data
221 R/W IEEE Float Sensor Custom Temperature Offset (CTO)
223 R/W IEEE Float Sensor Custom Cal Factor (CCF)
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DINPres Register List:
ADDRESS ACCESS FORMAT VALUE DEFAULT
90-99 R ASCII String DINPres Serial Number
100 R 16 bit Model Number
101-102 R IEEE Float Software Version
103 R/W 16 bit Reset Control
104-105 R/W 16 bit Modbus Address
106 R/W 16 bit Modbus Mode
107 R/W 16 bit Modbus Baud Rate (115200 Default)
108 R/W 16 bit Modbus Serial Word Length (7 or 8)
109 R/W 16 bit Modbus Serial Parity (Even, 1 Stop Bit default)
110 R/W 16 bit TCP Address P1
111
112
113
1 = DINPres
bit 0 = System Reset
bit 1 = Reset to Defaults
bit 2 = Alarm Reset
131 R/W 16 bit Day of Week (1-7)
132 R/W 16 bit Month
133 R/W 16 bit Day
134 R/W 16 bit Year
135 R/W 16 bit Hour (24)
136 R/W 16 bit Minute
137 R/W 16 bit Second
140 R/W 16 bit Pressure Units
141-142 R/W IEEE Float
0 = psi
1 = kPa
2 = bar
3 = mmHg
Cal Pressure (Default 30psi)
(Only change for use with a Custom Calibration)
143 R/W 16 bit Data Refresh Rate
0 = 13 milliseconds
1 = 25 ms
2 = 50 ms
3 = 125 ms
4 = 250 ms
5 = 350 ms
6 = 500 ms
7 = 750 ms
8 = 1 second
9 = 1.5 seconds
10 = 2 seconds
11 = 4 seconds
150 R 16 bit P1 Status
bit 0 = Disconnected
bit 1 = Uncalibrated
bit 2 = Low Alarm
255
255
255
0
192
168
0
1
0
30.0
0
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bit 3 = High Alarm
151-152 R IEEE Float P1 Pressure Value
153 R 16 bit P2 Status
bit 0 = Disconnected
bit 1 = Uncalibrated
bit 2 = Low Alarm
bit 3 = High Alarm
154-155 R IEEE Float P2 Pressure Value
156 R 16 bit P3 Status
bit 0 = Disconnected
bit 1 = Uncalibrated
bit 2 = Low Alarm
203 R/W 16 bit P1 Sensor ID Month
204 R/W 16 bit P1 Sensor ID Year
205 R/W 16 bit P1 Sensor ID Lot
206 R/W 16 bit P1 Sensor ID Unit Number
208 R/W IEEE Float P1 Sensor Pressure Offset (PZ)
210 R/W IEEE Float P1 Sensor Cal Factor (CF)
212 R/W IEEE Float P1 Sensor Cal Pressure (CP1)
214 R/W IEEE Float P1 Sensor Cal Factor 2 (CF2)
216 R/W IEEE Float P1 Sensor Cal Pressure 2 (CP2)
220 R/W 16 bit P1 Sensor Custom Cal Status
bit 0 = Invalid
bit 1 = Start Zero
0.0
0.0
0.0
0.0
0.0
0.0
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bit 2 = Start Span
bit 6 = Cal in Progress
bit 7 = Write Cal Data
221 R/W IEEE Float P1 Sensor Custom Pressure Offset (CPZ)
223 R/W IEEE Float P1 Sensor Custom Cal Factor (CCF)
235 R/W IEEE Float P1 Sensor Max Pressure
237 R/W 16 bit P1 Sensor MaxP, Day
238 R/W 16 bit P1 Sensor MaxP, Month
239 R/W 16 bit P1 Sensor MaxP, Year
241 R/W 16 bit P2 Sensor ID Type
0 = Luer
1 = 3/8" Barb
2 = 1/2" Barb
3 = 3/4" TC
4 =1" TC
100 = Cal Fixture
242 R/W 16 bit P2 Sensor ID Material
0 = Polypropylene
1 = Polysulfone
243 R/W 16 bit P2 Sensor ID Month
244 R/W 16 bit P2 Sensor ID Year
245 R/W 16 bit P2 Sensor ID Lot
246 R/W 16 bit P2 Sensor ID Unit Number
248 R/W IEEE Float P2 Sensor Pressure Offset (PZ)
250 R/W IEEE Float P2 Sensor Cal Factor (CF)
252 R/W IEEE Float P2 Sensor Cal Pressure (CP1)
254 R/W IEEE Float P2 Sensor Cal Factor 2 (CF2)
256 R/W IEEE Float P2 Sensor Cal Pressure 2 (CP2)
260 R/W 16 bit P2 Sensor Custom Cal Status
bit 0 = Invalid
bit 1 = Start Zero
bit 2 = Start Span
bit 6 = Cal in Progress
bit 7 = Write Cal Data
261 R/W IEEE Float P2 Sensor Custom Pressure Offset (CPZ)
263 R/W IEEE Float P2 Sensor Custom Cal Factor (CCF)
275 R/W IEEE Float P2 Sensor Max Pressure
277 R/W 16 bit P2 Sensor MaxP, Day
278 R/W 16 bit P2 Sensor MaxP, Month
279 R/W 16 bit P2 Sensor MaxP, Year
281 R/W 16 bit P3 Sensor ID Type
0 = Luer
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1 = 3/8" Barb
2 = 1/2" Barb
3 = 3/4" TC
4 = 1" TC
100 = Cal Fixture
282 R/W 16 bit P3 Sensor ID Material
0 = Polypropylene
1 = Polysulfone
283 R/W 16 bit P3 Sensor ID Month
284 R/W 16 bit P3 Sensor ID Year
285 R/W 16 bit P3 Sensor ID Lot
286 R/W 16 bit P3 Sensor ID Unit Number
288 R/W IEEE Float P3 Sensor Pressure Offset (PZ)
290 R/W IEEE Float P3 Sensor Cal Factor (CF)
292 R/W IEEE Float P3 Sensor Cal Pressure (CP1)
294 R/W IEEE Float P3 Sensor Cal Factor 2 (CF2)
296 R/W IEEE Float P3 Sensor Cal Pressure 2 (CP2)
300 R/W 16 bit P3 Sensor Custom Cal Status
bit 0 = Invalid
bit 1 = Start Zero
bit 2 = Start Span
bit 6 = Cal in Progress
bit 7 = Write Cal Data
301 R/W IEEE Float P3 Sensor Custom Pressure Offset (CPZ)
303 R/W IEEE Float P3 Sensor Custom Cal Factor (CCF)
315 R/W IEEE Float P3 Sensor Max Pressure
317 R/W 16 bit P3 Sensor MaxP, Day
318 R/W 16 bit P3 Sensor MaxP, Month
319 R/W 16 bit P3 Sensor MaxP, Year
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DINTemp Register List:
ADDRESS ACCESS FORMAT VALUE DEFAULT
90-99 R ASCII String DINTemp Serial Number
100 R 16 bit Model Number
101-102 R IEEE Float Software Version
103 R/W 16 bit Reset Control
104-105 R/W 16 bit Modbus Address
106 R/W 16 bit Modbus Mode
107 R/W 16 bit Modbus Baud Rate (115200 Default)
108 R/W 16 bit Modbus Serial Word Length (7 or 8)
109 R/W 16 bit Modbus Serial Parity (Even, 1 Stop Bit default)
110 R/W 16 bit TCP Address P1
111
112
113
2 = DINTemp
bit 0 = System Reset
bit 1 = Reset to Defaults
bit 2 = Alarm Reset
131 R/W 16 bit Day of Week (1-7)
132 R/W 16 bit Month
133 R/W 16 bit Day
134 R/W 16 bit Year
135 R/W 16 bit Hour (24)
136 R/W 16 bit Minute
137 R/W 16 bit Second
140 R/W 16 bit Temperature Units
141-142 R/W IEEE Float
0 = C
1 = F
Cal Temperature (Default 25C)
(Only change for use with a Custom Calibration)
150 R 16 bit T1 Status
bit 0 = Disconnected
bit 1 = Uncalibrated
bit 2 = Low Alarm
bit 3 = High Alarm
bit 6 = Cal in Progress
151-152 R IEEE Float T1 Temperature Value
153 R 16 bit T2 Status
bit 0 = Disconnected
bit 1 = Uncalibrated
bit 2 = Low Alarm
bit 3 = High Alarm
bit 6 = Cal in Progress
154-155 R IEEE Float T2 Temperature Value
156 R 16 bit T3 Status
bit 0 = Disconnected
bit 1 = Uncalibrated
bit 2 = Low Alarm
bit 3 = High Alarm
255
255
255
0
192
168
0
1
0
25.0
26
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bit 6 = Cal in Progress
157-158 R IEEE Float T3 Temperature Value
160-161 R/W IEEE Float T1 Temperature Alarm Limit - Low
162-163 R/W IEEE Float T1 Temperature Alarm Limit - High
164-165 R/W IEEE Float T2 Temperature Alarm Limit - Low
166-167 R/W IEEE Float T2 Temperature Alarm Limit - High
168-169 R/W IEEE Float T3 Temperature Alarm Limit - Low
170-171 R/W IEEE Float T3 Temperature Alarm Limit - High
201 R/W 16 bit T1 Sensor ID Type
0 = Luer
1 = 3/8" Barb
2 = 1/2" Barb
3 = 3/4" TC
4 = 1" TC
100 = Cal Fixture
202 R/W 16 bit T1 Sensor ID Material
0 = Polypropylene
1 = Polysulfone
203 R/W 16 bit T1 Sensor ID Month
204 R/W 16 bit T1 Sensor ID Year
205 R/W 16 bit T1 Sensor ID Lot
206 R/W 16 bit T1 Sensor ID Unit Number
210 R/W IEEE Float T1 Sensor Cal Factor (CF)
220 R/W 16 bit T1 Sensor Custom Cal Status
bit 0 = Invalid
bit 1 = Start Zero
bit 6 = Cal in Progress
bit 7 = Write Cal Data
223 R/W IEEE Float T1 Sensor Custom Cal Factor (CCF)
241 R/W 16 bit T2 Sensor ID Type
0 = Luer
1 = 3/8" Barb
2 = 1/2" Barb
3 = 3/4" TC
4 = 1" TC
100 = Cal Fixture
242 R/W 16 bit T2 Sensor ID Material
0 = Polypropylene
1 = Polysulfone
243 R/W 16 bit T2 Sensor ID Month
244 R/W 16 bit T2 Sensor ID Year
245 R/W 16 bit T2 Sensor ID Lot
0.0
0.0
0.0
0.0
0.0
0.0
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246 R/W 16 bit T2 Sensor ID Unit Number
250 R/W IEEE Float T2 Sensor Cal Factor (CF)
260 R/W 16 bit T2 Sensor Custom Cal Status
bit 0 = Invalid
bit 1 = Start Zero
bit 6 = Cal in Progress
bit 7 = Write Cal Data
263 R/W IEEE Float T2 Sensor Custom Cal Factor(CCF)
281 R/W 16 bit T3 Sensor ID Type
0 = Luer
1 = 3/8" Barb
2 = 1/2" Barb
3 = 3/4" TC
4 = 1" TC
100 = Cal Fixture
282 R/W 16 bit T3 Sensor ID Material
0 = Polypropylene
1 = Polysulfone
283 R/W 16 bit T3 Sensor ID Month
284 R/W 16 bit T3 Sensor ID Year
285 R/W 16 bit T3 Sensor ID Lot
286 R/W 16 bit T3 Sensor ID Number
290 R/W IEEE Float T3 Sensor Cal Factor (CF)
300 R/W 16 bit T3 Sensor Custom Cal Status
bit 0 = Invalid
bit 1 = Start Zero
bit 6 = Cal in Progress
bit 7 = Write Cal Data
303 R/W IEEE Float T3 Sensor Custom Cal Factor (CCF)
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SciCon Disposable Conductivity / Temperature Sensors:
CONNECTOR TYPE Max FLOW RATEMax PRESSURE NOMINAL CELL VOLUME
1” Ladish TC
Luer
3/8" Barb
1/2" Barb
3/4" TC
1 liter/min 60 psi 80 µl
8 liters/min 60 psi 0.5 ml
17 liters/min 60 psi 0.8 ml
31 liters/min 60 psi 1.2 ml
60 liters/min 60 psi 2.3 ml
Specifications for all SciCon™ Conductivity Flow Thru Sensors
Polysulfone (PS) w/Gold Electrodes; Medical Grade meets USP Class VI
Material, Fluid Contact:
Sensor Type:
Conductivity Range:
Accuracy:
Temperature Range:
Temperature Probe:
Temp. Accuracy:
Sensor Microchip:
and FDA 21 CFR 177.1520. All Wetted Materials are made of Animal-Free
Compounds. Most Sanitizing Agents such as NaOH, Hypochlorite. Sensors
can be autoclaved..
4-electrode conductivity cell
Factory calibrated, Ready to use
1 µS/cm to 200 mS/cm
High Range:
Low Range: ± 3 μS in the 0 - 100 μS range.
EPROM, stores Device ID, Cell Constant, Temp Offset & Factory Cal Data
± 0.25 mS in the 0.1 - 200 mS range;
0 - 50 Celsius
Thermistor, Factory Calibrated
+/- 0.5 Celsius
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E
SciPres Disposable Pressure Sensors:
CONNECTOR TYPE Max FLOW RATE * Max PRESSURE NOMINAL CELL VOLUM
Luer
3/8" Barb
1/2" Barb
3/4" TC
1” Ladish TC
*At a 1.0 psi drop across the sensor
Specifications for all SciPres Flow Thru Pressure Sensors
Material, Fluid Contact:
Sensor Type:
Sensor Isolation:
Pressure Sensor Range:
Pressure Sensor Accuracy:
Pressure Sensor Resolution:
Temperature Range:
Pressure Sensor Microchip:
Pressure Sensor Cleaning:
Sensor Connector and Cables: Lockable & Waterproof
The maximum recommended pressure for the sensors is 60 psi. If this is
exceeded, problems with leakage and functionality can occur.
1 liter/min 60 psi 80 µl
8 liters/min 60 psi 0.5 ml
17 liters/min 60 psi 0.8 ml
31 liters/min 60 psi 1.2 ml
60 liters/min 60 psi 2.3 ml
Medical Grade Polysulfone meets USP Class VI and FDA 21CFR177.1520.
All Wetted Materials are made of Animal-Free Compounds. Compatible with
Most Sanitizing Agents such as NaOH, Hypochlorite. Sensors can be
Medical grade silicone piezoresistive sensing element with on-chip
Insoluble silicone dielectric gel isolates sensing element from process
EPROM, stores Device ID, Cell Constant, Temp Offset & Factory Cal Data
Sensors may be flushed with Alcohol, 0.1M or 0.5M NaOH, dilute Bleach, or
Formaldehyde for inline sanitization several times. The Sensors may also
autoclaved.
temperature compensation
solution.
0-60 psi for all sizes.
+/- 0.30 psi 0-60 psi.
0.01 psi.
0 - 60 Celsius
be autoclaved.
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SciTemp Disposable Temperature Sensors:
CONNECTOR TYPE Max FLOW RATE * Max Pressure
Luer
3/8" Barb
1/2" Barb
3/4" TC
1” Ladish TC
*At a 1.0 psi drop across the sensor
Specifications for all SciTemp™ Temperature Sensor Flow Thru Temperature Sensors
Material, Fluid Contact:
Sensor Type:
Temperature Sensor Range:
Temperature Sensor
Accuracy:
Temperature Sensor
Resolution:
Temperature Sensor
Microchip:
Temperature Sensor
Cleaning:
Sensor Connector and Cables: Lockable & Waterproof
NOTE: Parker sensors are designed for disposable, single-use applications. However, with proper care, the
Parker sensors can be re-used repeatedly while maintaining good accurate and precision. If required, SciCon
sensors can be re-calibrated.
CAUTION: Do Not Exceed Maximum Pressure of 60 psi
Test Protocol: Six pre-calibrated (13.04 mS) SciCon Luer conductivity sensors were exposed 3 times to 1.0
molar NaOH for two hours each at 22 ºC (Group1) and at 50 ºC (Group 2). After each 2-hour exposure, the
sensors were flushed 3x with distilled water and inserted into a temperature controlled glove box. A solution was
then circulated through the sensors utilizing a peristaltic recirculation pump. The sensors were conductivity-tested
and temperature-tested at the indicated standard values. The conductivity standard of the solution was tested
using a NIST-traceable (YSI Model 30) conductivity meter. The temperature standard was measured using a
NIST traceable temperature thermometer. The sensor responses were tabulated. The original factory calibration
was maintained during the trials; no additional sensor calibrations were carried out before or during the trials. For
this test, SciCon sensors were randomly selected from Parker inventory.
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SciCon Sensor Autoclave Test Protocol
Parker/SciLog DN 3130: SciCon Conductivity Sensor, Post Autoclaving Sensor
Response.
For accurate performance, SciCon sensors should not be autoclaved more than
two times.
Objective: Test SciCon Sensor Response after Repeated (4) Autoclave Cycles.
Sterilization Conditions: Sterilization Temperature; 257ºF (125ºC), Sterilization Time: 30
min. Pressure: 19psi, Drying Time: 30 min. Conductivity Test Solution: 12.99mS (KCl)
Pre-Autoclave Post Trial 1 Post Trial 2 Post Trial 3 Post Trial 4
NOTE: Parker sensors have been designed for disposable, single-use applications. However, with proper care, the
sensors can be re-used repeatedly while maintaining good accuracy and precision. If required, sensors can be recalibrated.
CAUTION: Do Not Exceed Maximum Pressure of 60 psi
Test Protocol: Prior to autoclaving, factory-calibrated SciCon conductivity sensors (5) were removed from inventory
and tested against a conductivity solution (12.99 mS) in a temperature equilibrated glove box. The "out-of-box"
sensor response data is listed as "Pre-Autoclave" in the table above. The 8-pin sensor connectors were sealed with
autoclavable tape (Cole-Parmer P/N: EG-08277-62) The sensors were place into paper bag (6 1/2"x 4" x12 3/8") and
placed in a Tuttnauer EZ9 Autoclave. The following conditions were maintained throughout the four autoclaving trials:
1.Sterilization Temperature: 257ºF (125 ºC); 2.Sterilization Time: 30 min; 3.Sterilization Pressure: 18 psi, 4.Drying
Time 30 min. After each trial, the SciCon sensors were allowed to cool for one hour inside the temperature controlled
(25.0 ºC) glove box. 12.99 mS test solution was re-circulated through the five, in-line sensors assembly for 30 min
before reading the conductivity values. The SciCon sensor response data (displayed by the SciPres Monitor) is listed
in the table above as "Post-Trial 1", "Post-Trial 2", "Post-Trial 3" and "Post Trial 4." Post-autoclave sensor response
tests were carried out with the original factory calibration. No sensor re-calibration were made before, during or after
the three trials.
Summary: All SciCon sensors survived the four autoclave trials. However, sensor accuracy becomes increasingly
compromised after multiple autoclave cycles. For accurate performance, SciCon sensors should not be
1. SciPres pressure sensors have been designed for disposable, single-use applications. However,
with proper care, SciPres sensors can be re-used repeatedly while maintaining good accuracy and
precision. If required, the SciPres sensor can be re-calibrated.
2. SciPres sensors can be repeatedly sanitized with any of the listed sanitizing solutions. Do not
exceed the recommended number of of sanitization cycles. Sensor accuracy and precision will be
affected adversely by excessive cleaning/sanitization.
3. Recommended number of cleaning / sanitization cycles.
4. Do not exceed recommended sanitization pressure range.
5. 1:100 dilution of Clorox Bleach, 500 ppm of active chlorine.
6. Response variance (% standard deviation) of pre-calibrated (30 psi) sensors over 10 sanitization
cycles
CAUTION: Do Not Exceed Maximum Pressure of 60 psi
Test Protocol: Pre-calibrated (30.00 psi) SciPres pressure sensors were exposed to sanitizing
solution by pumping the solution through the sensor for 30 minutes, followed by a distilled-water flush.
Sensor response recovery was tested after each sanitization cycle by applying 30.00 psi of air pressure
while monitoring the sensor response. Ten, 30-minute sanitization cycles were implemented; 5 hours
of total cumulative exposure.
Sani-
Cycles
Limit
(3)
%SD
10 Cycles
(6)
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SciPres Sensor Autoclave Test Protocols
Parker/SciLog DN 3127: SciPres Pressure Sensor, Post Autoclaving Sensor Response.
Objective: Test SciPres Sensor Response after Repeated (3) Autoclaving Cycles. Autoclaving
* SD = Standard Deviation NR = No and/or Erratic Respone
0.00 29.99 0.01 30.06 0.02 30.04 0.04 30.04
0.00 29.99 0.00 30.06 0.02 30.05 0.04 30.06
0.00 29.99 0.02 30.10 0.03 30.06 0.04 30.07
0.00 29.99 0.01 30.06 0.30 30.24 NR NR
0.00 29.99 0.00 30.05 0.10 30.22 0.05 30.06
0.00 30.00 0.02 30.06 0.79 31.06 NR NR
0.00 29.99 0.01 30.07 0.21 30.28 0.04 30.06
Test Protocol: Prior to autoclaving, factory-calibrated SciPres sensors (6) were removed from inventory and
pressure-tested at 0.00 and 30.00 psi. The "out-of-box" sensor response data are listed as "Pre-Autoclave" in the
table above. The SciPres sensor ambient air-vent as well as the 8-pin sensor connector were covered with
autoclavable tape (Cole-Parmer P/N: EG-08277-62). The sensors were placed into a paper bag (6 1/2"x 4" x12
3/8"), sealed with tape and placed in a Tuttnauer EZ9 Autoclave. The following conditions were maintained
throughout the three autoclaving trials: 1.Sterilization Temperature: 257ºF (125 ºC); 2.Sterilization Time: 30 min;
3.Sterilization Pressure: 19 psi, 4.Drying Time 30 min.
After each trial, the SciPres sensors were allowed to cool to room temperature for one hour, followed by pressure
tests at 0.00 psi and at 30.00psi. The applied pressure (30 psi) was generated with a regulated nitrogen gas
source while monitoring the applied pressure with a NIST-traceable pressure gauge. The SciPres sensor
response data (displayed by the SciPres Monitor) are listed in the table above as "Post-Trial 1", "Post-Trial 2" and
"Post-Trial 3".
Post-autoclave sensor response tests were carried out with the original factory calibration. No sensor recalibrations were made before, during or after the three trials.
Summary: The tested SciPres sensors survived the autoclave conditions. However, sensor accuracy becomes
increasingly compromised after multiple autoclave cycles. For accurate performance, sen sors should not be
autoclaved more than two times.
NOTE: Parker sensors have been designed for disposable, single-use applications. However, with
proper care, the sensors can be re-used while maintaining good accuracy and precision. If required,
sensors can be re-calibrated. CAUTION: Do Not Exceed Maximum Pressure of 60 psi
0.00 0.02 0.39
0.01
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SciTemp™ Temperature Sensor Sanitization Test Protocols
SciTemp Sanitization Protocol
SanitizingConc.Temp.pHPressureContactSani-Cycles
Agent
(2)
0.10 N20-30130 - 1015-3010
0.50 N20-30130 - 1015-3010
500 ppm20-307 - 80 - 1015-3010
1 - 2%20-305 - 80 - 103010
70%20-300 - 10 15-3010
Notes:
(1)
(2)
NaOH
NaOH
NaOCl
Formaldehyde
Isopropyl
SciTemp sensor sanitization should be performed after flow cell has been thoroughly cleaned and flushed
with distilled water.
SciTemp sensors can be repeatedly sanitized with any of the listed sanitizing solutions.
Do not exceed the recommended number of sanitization cycles. Sensor accuracy and precision will be
affected by excessive cleaning / sanitization.
(5)
Solution
Alcocol
(1)
:
º C
psi
(4)
Time, Min
Limit
(3)
Recommended, Maximum Number of Cleaning / Sanitization cycles.
(3)
Do Not Exceed Recommended Sanitizating Pressure Range
(4)
1:100 dilution of Clorox Bleach, 500 ppm of Active Chlorine
(5)
Test Protocol:
pumping the solution through the sensor for 30 minutes, followed by a distilled-water flush. Sensor response recovery
was tested after each sanitization cycle.
Pre-calibrated SciTemp flow-through Temperature sensors were exposed to sanitizing solution by
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SciTemp Sensor Autoclave Test Protocols
Parker/SciLog DN 3131: SciTemp Temperature Sensor, Post Autoclaving Sensor Response
Objective: Test SciTemp Sensor Response after Repeated (3) Autoclaving Cycles. Autoclaving
* SD = Standard Deviation NR = No and/or Erratic Response
Test Protocol: Prior to autoclaving, factory-calibrated SciTemp sensors (5) were removed from inventory and
temperature-tested at 25.00 ºC in a temperature equilibrated glove box. The "out-of-box" sensor response data is
listed as "Pre-Autoclave" in the table above. The SciTemp sensor air-vent as well as the 8-pin sensor connector
were sealed with autoclavable tape (Cole-Parmer P/N: EG-08277-62). The sensors were placed into a paper bag
(6 1/2"x 4" x12 3/8"), sealed with tape and placed in a Tuttnauer EZ9 Autoclave. The following conditions were
maintained throughout the three autoclaving trials: 1.Sterilization Temperature: 257ºF (125 ºC); 2.Sterilization
Time: 30 min; 3.Sterilization Pressure: 18 psi, 4.Drying Time 30 min.
After each trial, the SciTemp sensors were placed in a temperature equilibrated glove box for 45 minutes. Utilizing
a peristaltic pump, a temperature equilibrated solution (0.100 molar KCl, 25 ºC) was re-circulated through the inline SciTemp sensor assembly. An in-line NIST-traceable thermistor was used as a temperature reference.
Four of the five SciTemp sensors survived the three autoclaving trials while maintaining good sensor accuracy
and precision during the initial autoclave cycles. All trial measurements were carried out with the original factory
calibration. No sensor re-calibration were made before, during or after the three post-autoclave trials.
Summary: Sensor accuracy becomes increasingly compromised after the multiple autoclave cycles. For
accurate performance, sensors should not be autoclaved more than two times.
NOTE: Parker sensors have been designed for disposable, single-use applications. However, with
proper care, the sensors can be re-used while maintaining good accuracy and precision. If required,
sensors can be re-calibrated. CAUTION: Do Not Exceed Maximum Pressure of 60 psi.
Sensor ID T1 T2 ∆T T1 T2 ∆T T1 T2 ∆T T1 T2 ∆T
Group SD*
Pre-Autoclave Post Trial 1 Post Trial 2 Post Trial 3