Honeywell SLG 700 Quick Start Manual

1 SLG 700 Quick Start Guide, SmartLine Level Guided Wave Radar 34-SL-25-04, Revision 7.0, December 2017 This document provides descriptions and procedures for the Quick Installation of Honeywell’s SmartLine Guided Wave Radar Level Transmitters. The SmartLine Level Guided Wave Radar is available as a family of SLG72x models for liquid applications. Copyrights, Notices and Trademarks Copyright 2017 by Honeywell Revision 7.0, December 2017 Trademarks SFC, SmartLine and SLG 700 are U.S. registered trademarks of Honeywell Inc. HART® and FOUNDATION™ are trademarks of FieldComm Group™ Revision History 1.0 – 1st release 2.0 – Updated display menus 3.0 – R101 release. 4.0 – R101 Fieldbus updates. 5.0 – R102 Updated display menus 6.0 – R102 Fieldbus updates. 7.0 – R200 Saturated Steam References The following list identifies all documents that may be sources of reference for material discussed in this publication. Document Title Document # SLG 700 SmartLine Guided Wave Radar Level Transmitter User’s Guide 34-SL-25-11 SLG 700 SmartLine Level Guided Wave Radar, HART option Manual 34-SL-25-06 SLG Pocket Configuration Guide, SmartLine Level Guided Wave Radar 34-SL-00-01 SLG 700 Safety Manual 34-SL-25-05 SLG 700 SmartLine Level Guided Wave Radar, FOUNDATION Fieldbus Manual 34-SL-25-07 SLG 700 Specifications 34-SL-03-03

February 2017 Table of Contents INSTALLATION ........................................................................................................................... 4 Required tools .................................................................................................................. 4 Operating conditions ........................................................................................................ 5 Process connector ........................................................................................................... 5 See the WIRING section for more information on grounding. ........................................... 5 Rod probe assembly ........................................................................................................ 6 Wire probe assembly ....................................................................................................... 7 Coaxial probe assembly ................................................................................................... 8 SLG720 ................................................................................................................. 8 SLG726 ............................................................................................................... 13 Saturated Steam Application Probe Assembly ............................................................... 16 Trimming the probe ........................................................................................................ 17 MOUNTING THE TRANSMITTER .............................................................................................. 18 Flange mount ................................................................................................................. 18 Threaded mount ............................................................................................................. 19 Mounting on a bypass, bridle, or still well ....................................................................... 21 Mounting on a non-metallic container ............................................................................. 23 Remote mount ............................................................................................................... 24 Nozzle mount ................................................................................................................. 25 No probe option.............................................................................................................. 25 Conduit Entry Plugs and Adaptors ............................................................................................. 26 Procedures .................................................................................................................... 26 Conduit Entry Plugs ........................................................................................................ 26 Conduit Adapters ........................................................................................................... 27 WIRING ..................................................................................................................................... 27 WIRING PROCEDURE .................................................................................................. 30 HAZARDOUS LOCATION INSTALLATIONS ............................................................................. 31 Explosion-proof conduit seal .......................................................................................... 31 US Installations .............................................................................................................. 31 SET THE JUMPERS FOR HART ............................................................................................... 31 Set the Jumpers for FOUNDATION Fieldbus (FF) ......................................................... 34 CONFIGURATION GUIDE ......................................................................................................... 35

3 Tables Table 1: Tools required ................................................................................................................... 4 Table 2: Operating Conditions ........................................................................................................ 5 Table 3: SLG720 bypass and stillwell recommended diameters ................................................... 22 Table 4: SLG726 bypass and stillwell recommended diameters ................................................... 22 Table 5: SLG720 recommended nozzle dimensions ..................................................................... 25 Table 6: Probe Diameters ............................................................................................................. 25 Table 7: Jumpers for HART .......................................................................................................... 31 Table 8: HART Jumper Settings .................................................................................................... 33 Table 9: FOUNDATION Fieldbus Write Protect ............................................................................... 34 Table 10: Advanced Display Configuration .................................................................................... 35 Figures Figure 1: Transmitter components ................................................................................................... 5 Figure 2: Rod probe assembly ........................................................................................................ 6 Figure 3: SLG726 flanged process connection, probe nut installation position, mm [in] probe selection ......................................................................................................................................... 6 Figure 4: Wire probe assembly ....................................................................................................... 7 Figure 5: SLG720 Coaxial Probe Assembly ................................................................................... 12 Figure 6: SLG726 Coaxial probe assembly................................................................................... 15 Figure 7 Saturated steam probe assembly ................................................................................... 16 Figure 8 Drill hole position on outer tube ......................................... Error! Bookmark not defined. Figure 9: Flange mounting ............................................................................................................ 19 Figure 10: Tank roof mounting using a Threaded Mounting ........................................................... 19 Figure 11: Rotate the transmitter ................................................................................................... 20 Figure 12: Bypass Installation ....................................................................................................... 21 Figure 13: Mounting on a non-metallic vessel ............................................................................... 23 Figure 14: Mounting in concrete silos ........................................................................................... 23 Figure 15: Remote mount ............................................................................................................. 24 Figure 16: Electronic Housing Conduit Entries ............................................................................... 26 Figure 17: HART / 4-20mA Operating Voltage (Vdc) ..................................................................... 28 Figure 18: HART 3-Screw Terminal Board and Grounding Screw ................................................ 29 Figure 19: HART Jumper Location ................................................................................................ 32 Prior to installation, if the transmitter is required to be in storage, do not keep the device in a vertical position. Doing so will damage the probe and the device will not measure correctly. • Store the device in a dry and dust-free location. • Keep the housing out of the sunlight. • Store the device in its original packing.

December 2017 INSTALLATION Evaluate the site selected for the SmartLine Level Guided Wave Radar (GWR) installation with respect to the process system design specifications and Honeywell’s published performance characteristics. Required tools Note: The following tools are not supplied with the Transmitter. Table 1: Tools required Mounting hardware (nuts and bolts for flanged unit) and tools Allen keys: • Coaxial coupler (SCA, SCC, SCD) AF 1.5 mm • Rook, Electronics housing AF 2.0mm • End weight (SWA, SWB) AF 2.5 mm Wrenches: • Rod probe (8mm) (SRA, SRH, SRJ) AF 7 mm • Rod probe (16mm) (SRC, SRK, SRL) AF 14 mm • Saturated Steam reference reflector AF 20 mm • Mounting thread ¾” and 1” (SLG 720) AF 40 mm • Mounting thread 1½” (SLG 720) AF 50 mm • Mounting thread 2” (SLG 720) AF 60 mm  Mounting thread 1½”, 2” (SLG 726) AF 60 mm  Coaxial probe outer process connector (SCA, SCB) Process compatible thread locking compound (i.e. Loctite 242)  Coaxial probe outer process connector (SLG 720, SCA, SCB) Retaining ring pliers for internal diameter 20 mm  Coaxial probe outer process connector (SLG 720, SCA, SCB) Retaining ring pliers for internal diameter 40mm  Probe nut (8mm) AF 8 mm  Probe nut (16mm) AF 14 mm  Probe nut (saturated steam) AF 20 mm To shorten rod and coaxial probes Saw To shorten wire probes Saw or bolt cutter To drill hole in coaxial outer tube (SLG 720) Drill and 6.0 mm drill bit Wire cutter / stripper M20 conduit entry plugs 10 mm hex wrench ½” NPT conduit entry 1¼” wrench ½” to ¾” NPT adapter 1¼” wrench

5 Operating conditions Table 2: Operating Conditions Parameter Operative Limits Transportation and Storage °C °F °C °F Ambient Temperature1 -40 to 85 -40 to 185 -55 to 120 -67 to 248 Humidity %RH 0 to 100 0 to 100 1 LCD Display operating temperature -20°C to +70°C. Storage temperature -30°C to 80°C. Process connector Throughout this Quick Start Guide, there are references to the process connector on the transmitter. See Step 5 of the probe assembly steps for equipment specifications. The process connector has three functions: • Separates the process environment from the external environment. • Attaches the transmitter to a tank with a threaded or flanged connection. Brackets are not required. • Provides electrical feed-through to the probe. Note: This Quick Start Guide uses the term “threaded”, which refers to milling that allows a segment to be screwed into another segment. Figure 1: Transmitter components CAUTION: Ensure the Electronic Housing is grounded before lowering a probe into a tank by using the internal terminal or external terminal to connect the transmitter to earth ground. See the WIRING section for more information on grounding.

December 2017 Rod probe assembly Rod probes are shipped in segments. The segments are attached with a stud and a lock washer. Step Action 1 Fully thread the nut onto the central conductor. Using a lock washer, thread the first rod segment on to the central conductor. Torque the nut against rod probe and lock washer to secure the connection. 2 Thread the stud into first rod segment end. Using a lock washer thread the next segment onto the stud. Apply torque to secure the connection. Note: Tighten each rod connection point to the following torques:  SLG720 6.0 Nm (4.4 ft-lbs)  SLG726 15 Nm (11 ft-lbs) Note: For flanged SLG726 models, ensure the nut does not intrude into the process connector. See Figure 3 for more information. Figure 2: Rod probe assembly Figure 3: SLG726 flanged process connection, probe nut installation position, mm [in] probe selection

7 Wire probe assembly Step Action 1 Fully thread the nut onto the central conductor. Using a lock washer, thread the wire swage on to the central conductor. Torque the nut against probe and lock washer to secure the connection. Note: Tighten the wire stud and nut to the following torque:  SLG720 6.0 Nm (4.4 ft-lbs)  SLG726 15 Nm (11 ft-lbs) 2 If applicable, insert wire probe into end weight. Tighten the 3 set screws to secure end weight to wire probe Note: Torque set screws to 6 Nm (4.4 ft-lbs) Note: For flanged SLG726 models, ensure the nut does not intrude into the bore of the process connector. See Figure 3 for more information. Figure 4: Wire probe assembly

December 2017 Coaxial probe assembly Coaxial probes are constructed out of an inner rod and an outer tube. Depending on the length of the coaxial probe it may be constructed out of several segments. Note: For the flanged HTHP, when constructing the probe, the nut should not intrude into the body of the process connector. SLG720 Probe construction will depend on the length of the probe. In the case of the SLG 720 the inner rod is constructed out of 1.0m segments and the outer tube is constructed out of 2.0m segments. There are 2 types of rod segment: and extension segment and an end segment. Extension segments have threads on both ends and the end segment has threads on one end. Rod segments are joined to each other using a stud and lock washer. There are 3 types of tube segment: Starter segments, extension segments and end segments. Starter segments have an internal thread on one end and an external thread on the other. Extension segments have external threads on both ends. End segments have an external thread on one end and a clean end. The outer tube segments are joined using tube couplers. Probe Length ≤ 1.0m Step Action 1 Fully thread the nut onto the central conductor of the process connector. Place a lock washer between the locknut and the rod segment and torque the nut against the rod segment and lock washer to secure the connection. Note: Tighten rod connection point to the following torque:  SLG720 6.0 Nm (4.4 ft-lbs). 2 Slip the coaxial outer tube over the rod and spacer and tighten to the process connector. Note: Tighten connection point to the following torque:  SLG720 30 Nm (22 ft-lbs).  It is recommended that a process compatible thread locking compound (i.e. Loctite 242) be used on the outer conductor threaded joints. 3 Insert an end spacer into the end of tube. Align the holes in the end spacer with the holes in the outer tube and insert the 2 locking pins. Refer to Detail B of Figure 5.

9 Probe Length 1.0m to 2.0m Step Action 1 Fully thread the nut onto the central conductor of the process connector. Place a lock washer between the locknut and the rod segment and torque the nut against the rod segment and lock washer to secure the connection. Note: Tighten rod connection point to the following torque:  SLG720 6.0 Nm (4.4 ft-lbs) 2 Slide a spacer onto first rod. Connect the rod "end" segment to first rod using a stud and lock washer. Refer to Detail A of Figure 5. Note: Tighten rod connection point to the following torque:  SLG720 6.0 Nm (4.4 ft-bls) 3 Slip the coaxial outer tube over the rod and tighten to the process connector. Note: Tighten connection point to the following torque:  SLG720 30 Nm (22 ft-lbs)  It is recommended that a process compatible thread locking compound (i.e. Loctite 242) be used on the outer conductor threaded joints. 4 Insert an end spacer into the end of tube. Align the holes in the end spacer with the holes in the outer tube and insert the 2 locking pins. Refer to Detail B of Figure 5. Figure 5: SLG720 Coaxial Probe Assembly.

December 2017 Probe Length ˃ 2.0m Probes over 2m in length will always have a starter tube segment and an end tube segment. They may have 0 to 2 extension tube segments. It is advisable to build the probe up 2m at a time. The assembly procedure starts as follows: Step Action 1 Fully thread the nut onto the central conductor of the process connector. Place a lock washer between the locknut and the first rod segment and torque the nut against the rod segment and lock washer to secure the connection. Note: Tighten rod connection point to the following torque:  SLG720 6.0 Nm (4.4 ft-lbs) 2 Prior to securing the next rod segment, place a Teflon spacer over the rod segment end. The wrench flats on the rod end will index the spacer. 3 Connect the subsequent rod segment using a stud and lock washer. Note: Tighten rod connection point to the following torque: SLG720 6.0 Nm (4.4 ft-lbs) 4 Slip the starter coaxial outer tube with internal threads over the rod and tighten to the process connector. Note: Tighten connection point to the following torque:  SLG720 30 Nm (22 ft-lbs)  It is recommended that a process compatible thread locking compound (i.e. Loctite 242) be used on the outer conductor threaded joints. 5 If the probe length is over 4m. Repeat Step 2 and 3 to connect the subsequent 2 rod extension segments. Then use a tube coupler to attach the next tube extension segment. Insert 2 M3 set screws into each coupler. Note: Tighten M3 set screws to the 1.0Nm (8.8in-lb). It is recommended that a process compatible thread locking compound (i.e. Loctite 242) be used on each set screw. 6 If the probe length is over 6m. Repeat Step 5.

11 7 Install the rod end segment by repeating Step 2 and 3. Then use a tube coupler to attach the tube end segment. Insert 2 M3 set screws into each coupler. Note: Tighten M3 set screws to the 1.0Nm (8.8in-lb). It is recommended that a process compatible thread locking compound (i.e. Loctite 242) be used on each set screw. 8 Insert and end spacer into the end of the tube. Align the holes in the end spacer with the holes in the outer tube and insert the 2 locking pins. Refer to Detail B of Figure 5.

13 SLG726 Depending on the length of the probe there may be 0 to 3 2.0m rod segments.  Coaxial probes ≤ 2.0m are shipped with a single outer tube.  Coaxial probes ˃ 2.0m are shipped with the outer tube in segments. Probe Length ≤ 2.0m Step Action 1 Thread the nut onto the central conductor of the process connector. Refer to Figure 3 for nut position on flanged process connectors. Place a lock washer between the locknut and the first rod segment. Torque the nut against the rod segment and lock washer to secure the connection. Note: Tighten rod connection point to the following torque:  SLG726 15 Nm (11 ft-lbs)  2 Slip the coaxial outer tube over the rod and tighten to the process connector. Note: Tighten rod connection point to the following torque:  SLG726 15 Nm (1 1ft-lbs)  It is recommended that a process compatible thread locking compound (i.e. Loctite 242) be used on the outer conductor threaded joints. 3 Install end spacer between central conductor and outer tube in counterbore. Secure end spacer using the retaining ring. Probe Length ˃ 2.0m Step Action 1 Thread the nut onto the central conductor of the process connector. Refer to Figure 3 for nut position on flanged process connectors. Place a lock washer between the locknut and the first rod segment. Torque the nut against the rod segment and lock washer to secure the connection. Note: Tighten rod connection point to the following torque:  SLG726 15 Nm (11 ft-lbs)  2 Slip the coaxial outer tube with internal threads over the rod and tighten to the process connector. Note: Tighten rod connection point to the following torque:  SLG726 15 Nm (11 ft-lbs)  It is recommended that a process compatible thread locking compound (i.e. Loctite 242) be used on the outer conductor threaded joints.

December 2017 3 Prior to securing the next rod segment, place a “star shaped” spacer over the rod segment end. The wrench flats on the rod end will index the spacer. 4 Depending on the probe length there could be 0 to 2 more rod segments and 1 rod "end" segment to assemble. Connect the subsequent rod segment to first, using a stud and lock washer. Note: Tighten rod connection point to the following torque:  SLG726 15 Nm (11 ft-lbs)  It is recommended that a process compatible thread locking compound (i.e. Loctite 242) be used on the outer conductor threaded joints. 5 Slip a coaxial coupler over the last rod segment and spacer and tighten onto the previous outer tube segment. Note: Tighten rod connection point to the following torque:  SLG726 30Nm (22ft-lbs)  It is recommended that a process compatible thread locking compound (i.e. Loctite 242) be used on the outer conductor threaded joints. 6 Depending on probe length there may be 0 to 2 coaxial outer tube "extension" segments and 1 coaxial tube "end" segment. Slip the next coaxial tube "extension" segment over the last rod segment and spacer and tighten to the coaxial coupler. Note: Tighten rod connection point to the following torque:  SLG726 30 Nm (22 ft-lbs)  It is recommended that a process compatible thread locking compound (i.e. Loctite 242) be used on the outer conductor threaded joints. 7 Repeat steps 3-6 above until only the rod "end" segment and coax tube "end" segment remain. 8 Attach the last "star shaped" spacer over the previous rod segment end, as in step 3 above. 9 Attach rod "end" segment as in step 4 above. 10 Slip the coaxial coupler over the rod and spacer and tighten. Note: Tighten rod connection point to the following torque:  SLG726 30 Nm (22 ft-lbs)  It is recommended that a process compatible thread locking compound (i.e. Loctite 242) be used on the outer conductor threaded joints.

15 11 Slip the coaxial end segment over the rod end segment and secure to coaxial coupler. Note: Tighten rod connection point to the following torque:  SLG726 30 Nm (22 ft-lbs)  It is recommended that a process compatible thread locking compound (i.e. Loctite 242) be used on the outer conductor threaded joints. 12 Install the end spacer between central conductor and outer tube in counterbore. Secure end spacer using the retaining ring. 13 Insert 2 M3 set screws into each coupler. Note:  Tighten M3 set screws to the 1.0 Nm (8.8 in-lb).  It is recommended that a process compatible thread locking compound (i.e. Loctite 242) be used on each set screw. Figure 6: SLG726 Coaxial probe assembly

December 2017 Saturated Steam Application Probe Assembly Saturated steam application is available with SLG726 rod and coax probes. The nut and first inner rod segment have a larger diameter. The remaining hardware is identical. Refer to Figure 7 for saturated steam hardware. To assemble the probes, thread the saturated steam application nut to the central conductor, tapered end towards the process connector. For flanged process connectors, ensure the nut position is as shown in Figure 3. Place a lock washer between the locknut and the steam reference rod. Torque the connection to 15 Nm (11 ft-lbs). Proceed with the standard assembly procedures detailed above. Figure 7 Saturated steam probe assembly Saturated steam hardware Saturated steam hardware

17 Trimming the probe WARNING: Trimming the probe requires that the probe length configured in the transmitter is changed accordingly. Device Action Rod probe Where clearance to the bottom of the tank is less than 0.4″ (10 mm), the rod must be shortened. Rod probes are supplied in segments. Cut on the terminating rod segment (the one with the unthreaded end). Wire probe (Supplied with an unattached end weight) 1 Loosen the three set screws holding the end weight to the wire. 2 Remove the end weight from the wire. 3 Measure the required wire length and apply adhesive tape around the wire at the intended cut location. Note: The tape helps hold the wire strands together when cutting. 4 Make the cut using a bolt cutter or saw. 5 Insert the wire back into the end weight and tighten the three set screws. Coaxial probe Note: Applicable only to SLG720 1 A Coaxial probe consists of an inner rod and coaxial outer tube. To trim the coaxial probe, both inner rod and coaxial outer tube need to be trimmed. For trimming the inner rod, refer to rod probe trimming instruction detailed above. Avoid trimming the internal thread region of the inner rod. 2 To trim the coaxial outer tube, start on the terminating segment (the one with the unthreaded end). Mark and trim the outer tube to the same amount as the inner rod. Avoid trimming the coupler region of the outer tube. 3 Drill a 6 mm hole through the end of the outer tube at location shown in Error! Reference source not found..

December 2017 Figure 8: Drill hole position on outer tube MOUNTING THE TRANSMITTER Flange mount Step Action 1 To mount a flange mounted transmitter, bolt the transmitter’s flange to the flange on the roof of the tank. 2 On insulated tanks, remove enough insulation to accommodate the flange extension. Note: It is the End User’s responsibility to provide a flange gasket and mounting hardware that are suitable for the transmitter’s service condition. 3 Use unpainted, metal bolts to ensure a reliable electrical contact between the tank and transmitter.

19 Figure 9: Flange mounting Threaded mount Figure 10: Tank roof mounting using a Threaded Mounting Recommended nozzle diameter (D) Recommended nozzle height (H)

December 2017 Step Action 1 Transmitters with threaded process connectors can be screwed to tanks or nozzles with threaded bosses. For tanks with BSP/G threads, place a gasket on top of the tank, or use a sealant on the threads of the tank connection. The transmitter must be tightened to the appropriate torque setting. After this is complete, the sensor and transmitter electronics housings can be rotated to the relevant position. Loosen lower two set screws to rotate, see Figure 11. Product damage can occur if the joint between the sensor and the electronics housing is rotated. See Figure 1 for details. Figure 11: Rotate the transmitter

21 Mounting on a bypass, bridle, or still well The SLG 700 transmitter can be mounted in a new or existing bypass pipe, bridle, or a side pipe, see Figure 12. This type of installation is often simpler and allows the addition of radar level measurement to an otherwise busy installation. A similar installation is also possible inside the main container, when installing the SLG700 transmitter on a stilling well. N = Pipe diameter D = Bypass diameter (N < D) L = Effective measurement range (L must be >= 12″ Figure 12: Bypass Installation

December 2017 Table 3: SLG720 bypass and stillwell recommended diameters Probe type Recommended diameter Minimum diameter Rod probe 3” or 4” (75 mm or 100 mm) 2” (50 mm) Wire probe 4” (100 mm) 2” (50 mm) Coaxial probe N/A 1.5” (37.5 mm) Table 4: SLG726 bypass and stillwell recommended diameters Probe type Recommended diameter Minimum diameter Rod probe 3” or 4” (75 mm or 100 mm) 2” (50 mm) Wire probe 4” (100 mm) 2” (50 mm) Coaxial probe N/A 2” (50 mm) Chambers, bypass pipes, and still wells with smaller diameter can lead to problems with build-up. Chambers larger than 6" (150 mm) can be used, but offer little advantage for radar measurement. The probe must extend the full length of the chamber and not contact the bottom of the chamber, or make contact with the chamber wall. Clearance from the bottom of the chamber is recommended to be 1" (25 mm). Probe selection is dependent on length. For lengths less than 20′ 8″ (6.3 m): Rod probe is recommended. For lengths more than 20′ 8″ (6.3 m): Wire probe with weight and centering disk is recommended, only wire probes are available. A centering disk is recommended for rod probes over 1m length to prevent excessive movement caused by strong currents inside the pipe.

23 Mounting on a non-metallic container To install a single lead probe into a non-metallic (plastic) vessel, the probe must be mounted with a metal flange (>2″/DN50) or if a threaded process connection is in use, the probe must be screwed into a metal sheet (diameter > 8″/200 mm). Figure 13: Mounting on a non-metallic vessel Figure 14 depicts an example of mounting in concrete silos, the placement of the concrete versus the metal sheet used to secure the transmitter. Both Figure 13 and Figure 14 are considered non-metallic mounts. Both types of mountings are subject to the same specifications as described in Mounting on a non-metallic container. Figure 14: Mounting in concrete silos

December 2017 Remote mount In applications where a remotely mounted display is required, the remote mount allows the electronics housing to be mounted 3m away from the process connector. This can be useful when access to the mounting location is limited. To assemble the remote mount, attach the process connector first, followed by securing the mounting bracket to a pipe or wall. Secure the electronics module to the bracket with the 3 supplied M6 screws. Connect the cable and check bends for minimum radius (see Figure 15) to prevent damage. Torque the 2 nuts to 6 Nm (4.4 ft-lbs). Figure 15: Remote mount

25 Nozzle mount The transmitter can be mounted to a tank nozzle using the appropriate flange. See Figure 9 for an example. Table 5 shows recommended nozzle dimensions based on probe type. Table 5: SLG720 recommended nozzle dimensions Single probe (rod/wire) Coaxial probe Recommended nozzle diameter (D) 6” (150 mm) > probe diameter Minimum nozzle diameter (D) 2” (50 mm) > probe diameter Recommended nozzle height (H) 4” (100 mm) + nozzle diameter (*) N/A (*) When using a flexible probe in nozzles taller than 6” (150 mm) the SWB wire probe with extension stud is recommended. SWB or PWB are options in the model selection guide. These offer a 300 mm rod extension to keep the selection of the wire probe that is in the nozzle, from moving. Note: The Blocking Zone is an area on the transmitter where no measurements are performed. No probe option The guided wave radar transmitter is available with a no probe option where the transmitter is supplied with a nut and lock washer without a probe. Table 6 provides recommendations for probe diameters and materials of construction. Table 6: Probe Diameters Model Thread Probe type Recommended probe diameter Recommended probe material SLG720 M5x0.8 Rod 8 mm ASTM A-276, Type 316L, condition A, or ASTM B574 alloy UNS N10276 solution annealed. Wire 4 mm ANSI T316 SLG726 M10x1.5 Rod 16 mm ASTM A-276, Type 316L, condition A Wire 4 mm ANSI T316 (7x7 construction)

December 2017 Conduit Entry Plugs and Adaptors Procedures It is the User/Installer’s responsibility to install the Transmitters in accordance with national and local code requirements. Conduit entry plugs and adapters shall be suitable for the environment, shall be certified for the hazardous location when required and acceptable to the authority having jurisdiction for the plant. CONDUIT ENTRY PRECAUTIONARY NOTICE THE CONDUIT/CABLE GLAND ENTRIES OF THIS PRODUCT ARE SUPPLIED WITH PLASTIC DUST CAPS WHICH ARE NOT TO BE USED IN SERVICE. IT IS THE USER’S RESPONSIBILITY TO REPLACE THE DUST CAPS WITH CABLE GLANDS, ADAPTORS AND/OR BLANKING PLUGS WHICH ARE SUITABLE FOR THE ENVIRONMENT INTO WHICH THIS PRODUCT WILL BE INSTALLED. THIS INCLUDES ENSURING COMPLIANCE WITH HAZARDOUS LOCATION REQUIREMENTS AND REQUIREMENTS OF OTHER GOVERNING AUTHORITIES AS APPLICABLE Figure 16: Electronic Housing Conduit Entries Use the following procedures for installation. Conduit Entry Plugs Step Action 1 Remove the protective plastic cap from the threaded conduit entry. 2 To ensure the environmental ingress protection rating on tapered thread (NPT), a non-hardening thread sealant may be used. 3 Thread the appropriate size conduit plug (M20 or ½” NPT) into the conduit entry opening. Do not install conduit entry plugs in conduit entry openings if adapters or reducers will be used. 4 Tighten adapters according to the following torque: Torque: 32 Nm or 24 lb-ft

27 Conduit Adapters Step Action 1 Remove the protective plastic cap from the threaded conduit entry. 2 To ensure the environmental ingress rating on tapered threads (NPT), a non-hardening thread sealant may be used. 3 Thread the appropriate size adapter (M20 or ½” NPT) into the conduit entry opening 4 Tighten adapters according to the following torque: Torque: 32 Nm or 24 lb-ft. Note: Plugs do not come installed in the housings. All housings come with temporary plastic dust protectors (red or blue) installed and are not certified for use in any installation. WIRING Wiring must comply with local codes, regulations and ordinances. Grounding may be required to meet various approval body certification, for example CE conformity. Refer to the SmartLine Level Guided Wave Radar User’s Manual, Document #34-SL-25-11. HART / 4-20mA Operating Ranges The transmitter is designed to operate in a two-wire / current loop with loop resistance and power supply voltage within the operating range for HART / 4-20 mA installations as described in Figure 17. Supply Voltage (Vdc) Max. Loop Resistance (Ohms) 14 0 19.5 250 24 459 30 750 34 917 40 1200 42 1284 Note: A minimum of 250 Ohms of loop resistance is required to support HART communications. 𝐿𝑛���𝑛���𝑛��� 𝑟𝑒𝑟���𝑖𝑟���𝑟���𝑎𝑛𝑎���𝑒 = 𝑎���𝑎𝑟𝑟𝑖𝑒𝑟 𝑟𝑒𝑟���𝑖𝑟���𝑟���𝑎𝑛𝑎���𝑒 + 𝑣���𝑖𝑟𝑒 𝑟𝑒𝑟���𝑖𝑟���𝑟���𝑎𝑛𝑎���𝑒 + 𝑟𝑒𝑎���𝑒𝑖𝑣𝑒𝑟 𝑟𝑒𝑟���𝑖𝑟���𝑟���𝑎𝑛𝑎���𝑒 For all HART installations, Honeywell recommends the HART resistor to be placed on the positive side. Voltage should not exceed 42 VDC. See the process design system documentation for specifics.

December 2017 Figure 17: HART / 4-20 mA Operating Voltage (VDC) See the SLG 700 User’s Manual, Document #34-SL-25-11 for details on the voltage calculation, and guidance when considering the resistance of intrinsic safety barriers. Loop wiring is connected to the Transmitter by simply attaching the positive (+) and negative (–) loop wires to the first two terminals on the left, marked with LOOP+ and LOOP- on the transmitter body in the Electronic Housing as shown in Figure 18. The third terminal to the right is a TEST terminal and is only used for loop current diagnostics / measurements. TIP: A current measurement device with low internal resistance (< 10ohms) can be connected between the TEST terminal “+” and the TEST terminal “-“ of the Transmitter Terminal Block to acquire a readout of the loop current. CAUTION Loop current wiring should never be connected to the TEST “+” terminal. This can damage the Transmitter. Additionally, never connect the current measurement device between the Loop “+” terminal and the TEST “+”terminal. This also will damage the Transmitter.

29 Figure 18: HART 3-Screw Terminal Board and Grounding Screw Note: The rightmost terminal as shown in Figure 18 is for a loop test and is not available in the Fieldbus option.

December 2017 FOUNDATION Fieldbus Operating Ranges The FOUNDATION Fieldbus SLG 700 transmitter requires a terminal voltage in the range 9Vdc to 32Vdc. WIRING PROCEDURE Step Action 1 Ensure the loop power supply is off. 2 Remove the end cap cover from the terminal block end of the Electronics Housing 3 Insert the power leads through each conduit entrance. The transmitter accepts wire thicknesses up to 16AWG. 4 Plug the unused conduit entrance. See section above. 5 Connect the positive loop power lead to the positive (+) terminal and the negative loop power lead to the negative (-) terminal. See Note below 6 Replace the end cap, and secure it in place. 7 Optional: Transmitters that comply with the ATEX 4 directive for self- declared approval per 94/9EC or 2014/34/EU, the power supply must indicate a voltage limiting device. The transmitter has internal and external terminals to connect to the ground (earth). While it is not necessary to ground the transmitter for proper operation, grounding the transmitter can minimize the possible effects of noise on the output signal and protects the housing from lightning and static discharge, and may be required to meet various approval body certifications, for example CE conformity. An optional terminal block with lightning protection can be installed in place of the non-lightning protection terminal block for Transmitters that will be installed in areas susceptible to lightning strikes. Note: The transmitter is polarity-insensitive with respect to loop power connection. Nevertheless, to assist with troubleshooting and maintain same installation procedure, it is recommended to connect loop wiring as per Step 5.

31 HAZARDOUS LOCATION INSTALLATIONS For hazardous location installations, refer to the SmartLine Guided Wave Radar Level Transmitter User’s Guide, Document #34-SL-23-11 for further information and warnings. Explosion-proof conduit seal When installed as explosion-proof in a hazardous location, keep covers tight while the transmitter is energized. Disconnect power to the transmitter in the non-hazardous area prior to removing end caps for service. When installed as non-incendive or non-sparking equipment in a hazardous location, disconnect power to the transmitter in the non-hazardous area, or determine that the location is non-hazardous before disconnecting or connecting the transmitter wires. US Installations Transmitters installed as explosion proof in Class I, Division 1, Group A Hazardous (classified) locations in accordance with ANSI/NFPA 70, the US National Electrical Code, with ½ “conduits, do not require an explosion-proof seal for installation. Conduits with a ¾” conduit, require a LISTED explosion-proof seal installed in the conduit. The seal must be installed –SL-within 18” (457.2 mm) of the transmitter. SET THE JUMPERS FOR HART The SmartLine Level Transmitter (HART) provides two jumpers to set the desired failsafe action and Write Protect option. See Figure 19. Table 7: Jumpers for HART Top Jumper Bottom Jumper Sets the Failsafe direction. Sets the Write Protect Default: Up-scale Failsafe Default: OFF (Un-protected) Up-scale drives the loop to a value greater than 21 mA. Note: Down-scale faults are always latching. ON (Protected) position: Changed configuration parameters cannot be written to the transmitter. OFF (Un-protected) position: Changed configuration parameters can be written to the transmitter.

December 2017 ATTENTION: Electrostatic Discharge (ESD) hazards. Observe precautions for handling electrostatic sensitive devices. Step Action 1 Turn OFF Transmitter power. 2 Loosen the end-cap lock, and unscrew the end cap from the Electronics side of t-he Transmitter housing. 3 If applicable, carefully depress the tabs on the sides of the Display Module and pull it off. If necessary, move the interface connector from the Communication Module to the display module to provide the preferred orientation of the display module in the window. 4 Set the Failsafe Jumper (top jumper) to the desired action (UP or DOWN). And the Write Protect jumper (Bottom jumper) to the desired behavior (Protected or Unprotected) See Table 8 for jumper positioning. 5 Screw on the end-cap and tighten the end-cap lock. 6 Turn ON Transmitter power. Figure 19: HART Jumper Location

33 Table 8: HART Jumper Settings Image Description Failsafe = UP (High) Write Protect = OFF (Not Protected) Failsafe = DOWN (Low) Write Protect = OFF (Not Protected) Failsafe = UP (High) Write Protect = ON (Protected) Failsafe = DOWN (Low) Write Protect = ON (Protected)

There is no Failsafe jumper on the FOUNDATION Fieldbus transmitters, but there is a Write Protect jumper and a simulation-mode jumper (see manual 34-SL-25- 07). ATTENTION: Electrostatic Discharge (ESD) hazards. Observe precautions for handling electrostatic sensitive devices. Step Action 1 Turn OFF Transmitter power. 2 Loosen the end-cap lock, and unscrew the end cap from the Electronics side of the Transmitter housing. 3 If applicable, carefully depress the tabs on the sides of the Display Module and pull it off. 4 Set the Write Protect jumper (Bottom jumper) to the desired behavior (Protected or Unprotected). See Table 9 for jumper positioning. 5 Replace the Display Module, if applicable. 6 Screw on the end cap and tighten the end-cap lock. 7 Turn ON Transmitter power. Table 9: FOUNDATION Fieldbus Write Protect and Simulation Mode jumper positions. Image Description Fieldbus SIM Mode = OFF Write Protect = OFF (Not Protected) Fieldbus SIM Mode = OFF Write Protect = ON (Protected) Fieldbus SIM Mode = ON Write Protect = OFF (Not Protected) Fieldbus SIM Mode = ON Write Protect = ON

35 CONFIGURATION GUIDE The SLG 700 transmitters have two display options:  Advanced LED Display: Multi-line display.  No Display: Configuration is not available. Use Table 10 to configure Advanced Display transmitters. See the SLG 700 SmartLine Level User’s Manual, Document #34-SL-25-11 for more information. (R) = Read only Table 10: Advanced Display Configuration Display Configuration sub-menu LCD Contrast Set Contrast Common Setup Set Password (HART only) Language (FF read only) Rotation Time Screen Rotate Screens 1-8 Screen Format (FF read only) Trend Hours (FF read only) PV Selection (FF read only) Display Units (FF read only) Custom Units (R) (FF only) Decimals (FF read only) Disp High Limit (FF read only) Disp Low Limit (FF read only) Custom Tag (FF read only) Basic Configuration sub-menu General Short Tag (HART only) Length Unit Temp Unit Velocity Unit Volume Unit Process Measured Prod Vapor DC (single and two liquids, non-flooded only) Product DC (single liquids only) Upper Prod DC (two liquids only) Lower Prod DC (two liquids only) Vapor Atten (single and two liquids, non-flooded only) Product Atten (single liquid only) Lower Prod Atten (two liquids only) Upper Prod Atten (two liquids only) Max Fill Rate Measurement Sensor Height Max Product Level Level Offset Echo Lost Time Dynm Variables Measured Prod PV SV TV QV

36 Quick Start Installation Guide Decemeber 2017 Basic Configuration sub-menu (continued) 4-20 mA Output (HART only) LRV URV Damping NAMUR Output Loop Curr Mode Latching Mode BDH/BDL Loop Set LRV (HART only) Set LRV Set URV Install Date Year Month Day Install Date Write Date Advanced Configuration sub-menu Mounting Note: Loop must be removed from Automatic Control Transmtr Model (R) Sensor Conn Type (R) Proc Conn Type (R) Mounting Loc Mounting Angle (Visible for Tank, Bracket or Nozzle mounting location only) Nozzle Height (Nozzle Mounting Loc only) Nozzle Dia (Nozzle Mounting Loc only) Bypass Dia (Bypass Mounting Loc only) Stillwell Dia (Stillwell Mounting Loc only) Backgrnd Type Dynm Bkgd Updt (Field and Obstacle Backgrnd Type only) Full Tank Det Backgrnd Capture (Measured Prod not Saturated Steam) Backgrnd Type Use Level (Obstacle Backgrnd Type only) Start Capture (capture process is inactive) Cancel Capture (capture process is active) Probe Note: Loop must be removed from Automatic Control. Probe Type Probe Length Probe End Type CenterDiskType CenterDisk Dia (Center Disk Type is not None) PropagtnFactor Block Dist Hi Block Dist Low SteamRefPrbTyp (Saturated Steam Measured Prod only) Steam Ref Len (Saturated Steam Measured Prod only) Probe Length Cal (SingleLiqLowDC Measured Prod only) Start Cal (calibration process is inactive) Stop Cal (calibration process is active)

37 Steam Ref Cal (Saturated Steam Measured Prod only) Start Cal (calibration process is inactive) Stop Cal (calibration process is active) Volume Vol Calc Type Tank Shape Tank Diameter Volume (continued) Tank Length Tank Width Tank Height Volume Offset (Vol Calc Type is Tank Shape only) Reflectn Model Ampl Tracking Location Width Attenuation Gain ObjFuncThrshld DAC Trim (HART only) Trim Zero Trim Span Set DAC Normal Loop Test (HART only) Set DAC Output Set DAC Normal HART Params (HART only) Poll Address Final Assy Num Show Date Year Month Day Write Date Monitor sub-menu Critical Diag (R) Active Diags (R) Sensor Module (R) Comm Module (R) Sensor Comm (R) Measurement (R) Reset Required (R) Soft Reset Detail Diag (items below are only visible when Yes) Sensor Int RAM (R) Sensor Ext RAM (R) Sensor Flash CRC (R) Sensor Pwr Vosc (R) Sensor Pwr 2.5V (R) Sensor Pwr 3.3V (R) Sensor Pwr Accum (R) Sensor Code Flow (R) Sensor Oscillator (R) Factory Mode (R) Low Power Mode (R) Reflectn Ref Loc (R) Ref Plane Offset (R)

38 Quick Start Installation Guide Decemeber 2017 Critical Diag (R) Unlic Intf Meas (R) Unlic Sat Steam (R) Unlic Low DC App (R) ModelNumMismatch (R) Sensr DB Corrupt (R) Reset Sensr DB (Sensor DB corrupt only) Comm DB Corrupt (R) Reset Comm DB (Comm DB corrupt only) Non-Crit Diag Active Diags (R) Supply Voltage (R) Elec Module Temp (R) DAC Temp Comp (R) (HART only) Sensor Comm (R) Display Setup (R) (HART only) Characterized (R) Charact. Status(R) PV Range (R) Sensor Over Temp (R) Surface Sgnl Str (R) Surfac Sgnl Qlty (R) Interfc Sgnl Str (R) Interfc Sgnl Qlty (R) Sensing Section (R) Blk Dist Hi Zone (R) (single liquid only) Blk Dist Lo Zone (R) (single liquid only) Surface in BDH (R) (two liquids only) Surface in BDL (R) (two liquids only) Interface in BDH (R) (two liquids only) Interface in BDL (R) (two liquids only) Snsr Calibrated (R) Calibration Type (R) FldBkgdNotCompat Backgrnd Not Set FldgBkgdLoadError Device Vars Measurd Prod Lvl (R) Surface Sgnl Str (R) Surface Sgnl Qlty (R) Interfc Sgnl Str (R) (two liquids only) Interfc Sgnl Qlty (R) (two liquids only) Int Elec Temp (R) Display Info Firmware Version (R) Comm Info Protocol (R) Universal Rev (R) (HART only) Field Dev Rev (R) (HART only) Software Rev (R) (HART only) PV Alarm Type (R) (HART only) LRV (R) (FF only) URV (R) (FF only)

39 Sensor Info Firmware Version (R) Model Key (R) Device ID (R) Echo Stem Plot Duration Show Stem Plot Model Number Model Number (R) (no mismatch only) Comm Model Num (R) (mismatch only) Sensor Model Num (R) (no mismatch only) Matching Source (mismatch only) Do Match (mismatch only) Options Interface Meas (R) Saturated Steam (R) Low DC Applic (R) License Key (R) Read-Only parameter

40 Quick Start Installation Guide Decemeber 2017 Sales and Service For application assistance, current specifications, pricing, or name of the nearest Authorized Distributor, contact one of the offices below. ASIA PACIFIC Honeywell Process Solutions, (TAC) hfs-tac- [email protected] Australia Honeywell Limited Phone: +(61) 7-3846 1255 FAX: +(61) 7-3840 6481 Toll Free 1300-36-39-36 Toll Free Fax: 1300-36-04- 70 China – PRC - Shanghai Honeywell China Inc. Phone: (86-21) 5257-4568 Fax: (86-21) 6237-2826 Singapore Honeywell Pte Ltd. Phone: +(65) 6580 3278 Fax: +(65) 6445-3033 South Korea Honeywell Korea Co Ltd Phone: +(822) 799 6114 Fax: +(822) 792 9015 EMEA Honeywell Process Solutions, Phone: + 80012026455 or +44 (0)1344 656000 Email: (Sales) FP-Sales- [email protected] or (TAC) hfs-tac- [email protected] AMERICAS Honeywell Process Solutions, Phone: (TAC) 1-800-423- 9883 or 215/641-3610 (Sales) 1-800-343-0228 Email: (Sales) FP-Sales- [email protected] or (TAC) hfs-tac- [email protected] Honeywell Process Solutions 1250 West Sam Houston Pkwy S 34-SL-25-04 Rev. 7.0 Houston, USA, TX 77042 December 2017 www.honeywellprocess.com 2017 Honeywell International Inc.