APLISENS APR-2000YALW Smart Differential Pressure Transmitter User Manual
- June 15, 2024
- APLISENS
Table of Contents
- INTRODUCTION
- SAFETY
- COMPLETE DELIVERY CHECKLIST
- IDENTIFICATION MARKS
- TRANSMITTER DESIGN
- ELECTROSTATIC HAZARDS
- SPECIAL CONDITIONS OF USE
- TRANSMITTER PROTECTION LEVEL (EPL) AND HAZARDOUS AREAS
- INTRINSICALLY-SAFE Exi TRANSMITTERS ACCORDING TO CERTIFICATES KDB 19 ATEX
- INTRINSICALLY-SAFE Exi TRANSMITTERS ACCORDING TO CERTIFICATES FTZU 08
- PERMISSIBLE PARAMETERS OF Exi TRANSMITTERS
- CONNECTING Exi TRANSMITTERS AND PROBES
- FLAMEPROOF Exd TRANSMITTERS ACCORDING TO CERTIFICATES KDB 19 ATEX 0011X,
- PERMISSIBLE PARAMETERS OF Exd TRANSMITTERS
- ADDITIONAL INFORMATION
- References
- Read User Manual Online (PDF format)
- Download This Manual (PDF format)
**APLISENS APR-2000YALW Smart Differential Pressure Transmitter User Manual
**
Symbols used
Symbol | Description |
---|---|
Warning about the necessity follow strictly the information provided in the |
documentation in order to ensure safety and full functionality of the device.
| Information particularly useful for device installation and operation.
| Information particularly useful for Ex device installation and operation.
| Waste of electrical and electronic equipment disposal information.
BASIC REQUIREMENTS AND OPERATION SAFETY
- The manufacturer shall not be liable for any damage resulting from incorrect installation, failure to maintain the device in proper condition, or device use other than intended.
- Installation should be carried out by qualified staff having the required authorization to install electrical and I&C equipment. The fitter is responsible for performing the installation in accordance with this manual and with the electromagnetic compatibility and safety regulations and standards applicable to the type of installation.
- If leakage in systems with I&C equipment occurs, pressurized medium poses a threat to the personnel. All safety and protection requirements must be observed during transmitter installation, operation and inspections.
- If a malfunction occurs, the device should be removed and sent for repair to the manufacturer or a facility authorized by the manufacturer.
In order to minimize the risk of malfunction and associated risks to staff, do not install or use the device in particularly adverse conditions, where the following hazards occur:
- Possible mechanical impacts, excessive shocks and vibration;
- Excessive temperature fluctuation;
- Water condensation, dust, icing.
Explosion-proof installations should be made with special care and in accordance with standards and regulations applicable to this type of installations.
Changes can be made in the manufacturing before the paper version of user documentation is updated. Up-to-date user manuals are available on the manufacturer’s website: www.aplisens.com.
INTRODUCTION
This manual is only applicable to the APC-2000ALW, APC-2000ALW Safety,
APR–2000ALW, APR–2000ALW Safety, APR–2000ALW with diaphragm seals,
APR2000ALW/G and APR–2000YALW series transmitters in Ex (explosion-proof), Exi
(intrinsically safe), Exd (flameproof), and both Exi and Exd variants. The
transmitters are identified with model ID on nameplates and also as specified
in section 4. Ex information are included in the “Product Certificate”. Model
ID indicates type and version of transmitter.
The manual contains most important information on intrinsically safe and
flameproof transmitters compliant with ATEX directive and IECEx requirements.
If explosion-proof transmitters are installed, refer to this manual and also:
- EN.IO.APC.APR.ALW.SFT manual for APC-2000ALW Safety, APR-2000ALW Safety series transmitters,
- EN.IO.APC.APR.ALW manual for APC-2000ALW, APR-2000ALW, APR-2000ALW/G and APR-2000YALW series transmitters
SAFETY
- Read this manual carefully before installing, commissioning and operating the transmitter.
- Installation and maintenance should be carried out by qualified staff having the required authorization to install electrical and measuring devices.
- The transmitter should used as intended within permissible parameters.
- Power source must be disconnected before installing or removing the transmitter.
- No repairs or alterations to the transducer electronic system are permitted. Only the manufacturer or a facility authorized by the manufacturer may assess damages and repair the device (if possible).
- Do not use damaged instruments. In case of failure, the device must be disconnected.
- If the equipment is used in Ex zones, the technical requirements specified in this manual and applicable local (national) regulations must be followed.
COMPLETE DELIVERY CHECKLIST
The user receives the following with the transmitter:
a) Product Certificate, which also constitutes a warranty card.
b) Declaration of Conformity.
c) Certificate copy (on request).
d) EN.IX.APC.APR.ALW explosion-proof device manual.
e) EN.IO.APC.APR.ALW.SFT user manual or EN.IO.APC.APR.ALW user manual.
Items b), c), d), e) are available at
www.aplisens.com.
IDENTIFICATION MARKS
Ex transmitters are delivered with a nameplate which contains data
specified EN.IO.APC.APR.ALW.SFT or EN.IO.APC.APR.ALW and also the following:
a) Designation of explosion-proof design type, certificate number.
b) Parameter values, e.g. Ui, Ii, Ci, Li for Exi transmitters.
c) Year of manufacture.
d) “SA Version” inscription — isolated power supply for intrinsically
safe transmitters with over voltage protection in which ground isolated power
supply should be used.
Figure 1. Sample transmitter nameplate with common Exi and Exd designation
TRANSMITTER DESIGN
The basic transmitter components are: an enclosure made of 316 (1.4401) stainless steel or aluminum, measuring head where a pressure signal is converted to an electrical signal, and an electronic module converting the signal from the head to an output signal. Transmitters in aluminum enclosures are allowed for II and III group, and transmitters in steel enclosures are allowed for I, II and III group.
ELECTROSTATIC HAZARDS
The paint, plastic nameplate and diaphragm seals coated with PTFE form a non- conducting layer applied on a conducting base of enclosure or diaphragm seals. Transmitters with this design in a dust-explosion zone should be installed in a place where electrostatic charging is impossible, in particular by contact with electrically charged dust falling off or blown from neighboring devices.
SPECIAL CONDITIONS OF USE
Special conditions according to certificates: KDB 19 ATEX 0011X, IECEx
KDB 19.0003X and ExVeritas 22UKEX1415X.
a) The maximum temperature of the external heating source cannot heat the
transmitter above the maximum declared ambient temperature.
b) The flameproof joints are not intended to be repaired.
c) In hazardous zones of dust explosion, transmitters with painted
enclosures, as well as transmitters equipped with plastic marking plates and
diaphragm separator elements covered PTFE layer, should be installed in places
and in a way that prevents electrostatic charging, in accordance with the
instructions.
d) In hazardous zones of explosion, diaphragm separators covered PTFE
layer, should be installed in places and in a way prevents electrostatic
charging.
e) The diaphragm separator containing titanium elements must be protected
againts mechanical impacts.
f) An intrinsically safe transmitter version with surge arrester, marked
on the nameplate as “SA” does not meet the requirements of clause 10.3 of EN
60079-11 (500Vrms). The device should be installed in accordance with the
instructions.
g) In the case of use a transmitter with a nameplate containing various
types of explosionproof execution, the type of protection must be permanently
marked on the nameplate before installation, accordance to the instructions.
h) In the device version including the flameproof enclosure, the
diaphragm should not be subject on damage during installation and exploitation
of the transmitter. The transmitter diaphragm is made of stainless steel,
Hastelloy alloy or tantalum and must be exposed to medium that could cause its
damage.
Special conditions according to certificates: FTZÚ 08 ATEX 0020X and
IECEx FTZÚ 14.0026X
a) Versions of transmitter with surge arrester marked on plate “SA”, do
not meet the requirements of Section 10.3 of the standard EN 60079-11:2012
(500 Vrms). This must be taken into account when installing the equipment.
b) Under certain extreme circumstances in dust explosive atmospheres, the
device with painting of aluminum enclosure and with plastic tables and with
elements of diaphragm seals covered by PTFE may store an ignition-capable
level of electrostatic charge. The device shall not be installed in a location
where the external conditions are conducive to the buildup of electrostatic
charge.
c) If the diaphragm seal contains titan parts, it must be protected
against mechanical drops.
d) Galvanically separated part of apparatus placed into measuring head is
electrically connected with mass of enclosure. It should be taken into account
when installing the apparatus with remote measuring head on cable.
TRANSMITTER PROTECTION LEVEL (EPL) AND HAZARDOUS AREAS
Ga/Gb (Da/Db) EPL protection level means that the transmitter can be installed in Zone 1 (21) or 2 (22), and transmitter process connectors can connect to Zone 0 (20). Gb (Db) EPL protection level means that the transmitter and process connector can be installed in Zone 1 (21) or 2 (22). Da EPL protection level means that the transmitter and process connector can be installed in Zone 20 or 21. Transmitters for mining applications Mb should be turned off if explosion hazard occurs.
Figure 2. Transmitter installation in potentially explosive areas.
INTRINSICALLY-SAFE Exi TRANSMITTERS ACCORDING TO CERTIFICATES KDB 19 ATEX
0011X AND IECEX KDB 19.0003X
Approvals
The transmitters are ATEX, IECEX and UKEX approved confirmed by type examination certificates.
Standards used for assessment
The transmitters are manufactured in compliance with the following
standards:
EN 60079-0:2018 (IEC 60079-0:2017 ed. 7.0) EN 60079-11:2012 (IEC 60079-11:2011
ed. 6.0).
Transmitter explosion-proofing designations according to certificates
KDB 19 ATEX 0011X, IECEx KDB 19.0003X and ExVeritas 22UKEX1415X
The following ATEX and IECEx markings apply only to intrinsically safe transmitters marked with the type:
ATEX:
- II 1/2G Ex ia IIC T4/T5 Ga/Gb
- II 1D Ex ia IIIC T105ºC Da
- I M1 Ex ia I Ma (for the version with 1.4401 (316) steel enclosure)
- KDB 19 ATEX 0011X
IECEx:
- Ex ia IIC T4/T5 Ga/Gb
- Ex ia IIIC T105ºC Da
- Ex ia I Ma (for the version with 1.4401 (316) steel enclosure)
- IECEx KDB 19.0003X
UKEX:
- II 1/2G Ex ia IIC T5/T4 Ga/Gb
- II 1D Ex ia IIIC T105ºC Da
- I M1 Ex ia I Ma (for the version with 1.4401 (316) steel enclosure)
- ExVeritas 22 UKEX 1415X
As standard, the transmitters are manufactured for explosive gas atmospheres.
A customer can also order a transmitter for explosive dust atmospheres and for
mining applications.
Transmitters with common Exi and Exd designation, as presented in Figure 1,
become intrinsically safe transmitters when Exi field is permanently marked.
Minimum supply voltage
Table 1. Minimum supply voltage of an Exi transmitter according with certificates KDB 19 ATEX 0011X, IECEx KDB 19.0003X and ExVeritas 22UKEX1415X.
Minimum supply voltage for transmitters with backlight off| Minimum supply
voltage for transmitters with backlight on )
---|---
11.5 V| 14.5 V
) Back light can only be turned on at transmitter manufacturing stage.
Load resistance
a) For a linear power supply from a barrier
b) For power supply from a trapezoidal or orthogonal source.
Rw – barrier resistance;
Uapp – minimum voltage of the barrier used
INTRINSICALLY-SAFE Exi TRANSMITTERS ACCORDING TO CERTIFICATES FTZU 08
ATEX 0020X AND IECEX FTZU 14.0026X
Standards used for assessment
The transmitters are manufactured in compliance with the following
standards:
EN 60079-0:2018 (IEC 60079-0:2017 ed. 7.0)
EN 60079-11:2012 (IEC 60079-11:2011 ed. 6.0).
Transmitter explosion-proofing designations according to certificates
FTZU 08 ATEX 0020X and IECEx FTZU 14.0026X
The following ATEX and IECEx markings apply only to intrinsically safe transmitters marked with the type:
ATEX:
-
II 1/2G Ex ia IIC T4/T5 Ga/Gb
-
II 1/2G Ex ia IIB T4/T5 Ga/Gb (version with PTFE-shielded cable or with PTFE covered separator)
II 1D Ex ia IIIC T115ºC Da -
I M1 Ex ia I Ma (for the version with 1.4401 (316) steel enclosure)
-
FTZU 08 ATEX 0020X
IECEx:
- Ex ia IIC T4/T5 Ga/Gb
- Ex ia IIB T4/T5 Ga/Gb (version with PTFE-shielded cable or with PTFE covered separator)
- Ex ia IIIC T115ºC Da
- Ex ia I Ma (for the version with 1.4401 (316) steel enclosure)
- IECEx FTZU 14.0026X
As standard, the transmitters are manufactured for explosive gas atmospheres.
A customer can also order a transmitter for explosive dust atmospheres and for
mining applications.
Minimum supply voltage
Table 2. Minimum supply voltage of an Exi transmitter according with certificates FTZU 08 ATEX 0020X and IECEx KDB 14.0026X.
Minimum supply voltage
10.5 V
Load resistance
a) For a linear power supply from a barrier
b) For power supply from a trapezoidal or orthogonal source.
Rw – barrier resistance;
Uapp – minimum voltage of the barrier used
PERMISSIBLE PARAMETERS OF Exi TRANSMITTERS
Table 3. Permissible input parameters of an Exi transmitter
Linear power supply| Orthogonal power supply| Trapezoidal power
supply
---|---|---
Ui = 30 V| Ui = 24 V| Ui = 24 V| Ui = 24 V, UQ=48 V
Ii = 0.1 A| Ii = 0.025 A| Ii = 0.05 A| Ii = 0.05 A
Pi = 0.75 W| Pi = 0.6 W| Pi = 1.2 W| Pi = 0.7 W
Ci = 2.5 nF| Ci = 2.5 nF| Ci = 2.5 nF| Ci = 2.5 nF
Li = 18 µH| Li = 18 µH| Li = 18 µH| Li = 18 µH
-40⁰C≤Ta≤+80⁰C (T5)| -40⁰C≤Ta≤+80⁰C (T5)| -40⁰C≤Ta≤+80⁰C (T4) –| -40⁰C≤Ta≤+80⁰C (T5)
Supply power to transmitters from supply and measurement devices with applicable intrinsic safety certificates whose parameters of outputs to a hazard zone should not exceed the permissible transmitter power supply parameters specified above.
Linear power supply example
For example, linear power supply is provided by a typical barrier with the
following parameters
Uo = 28V; Io = 0.1A; Po = 0.7W; Rw = 280.
Figure 3. Principle of power supply from a linear source.
Trapezoidal power supply example
Uo = 24V; Io = 50mA; Po = 0.7W
An example of trapezoidal power supply is shown in Figure 4
Figure 4. Principle of power supply from a trapezoidal source.
If Uo > UQ 2 UQ, I0, P0 have the following relations: Po =UQ ∗ Io4
If Uo ≤ 1/2UQ , UQ, I0, P0 have the following relations: Po =Uo(UQ−Uo)Rw
Resistance Rw: Rw =UQIo
Orthogonal power supply example
Uo = 24 V Io = 25 mA Po = 0.6 W
Uo = 24 V Io = 50 mA Po = 1.2 W
Orthogonal power supply means that the voltage of an intrinsically safe power
adapter does not change until the current limiter is activated.
The level of protection of orthogonal power supply adapters is usually “ib”. A
transmitter supplied from such power adapter is usually an “ib” intrinsically
safe device.
An example of power supply in practice:A stabilized power adapter with Uo = 24
V, “ib” protection level and current limited to Io = 25 mA.
CONNECTING Exi TRANSMITTERS AND PROBES
Transmitter and equipment in the transmitter measurement loop must be connected in compliance with intrinsic safety and explosion proofing standards and conditions for application in risk zones. If intrinsic safety rules are not followed, explosion can occur and people can be exposed to danger.
Figure 5. Connecting Exi transmitters and probes
Milliammeter connection to TEST+ and TEXT- terminals enables to measure transmitter current without breaking the measuring circuit.
In explosion risk zones, control terminals can only be connected using instruments allowed for use in these zones.
The communicator must be permitted for use in the explosion risk zone, e.g. Aplisens KAP-03Ex. If no such permission is available, the transmitter should be configured and calibrated in the safe zone and the communicator must not be connected to a line coming into a explosion risk zone.
The transmitter is equipped with an additional communication resistor RD=240Ω. and terminals are short circuited in factory. RD resistor is used when the transmitter need to be communicated with locally (from its terminals) and a Ro < 240 Ω. and terminals must be open-circuited then.
If the medium temperature can exceed Ta=80°C, separating elements, such as diaphragm separators, siphon tubes, etc., should be used. The transmitter operating temperature Tp must meet the Tp≤Ta condition.
The electrical system for connecting transmitters should meet installation requirements of applicable standards.
For APC-2000ALW / L, APR-2000ALW / L and APR-2200ALW / L transmitters, equalization of the electric potential between the transmitter housing and the measuring head remote from the transmitter should be ensured.
No repairs or alterations to the transmitter electrical system are permitted.
Only the manufacturer or a facility authorized by the manufacturer may assess
damages and repair the device (if possible).
“Version SA” transmitters should be supplied from devices equipped with
galvanically isolated power supply. If galvanically isolated power supply is
not possible, the transmitter or metal parts connected to it should be
properly grounded, for instance with an equipotential wiring or an
equipotential bonding between the transmitter and the negative pole of power
supply barrier.
A transmitter enclosure has two holes for installing a cable entry and blinding plug with M20x1.5 or 1/2 NPT thread. Transmitters with common Exi and Exd designation, as presented in Figure 1, become intrinsically safe transmitters when Exi field is permanently marked. If such transmitter is delivered without a cable gland, the customer is obliged to install a cable gland with at least IP66 protection and operation temperature range suitable for the installation site. In transmitters used in dust explosion zones, the cable glands installed by the customer should be certified and have a designation proper to dust zones where the transmitters are used.
FLAMEPROOF Exd TRANSMITTERS ACCORDING TO CERTIFICATES KDB 19 ATEX 0011X,
IECEX KDB 19.0003X and ExVeritas 22UKEX1415X
Approvals
The transmitters are ATEX, IECEX and UKEX approved confirmed by type examination certificates.
Standards used for assessment
The transmitters are manufactured in compliance with the following
standards:
EN 60079-0:2018 (IEC 60079-0:2017 ed. 7.0)
EN 60079-11:2012 (IEC 60079-11:2011 ed. 6.0)
EN 60079-1:2014 (IEC 60079-1:2014 ed. 7.0)
EN 60079-31:2014 (IEC 60079-31:2013 ed. 2.0)
EN 60079-26:2015 (IEC 60079-26:2014 ed. 3.0)
Transmitters explosion-proofing designations according to certificates KDB
19 ATEX 0011X, IECEx KDB 19.0003X and ExVeritas 22UKEX1415X.
The following ATEX and IECEx markings apply only to flameproof safe
transmitters marked with the type:
ATEX:
- II 1/2G Ex ia/db IIC T6/T5 Ga/Gb
- II 1/2D Ex ia/tb IIIC T105ºC Da/Db
- I M2 Ex db ia I Mb (for the version with 1.4401 (316) steel enclosure)
- KDB 19 ATEX 0011X
- II 2G Ex ia/db IIC T6/T5 Gb
- II 2D Ex ia/tb IIIC T105ºC Db
- I M2 Ex db ia I Mb (for the version with 1.4401 (316) steel enclosure)
- KDB 19 ATEX 0011X
IECEx:
- Ex ia/db IIC T6/T5 Ga/Gb
- Ex ia/tb IIIC T105ºC Da/Db
- Ex db ia I Mb (for the version with 1.4401 (316) steel enclosure)
- IECEx KDB 19.0003X
- Ex ia/db IIC T6/T5 Gb
- Ex ia/tb IIIC T105ºC Db
- Ex db ia I Mb (for the version with 1.4401 (316) steel enclosure)
- IECEx KDB 19.0003X
UKEX:
- II 1/2G Ex ia/db IIC T6/T5 Ga/Gb
- II 1/2D Ex ia/tb IIIC T105ºC Da/Db
- I M2 Ex db ia I Mb (for the version with 1.4401 (316) steel enclosure)
- ExVeritas 22 UKEX 1415X
- II 2G Ex ia/db IIC T6/T5 Gb
- II 2D Ex ia/tb IIIC T105ºC Db
- I M2 Ex db ia I Mb (for the version with 1.4401 (316) steel enclosure)
- ExVeritas 22 UKEX 1415X
Transmitters with common Exi and Exd designation, as presented in Figure 1, become flameproof transmitters when Exd field is permanently marked.
PERMISSIBLE PARAMETERS OF Exd TRANSMITTERS
Ambient temperature range and temperature classes
Table 4. Ambient temperature range and temperature classes for Exd transmitters
Operating temperature range| Temperature class and maximum surface
temperature
---|---
Ambient temperature| Process temperature
-40ºC ≤ Ta ≤ 40ºC| -40ºC ÷ 40ºC| T6/T105ºC
-40ºC ≤ Ta ≤ 75ºC| 40ºC ÷ 75ºC| T5/T105ºC
If the medium temperature can exceed Tamax, separating elements, such as diaphragm separators, siphon tubes, etc., should be used. The transmitter operating temperature Tp must meet the Tp≤Tamax condition.
Power supply, connection and operation of Exd transmitters
Connect the transmitter according to the wiring diagram (Figure 6). The
transmitter electrical connections in potentially explosive zones should be
made by personnel having necessary knowledge and experience in this respect.
The transmitters should be properly grounded by means of a grounding terminal.
If the transmitter has metal contact with grounding structural elements or
piping, separate transmitter grounding is not necessary.
Transmitter and equipment in the transmitter measurement loop must be
connected in compliance with explosion proofing standards and conditions for
application in explosion risk zones. If these rules are not followed,
explosion can occur and people can be exposed to danger.
Figure 6. Connecting Exd transmitters and probes
The transmitters should be supplied with maximum voltage specified in the table below (24 VDC rating) from transformer power supplies or other devices providing at least enhanced isolation between primary and secondary winding in which voltages not larger than 250 VAC occur. It is responsibility of the user to provide power supply compliant with the requirements above.
Table 5. Maximum supply voltage for Exd transmitters
Maximum supply voltage
APC-2000ALW Safety, APR-2000ALW Safety| APC-2000ALW, APR-2000ALW, APR-
2000ALW/G, APR-2000YALW
36 VDC| 55 VDC
In an explosion risk zone, do not remove the cover of supplied transmitter and do not connect to the terminals, and do not change the position of local indicator (display).
For transmitter calibration or check outside a risk zone, a communicating device can be connected to and terminals. The transmitter is equipped with a communication resistor RD = 240 Ω, which is short-circuited at and terminals in factory. RD resistor is used when the transmitter need to be communicated with locally (from its terminals) and a Ro < 240 Ω. and terminals must be open-circuited then.
In order to secure the side covers against loosening, unscrew the hex socket screws pressing the screw heads against the edges of the covers. The method of locking the covers against unscrewing and the possible method of sealing the transmitter are presented in the PL.IO.APC.APR.ALW.SFT user manual.
No repairs or alterations to the transmitter enclosure elements and electrical system are permitted. Repairs on flameproof joints are not permitted. Only the manufacturer or a facility authorized by the manufacturer may assess damages and repair the device (if possible).
Due to the type of enclosure material (light alloy with high aluminum content), the user is obliged to ensure that in the transmitter installation site its enclosure cannot be hit and, consequently, damaged.
In a transmitter enclosure there are two holes for installing, one for a cable
entry an second for a blinding plug with M20x1.5 or 1/2 NPT thread. As
standard, the transmitter is delivered to the customer without cable gland
installed. After consultation with the manufacturer, the user can purchase a
transmitter with a cable gland, or without a cable gland and the missing cable
gland purchase separately. A transport plug is installed in the cable gland
place. In such case, the transport plug should be removed and appropriate
cable gland installed ( Figure 7) before the transmitter is installed. It is
responsibility of the user to install a certified cable gland compliant with
the list of equivalent cable glands in “Table 6. List of equivalent cable
entries”. As a blinding plug, an Aplisens plug supplied with the transmitter
or a certified blinding plug compliant with the list of equivalent blinding
plugs in Table 7 can be used. It is allowed to install other types of
certified cable entries and blinding plugs about marking Exd IIC Gb, Extb IIIC
Db and Exd I Mb with at least IP66 protection and -40°C…75°C temperature
range.
Apply LOCTITE 577 or SWAK MS-PTS-50 on the 1/2 NPT thread of cable gland
before installation. When connecting, make sure that the cable type and
diameter is suitable for the cable gland used and temperature in the
installation site.
Figure 7. Installation of cable entries and blinding plugs
Table 6. List of equivalent cable entries
Cable entry type| Manufacturer| Thread| Designation|
IP| Certificate no
---|---|---|---|---|---
501/423| Hawke International| M20x1.5 (1/2” NPT)| Exd IIC Gb Extb IIIC Db| 67|
CML 19ATEX1167X IECEx CML19.0045X CML 21UKEX1161X
501/421| Hawke International| M20x1.5 (1/2” NPT)| Exd IIC Gb Extb IIIC Db| 67|
Baseefa 06ATEX0058X
501/453/RAC| Hawke International| M20x1.5 (1/2” NPT)| Exd IIC Gb Extb IIIC Db|
67| Baseefa 06ATEX0056X
501/453/Universal| Hawke International| M20x1.5 (1/2” NPT)| Exd IIC Gb Extb
IIIC Db| 67| CML 18ATEX1268X IECEx CML18.0131X CML 21UKEX1132X
ICG/653/Universal| Hawke International| M20x1.5 (1/2” NPT)| Exd IIC Gb Extb
IIIC Db| 67| Baseefa 06ATEX0058X
ICG/653/Universal/L| Hawke International| M20x1.5 (1/2” NPT)| Exdb IIC Gb Extb
IIIC Db| 67| Baseefa 06ATEX0058X
A2F, A2FRC| CMPProducts| M20x1.5 (1/2” NPT)| Exd IIC Gb Exta IIIC Da| 67| CML
18ATEX1321X IECEx CML18.0179X CML 21UKEX1245X
SS2K| CMPProducts| M20x1.5 (1/2” NPT)| Exd IIC Gb Exta IIIC Da| 67| CML
18ATEX1322X IECEx XML18.0178X CML 21UKEX1256X
E1FW, E2FW| CMP Products| M20x1.5 (1/2” NPT)| Exd IIC Gb Exta IIIC Da Exd I
Mb| 67| CML 18ATEX1324X IECEx CML18.0181X CML 21UKEX1252X
PX2K, PXSS2K, PX2KX| CMPProducts| M20x1.5 (1/2” NPT)| Exdb IIC Gb Exta IIIC Da
Exdb I Mb| 67| CML18ATEX1325X IECEx CML18.0182X CML 21UKEX1214X
Table 7. List of equivalent blinding plugs
Plug type| Manufacturer| Thread| Designation| IP|
Certificate no.
---|---|---|---|---|---
475, 477| Hawke International| M20x1.5 (1/2” NPT)| Exd IIC Gb Extb IIIC Da Exd
I Mb| 66| Baseefa 10ATEX0262X
747, 757 and 767| CMPProducts| M20x1.5 (1/2” NPT)| Exd IIC Gb Exta IIIC Da Exd
I Mb| 67| CML 18ATEX1320X IECEx CML18.0177X CML 21UKEX1238X
Use a shielded or unshielded, non-reinforced cable with compact structure and
circular cross-section in an non-hygroscopic sheath made of an elastomer, e.g.
YKSLY 21, YnTKSYekw 121, LIYCY 21.
If a cable of different design has to be used, it should be agreed on with the
transmitter manufacturer in order to choose a suitable cable gland or
individually purchase a cable gland suited to the cable used. The list of
equivalent cable entries is given above (Table 6). The cables should be
protected from damage by routing them in cable trays, jacket tubes, cable
ladders, by using fixed mounts, etc
When periodic inspections are performed, the covers tightness, cable entry and cable fixing in the cable entry should be checked. Visually check the enclosure and cable for mechanical damage, and the nameplate for legibility. The sensor diaphragm should be also included to periodic inspections. There shouldn’t be a signs o damage. During maintenance it is recommended to apply acid-free petroleum jelly on threads connection.
The diaphragm should not be exposed to damage during transmitter installation and operation. The transmitter diaphragm is made of stainless steel or Hastelloy and must not be exposed to contact with a medium that may damage it.
The connecting and operating general rules for an Exd transmitters should
be compliant with the rules and standards applicable to devices in a
flameproof enclosure:
EN 60079-14 – Electrical devices in explosive atmospheres. Part 14:
Electrical installations in risk areas (other than mines).
EN 60079-17 – Electrical devices in explosive atmospheres. Part 17:
Electrical installations inspection and maintenance in risk areas (other than
mines).
Due to possible damage, the transmitter should be protected from heating above 80ºC also when explosion hazard does not occur.
ADDITIONAL INFORMATION
Additional information
The manufacturer reserves the right to introduce structural and technological
changes to the device, which does not deteriorate its performance.
History of revisions
Revision No | Document revision | Description of changes |
---|---|---|
– | 01.A.001/2019.04 | Initial document version. Prepared by DKD, DCF. |
1 | 01.A.002/2019.10 | The formulas for trapezoidal power supply have been |
corrected. Prepared by DCF
2| 01.A.003/2019.10| Addition of markings related to the FTZU 08 ATEX 0020X
and IECEx FTZU 14.0026X certificates. Prepared by DCF
3| 01.A.004/2020.07| Change of certificates in tables 6 and 7 and other
updates related to the introduction of new manuals
EN.IO.APC.APR.ALW.Rev.02.A.005 and EN.IO.APC.APR.ALW.SFT.R .02. A.004.
Prepared by DCF.
4| 01.A.005/2020.08| New document edition. Prepared by DCF.
5| 01.A.006/2022.06| Minor editorial changes. Prepared by DCF
6| 01.A.008/2023.01| Added certificate according to UKCA. Prepared by DCF.
Revision 01.A.008/2023.01
APLISENS S.A., 03-192 Warsaw, Morelowa 7 St
tel. +48 22 814 07 77; fax +48 22 814 07 78
www.aplisens.com
e-mail: export@aplisens.com
References
- Aplisens S.A. is one of the leading manufacturers of high quality process instrumentation.
- Aplisens S.A. is one of the leading manufacturers of high quality process instrumentation.
Read User Manual Online (PDF format)
Read User Manual Online (PDF format) >>