Building Automation Knowledge Base

Issue TAC Valve Body published Cv values may differ markedly to equivalent Kv values.  Environment TAC Valve Body published data utilised when sizing and selecting S-E / TAC Control Valves. Cause TAC Valve Body published Cv values based on flow rates measured in U.S. Gallons per minute rather that U.K.Gallons per minute., Resolution Check published Cv value relative to published Kv value stated for TAC Valve Body. If published Cv value is within 3% of published Kv value then Cv value may be used for sizing / selection of Valve Body. If published Cv value is up to 17% higher than Kv value then Cv value should not be used for sizing / selection of Valve Body. Cv values published in older TAC Valve Body Data Sheets should be checked before considering use in U.K. valve sizing formula. Numerous TAC Valve Body Data Sheets show that for a particular Kv value, the equivalent Cv value is approximately 17% higher than the Kv value. For example, where TAC Valve Body Data Sheet shows Kv = 10, then equivalent Cv = 11.7 or in other words Cv = Kv x 1.17 Cv values published in Satchwell Valve Body Data Sheets however show the relationship between Kv and Cv as:- Kv = Cv x 1.03 or in other words Cv = Kv x 0.97 This difference in equivalent values is due to Cv values stated in some TAC Data Sheets being based on flow rates measured in U.S. Gallons per minute, while those Cv values stated in Satchwell Data Sheets however are based on flow rates measured in U.K. Gallons per minute. If flow rates are measured in U.S. Gallons per minute, then the following conversion factor applies :- Kv = Cv x 0.86, as the U.S. Gallon is smaller than the U.K. Gallon. Taking published TAC Valve Body Data Sheet information therefore, where the Cv value is stated as 11.7 and the Kv value is stated as 10, confirms that the conversion factor Kv = Cv x 0.86 ( 11.7 x 0.86 = 10 ) has been applied, further confirming that published Cv values are in fact based on U.S. Gallons and not U.K. Gallons. Consequences of this are as follows : - If it is assumed that the published Cv value is a U.K. Cv value, when in fact it is a U.S. Cv value, and the published Cv value is then used as a basis for valve sizing and selection, then this will result in a smaller Valve Body being selected than would otherwise be the case. Consequently, once installed, the selected Valve Body will produce a much higher pressure drop and correspondingly higher authority for a given flow rate than would otherwise have been the case. In practice the installation of an undersized Control Valve can result in starvation of flow to the item of plant being controlled and the potentially costly replacement of the Valve Body for another of a larger size. Similarly, the installation of an undersized Control Valve will result in a greater pressure drop being applied to the hydraulic circuit than may be desirable and could lead to an adverse effect on the performance of the associated circulating pump. It is important to ensure therefore that where both Kv and Cv values are published for a given Valve Body, the Kv value is utilised when undertaking valve sizing and selection.  This should ensure that a Valve Body of the correct size is selected. Measures are currently in place to actively remove all references to Cv values from both S-E / TAC Data Sheets and all future editions of the S-E HVAC Valves and Actuators Catalogue.

Issue Actuator not Tracking Control Signal. Environment Actuator typically controlling a damper or valve Cause This problem is usually traced to one of three common problems: Insufficient power to initialize actuator. Incorrect control signal. Actuator is bound. Resolution Verify the associated troubleshooting/resolutions with reference to the numbered causes above: Insufficient power to initialize actuator. Verify transformer capacity is above required power up inrush load. To determine if this is the problem, check published VA requirement. When multiple devices are powered from a common transformer, disconnect all other devices from transformer output or use isolated transformer. Incorrect control signal. Verify correct control signal is selected for the actuator. Verify actuator operation by using a Loop Calibrator such as the Fluke 789 to simulate the control signal. If the actuator tracks the simulated signal, the problem is at the controller or in the wiring. Actuator is bound. Verify actuator motion matches the controlled device. Is the actuator trying to close a valve or damper that is already closed?

Issue TS-57XX-85X and TS-67XX-85X 10K thermistor with 11 K shunt resistance table Environment Unknown Environment Cause Unknown Cause Resolution Temp (°C) Temp (°F) Ohms (11K shunt)   -40.0°     -40.0°   10,517   -39.0°     -38.2°   10,489   -38.0°     -36.4°   10,460   -37.0°     -34.6°   10,430   -36.0°     -32.8°   10,397   -35.0°     -31.0°   10,364   -34.0°     -29.2°   10,329   -33.0°     -27.4°   10,292   -32.0°     -25.6°   10,254   -31.0°     -23.8°   10,214   -30.0°     -22.0°   10,172   -29.0°     -20.2°   10,129   -28.0°     -18.4°   10,084   -27.0°     -16.6°   10,037   -26.0°     -14.8°   9,988   -25.0°     -13.0°   9,938   -24.0°     -11.2°   9,885   -23.0°     -9.4°   9,830   -22.0°     -7.6°   9,773   -21.0°     -5.8°   9,715   -20.0°     -4.0°   9,654   -19.0°     -2.2°   9,592   -18.0°     -0.4°   9,527   -17.0°     1.4°   9,460   -16.0°     3.2°   9,391   -15.0°     5.0°   9,320   -14.0°     6.8°   9,247   -13.0°     8.6°   9,171   -12.0°     10.4°   9,094   -11.0°     12.2°   9,015   -10.0°     14.0°   8,933   -9.0°     15.8°   8,850   -8.0°     17.6°   8,764   -7.0°     19.4°   8,677   -6.0°     21.2°   8,587   -5.0°     23.0°   8,495   -4.0°     24.8°   8,402   -3.0°     26.6°   8,307   -2.0°     28.4°   8,210   -1.0°     30.2°   8,111   0.0°     32.0°   8,012   1.0°     33.8°   7,910   2.0°     35.6°   7,807   3.0°     37.4°   7,702   4.0°     39.2°   7,595   5.0°     41.0°   7,489   6.0°     42.8°   7,380   7.0°     44.6°   7,270   8.0°     46.4°   7,160   9.0°     48.2°   7,048   10.0°     50.0°   6,937   11.0°     51.8°   6,825   12.0°     53.6°   6,711   13.0°     55.4°   6,597   14.0°     57.2°   6,483   15.0°     59.0°   6,369   16.0°     60.8°   6,255   17.0°     62.6°   6,141   18.0°     64.4°   6,027   19.0°     66.2°   5,912   20.0°     68.0°   5,798   21.0°     69.8°   5,686   22.0°     71.6°   5,572   23.0°     73.4°   5,460   24.0°     75.2°   5,348   25.0°     77.0°   5,238   26.0°     78.8°   5,127   27.0°     80.6°   5,018   28.0°     82.4°   4,909   29.0°     84.2°   4,802   30.0°     86.0°   4,696   31.0°     87.8°   4,591   32.0°     89.6°   4,487   33.0°     91.4°   4,385   34.0°     93.2°   4,284   35.0°     95.0°   4,184   36.0°     96.8°   4,086   37.0°     98.6°   3,989   38.0°     100.4°   3,894   39.0°     102.2°   3,800   40.0°     104.0°   3,707   41.0°     105.8°   3,617   42.0°     107.6°   3,528   43.0°     109.4°   3,441   44.0°     111.2°   3,355   45.0°     113.0°   3,271   46.0°     114.8°   3,189   47.0°     116.6°   3,107   48.0°     118.4°   3,028   49.0°     120.2°   2,951   50.0°     122.0°   2,875   51.0°     123.8°   2,801   52.0°     125.6°   2,729   53.0°     127.4°   2,658   54.0°     129.2°   2,588   55.0°     131.0°   2,521   56.0°     132.8°   2,455   57.0°     134.6°   2,390   58.0°     136.4°   2,327   59.0°     138.2°   2,266   60.0°     140.0°   2,206   61.0°     141.8°   2,148   62.0°     143.6°   2,091   63.0°     145.4°   2,036   64.0°     147.2°   1,982   65.0°     149.0°   1,929   66.0°     150.8°   1,878   67.0°     152.6°   1,827   68.0°     154.4°   1,779   69.0°     156.2°   1,732   70.0°     158.0°   1,685   71.0°     159.8°   1,640   72.0°     161.6°   1,597   73.0°     163.4°   1,554   74.0°     165.2°   1,513   75.0°     167.0°   1,472   76.0°     168.8°   1,433   77.0°     170.6°   1,395   78.0°     172.4°   1,359   79.0°     174.2°   1,322   80.0°     176.0°   1,287   81.0°     177.8°   1,253   82.0°     179.6°   1,220   83.0°     181.4°   1,188   84.0°     183.2°   1,157   85.0°     185.0°   1,126   86.0°     186.8°   1,097   87.0°     188.6°   1,068   88.0°     190.4°   1,040   89.0°     192.2°   1,013   90.0°     194.0°   987   91.0°     195.8°   961   92.0°     197.6°   936   93.0°     199.4°   912   94.0°     201.2°   888   95.0°     203.0°   865   96.0°     204.8°   843   97.0°     206.6°   821   98.0°     208.4°   800   99.0°     210.2°   780   100.0°     212.0°   760   101.0°     213.8°   741   102.0°     215.6°   722   103.0°     217.4°   704   104.0°     219.2°   686   105.0°     221.0°   669   106.0°     222.8°   652   107.0°     224.6°   636   108.0°     226.4°   620   109.0°     228.2°   605   110.0°     230.0°   590   111.0°     231.8°   576   112.0°     233.6°   561   113.0°     235.4°   548   114.0°     237.2°   534   115.0°     239.0°   521   116.0°     240.8°   509   117.0°     242.6°   496   118.0°     244.4°   484   119.0°     246.2°   473   120.0°     248.0°   462   121.0°     249.8°   451

Issue NEMA 4 classed DuraDrive actuators cannot be used with the VB-7323 diverting valves Environment NEMA 4 DuraDrive actuators VB-7323 diverting valves Cause Which NEMA 4 classed DuraDrive actuators can be used with the VB-7323 diverting valves Resolution There are no NEMA 4 solutions available. Consider using the MA-318 or 481 for two position applications. No modulating spring return options are available but non-spring return gear train actuators with AV-391 (150 pound plungers) can be used when the AM-363 gasket is added.

Issue Set-up the Link Addressing using the Pocket Terminal (LA +) for port 1 via the DNN3 service port and set port 2 on the DNN3 to be Serial PPP.  Can't communicate to the DNN3 from the Sigma server and global data is not being passed between the two VLAN's. Environment Multiple Sigma controllers across at least two Ethernet VLAN's.  DNN3's (version 1.h) connected to each VLAN. Each DNN3 is connected to the VLAN via port 1 and port 2 is configured as a 'virtual' serial PPP port but not connected to a device. Cause No routing information (static routes) entered into the DNN3's.   Although Link Addressing can be correctly configured the DNN3 devices also need to know where to transmit the point to point global data, that is the router device for the local Ethernet VLAN or default gateway. By having two ports configured on the DNN3 network routing messages RIP will be enabled and broadcast and will advertise the port 2 address as a potential but false route off the network, therefore RIP must also be disabled.  Resolution Using Pocket Terminal or Windows Hyperterminal enter a default Static Route to the DNN3 via its service port.  Use the generic entry 0.0.0.0/0 for the destination sub-LAN and mask.  For example; SR+ 0.0.0.0/0 192.168.1.253   1      (Where 192.168.1.253 is the default gateway and 1 is the DNN port number). RIP must also be disabled on the DNN3 port 1.  For example; RIPD 1

Issue Created a new lookup table for an analogue output (AO) object to provide 10% steps and not 1% steps.  Displaying the object value always shows 1% steps. Environment Sigma Controller (All Versions) Cause The analogue output object value is the input value for the lookup table and the output of which is then passed to the A to D converter and then to the physical output. Resolution The value can be seen by a multimeter connected to the physical output. If the value of the output needs to be displayed via the Sigma front end then a programmable object is required to process the lookup table and then cross referenced to a standard analogue output object (with the default lookup table). Example of programmable object: 10 Xflo = POINT 0|51 20 YFLO = LOOKUP (1812, XFLO) 30 RETURN VIA TEXT 92 VALUE YFLO Where POINT 0|51 is the control/input object and 1812 is the lookup table number.

Issue ModBMS will not allow an OPC Client to write OPC DA values to Sigma. But, reading the ModBMS/Sigma values does work. Environment Sigma 4.04 and below ModBMS OPC Client Cause ModBMS uses the DDE functions to read/write data to the Sigma server.  A Sigma release 4.04 and below the write function was not supported and was fixed in Sigma release 4.05 onwards. Resolution Upgrade to Sigma 4.05 (onwards) where the DDE write function has been fixed.

Issue How to select a platinum sensor compatible with the Analog Input (AI) object in WorkPlace Tech. Environment WorkPlace Tech I/A Series Lon (MNL) controllers I/A Series BACnet (MNB) controllers Cause Sensor manufacturers provide platinum sensors with different Temperature Coefficient of Resistance (TCR). Resolution The Analog Input (AI) object supports 1Kohm platinum sensor with Temperature Coefficient of Resistance (TCR) equal to 0.00385 OHM/OHM @ °C. Check manufacturer's datasheet and select sensor with TCR of  0.00385 OHM/OHM @ °C

Issue Satchwell ALX series Linear Actuator requires replacement. Environment Satchwell ALX series Linear Actuator installed on Satchwell MJF, MZ, MZF, VJF, VSF, VZ or VZF series Plug and Seat Valve Body. Cause Obsolescence of Satchwell ALX series Linear Actuator. Resolution Replace Satchwell ALX series Linear Actuator with MV15B-24 Linear Actuator and Linkage Kit :-  ALX = MV15B-24 + L7SV (880-0662-000). Note: this part no. is for both actuator and linkage kit.  N.B.  Should the Satchwell ALX series Actuator include a wired Auxiliary Switch then the following Accessory should also be installed on the MV15B-24 Actuator as appropriate :-  S2 – MV15B = Two independent 250 volt 10 amp / 3 amp rated SPDT Auxiliary End Point Switches.    Particular care should be taken when selecting an S-E Forta MV15B-24 Actuator to replace an existing Satchwell ALX series Actuator. The S-E MV15B-24 Actuator may be used to replace an existing Satchwell ALX series Actuator but it should be noted that where an existing Satchwell ALX series Actuator has been connected directly to a Satchwell Controller, an independent Transformer rated to provide the greater level of power required by a single S-E MV15B -24 Actuator (12VA) will also be required. (e.g. S-E Transformer Type TR32)  Where an existing Satchwell ALX series Actuator has been connected via an independent Transformer, it is possible that the Transformer may have been rated to provide the level of power required by a single ALX series Actuator (3.5VA) only. In such circumstances the existing independent Transformer may also require replacement by another independent Transformer, rated to provide the greater level of power required by a single S-E MV15B-24 Actuator (12VA) (e.g. S-E Transformer Type TR32)

Issue Satchwell ALM series Linear Actuator requires replacement. Environment Satchwell ALM series Linear Actuator installed on Satchwell MJF, MZ, MZF, VJF, VSF, VZ or VZF Series Plug and Seat Valve Body. Actuator type :- ALM series Cause Obsolescence of Satchwell ALM series Linear Actuator. Resolution Replace Satchwell ALM series Linear Actuator with MV15B-230 Linear Actuator and Linkage Kit :-  ALM = MV15B-230 + L7SV (880-0126-000) Linkage Kit N.B.  Should the Satchwell ALM series Actuator include a wired Auxiliary Switch then the following Accessory should also be installed on the MV15B-230 Actuator as appropriate :-  S2 – MV15B = Two independent 250 volt 10 amp / 3 amp rated SPDT Auxiliary End Point Switches.

Issue 1. The Sigma default user name TAC USER does not work with Sigma 4.05 SEB 2. Tried the user access password and could not logon Environment Sigma 4.05 SEB Cause The default user name changed at Sigma 4.05 SEB Resolution From Sigma 4.05 SEB onwards the default user name is SIGMA USER. The password remains unchanged.

Issue Satchwell AR Series 1 or AR Series 2 Rotary Actuator requires replacement Environment Satchwell AR Series 1 or AR Series 2 Rotary Actuators installed on Satchwell MB Series or MBF Series Rotary Shoe Valve Bodies. Satchwell ARE ARM & ARX Series 1 and Series 2 Rotary Actuators Cause Obsolescence of Satchwell AR Series 1 or AR Series 2 Rotary Actuators Resolution Replace Satchwell AR Series 1 or AR Series 2 Rotary Actuators with appropriate S-E MD Series Rotary Actuators and wire as follows: Satchwell AR Series 1 or AR Series 2 Rotary Actuators installed on Satchwell MB Series Screwed Rotary Shoe Valve Bodies ARE ARE Series 1 & 2 Wire Colour BLUE  =  MD10A-24 or MD20A-24 Wire Number 2 ARE Series 1 & 2 Wire Colour RED  =  MD10A-24 or MD20A-24  Wire Number 3 ARE Series 1 & 2 Wire Colour BLACK  =  MD10A-24 or MD20A-24  Wire Number 1 ARE Series 2        Wire Colour WHITE  =  MD10A-24 or MD20A-24  Wire Number 5  ARX ARX Series 1 & 2 Wire Colour RED  =  MD10B-24 or MD20B-24 Wire Number 3 ARX Series 1 & 2 Wire Colour BLUE  =  MD10B-24 or MD20B-24  Wire Number 2 ARX Series 1 & 2 Wire Colour BLACK =  MD10B-24 or MD20B-24  Wire Number 1  ARM – UP TO MARCH 2006 ARM Series 1 & 2 Wire Colour RED  =  MD10B-230 or MD20B-230 Wire Number 3 ARM Series 1 & 2 Wire Colour BLUE  =  MD10B-230 or MD20B-230 Wire Number 2 ARM Series 1 & 2 Wire Colour BLACK  =  MD10B-23 or MD20B-230 Wire Number 1  ARM – SINCE MARCH 2006 ARM Series 1 & 2 Wire Colour BROWN  =  MD10B-230 or MD20B-230 Wire Number 3 ARM Series 1 & 2 Wire Colour BLACK  =  MD10B-230 or MD20B-230 Wire Number 2 ARM Series 1 & 2 Wire Colour BLUE  =  MD10B-230 or MD20B-230 Wire Number 1  Note: Should the Satchwell AR Series Actuator include a wired Auxiliary Switch then the following Accessory should also be wired on the S-E MD Actuator as follows: MD – S1  One independent SPDT 1 mA…3(0.5) A, 250 V AC Auxiliary Switch  AR COMMON Wire Colour ORANGE  =  MD-S1 COMMON Wire Number S1 AR N/O contact Wire Colour BROWN  =  MD-S1 N/O contact Wire Number S3      AR N/C contact Wire Colour WHITE  =  MD-S1 N/C contact Wire Number S2  MD – S2  Two independent SPDT 1 mA…3(0.5) A, 250 V AC Auxiliary Switches  AR COMMON Wire Colour ORANGE  =  MD-S2 COMMON Wire Number S1 AR N/O contact Wire Colour BROWN  =  MD-S2 N/O contact Wire Number S3 AR N/C contact Wire Colour WHITE  =  MD-S2 N/C contact Wire Number S2  AR COMMON Wire Colour BLACK  =  MD-S2 COMMON Wire Number S4 AR N/O contact Wire Colour RED  =  MD-S2 N/O contact Wire Number S6 AR N/C contact Wire Colour BLUE  =  MD-S2 N/C contact Wire Number S5   Satchwell AR Series 1 or AR Series 2 Rotary Actuators installed on Satchwell MBF Series Flanged Rotary Shoe Valve Bodies ARE ARE Series 1 & 2 Wire Colour BLUE  =  MD20A-24 Wire Number 2 ARE Series 1 & 2 Wire Colour RED  =  MD20A-24 Wire Number 3 ARE Series 1 & 2 Wire Colour BLACK  =  MD20A-24 Wire Number 1 ARE Series 2        Wire Colour WHITE  =  MD20A-24 Wire Number 5  ARX ARX Series 1 & 2 Wire Colour RED  =  MD20B-24 Wire Number 3 ARX Series 1 & 2 Wire Colour BLUE  =  MD20B-24 Wire Number 2 ARX Series 1 & 2 Wire Colour BLACK =  MD20B-24 Wire Number 1  ARM – UP TO MARCH 2006 ARM Series 1 & 2 Wire Colour RED  =  MD20B-230 Wire Number 3 ARM Series 1 & 2 Wire Colour BLUE  =  MD20B-230 Wire Number 2 ARM Series 1 & 2 Wire Colour BLACK  =  MD20B-230 Wire Number 1  ARM – SINCE MARCH 2006 ARM Series 1 & 2 Wire Colour BROWN  =  MD20B-230 Wire Number 3 ARM Series 1 & 2 Wire Colour BLACK  =  MD20B-230 Wire Number 2 ARM Series 1 & 2 Wire Colour BLUE  =  MD20B-230 Wire Number 1  Note: Should the Satchwell AR Series Actuator include a wired Auxiliary Switch then the following Accessory should also be wired on the S-E MD Actuator as follows: MD – S1  One independent SPDT 1 mA…3(0.5) A, 250 V AC Auxiliary Switch  AR COMMON Wire Colour ORANGE  =  MD-S1 COMMON Wire Number S1 AR N/O contact Wire Colour BROWN  =  MD-S1 N/O contact Wire Number S3 AR N/C contact Wire Colour WHITE  =  MD-S1 N/C contact Wire Number S2  MD – S2  Two independent SPDT 1 mA…3(0.5) A, 250 V AC Auxiliary Switches  AR COMMON Wire Colour ORANGE  =  MD-S2 COMMON Wire Number S1 AR N/O contact Wire Colour BROWN  =  MD-S2 N/O contact Wire Number S3 AR N/C contact Wire Colour WHITE  =  MD-S2 N/C contact Wire Number S2  AR COMMON Wire Colour BLACK  =  MD-S2 COMMON Wire Number S4 AR N/O contact Wire Colour RED  =  MD-S2 N/O contact Wire Number S6 AR N/C contact Wire Colour BLUE  =  MD-S2 N/C contact Wire Number S5

Issue The text on the prog object does change but the graphic does not show the same change. Environment Sigma all versions BAS all versions Cause Controller only update server graphics when the object changes state or exceeds the set tolerance.  If prog objects are written with the same condition but different texts in the return statements then the correct text may not be displayed until the whole graphic is updated.  For example 10 If P0|1 on then return true "Object 1 on" 20 if P0|2 on then return true "Object 2 on" 30 if p0|3 on then return true "Object 3 On" Resolution Write the programmable object to that will change state to update the graphic.  This may well have to be a dedicated object for the graphic.  For example using a time statement to check for a change; 10 if not time left then goto 50 20 If P0|1 on then return true "Object 1 on" 30 if P0|2 on then return true "Object 2 on" 40 if p0|3 on then return true "Object 3 on" 50 set timer 10 60 If P0|1 on then return false "Object 1 on" 70 if P0|2 on then return false "Object 2 on" 80 if p0|3 on then return false "Object 3 on"

Issue Need to replace Digital Clock for SVT4251 or CSC2726 and CSC2727 Controller. Environment SVT4251  CSC2726 CSC2727 Cause Faulty Clock Resolution Replacement Digital Clock for SVT4251 or CSC2726 and CSC2727 Controller is part number 561-9-261

Issue Which files can be backed up safely with an automatic/manual method. Environment Sigma (All) Cause Backing up a live Sigma system is not a recommend as copying ‘live open’ files can not guarantee the integrity of the data. Resolution For either backup method (automatic or manual) those files which could be potentially 'open' by Windows should not be backed up unless the Sigma server and clients have been shut down.  1. Those data locations that can be backup safely while the Sigma is running are those in which archive data is stored, namely; a.  C:\Sigma\Data\ArchivedAlarms b. C:\Sigma\Data\ArchivedLogs c. C:\Sigma\Data\ArchivedTransactions Removing the files from these locations should only be done as a space saving measure as Sigma can be configured to view these data files by the user. 2. For all other files the recommendation is to shut the system down (clients and server) before taking the backup. 3. Restoring data must only be performed after shutting down the system first.

Issue DC1100 / DC1400 Boiler output does not energize during HWS time schedule ON periods Environment DC1100 / DC1400 Discrete Controller installations. Cause DC1100 / DC1400 HWS time schedule is not Boiler Linked. Resolution Please check the catalog for current equipment Check Hot Water Link Option is set to Boiler Linked by following Controller access procedure :- Override Setting Switch :- select SET position. Display Screen / Navigation Buttons :- select parameters SYSTEMS MENU / ALTER SETTINGS / ENTER PASS No. (0112) HOT WATER / LINK OPTION Check LINK OPTION setting If LINK OPTION is set to INDEPENDENT then amend to BOILER LINKED If LINK OPTION is set to BOILER LINKED then PUMP RUN ON may be active If PUMP RUN ON  is active then Boiler outputs will be disabled until PUMP RUN time expires To amend PUMP RUN ON time :- select parameters SYSTEMS MENU / ALTER SETTINGS / ENTER PASS No. (0112) COMPENSATOR / SET-UP MENU / PUMP RUN-ON Amend Pump Run-On time period to 1 MINUTE and observe BOILER No.1 LED status should change from OFF to ON DC1100 / DC1400 Boiler No. 1 output (Terminal 10) should now be energised.

Issue Can I/A ENC-520 interface to a Honeywell Q7700 Network Interface for boiler/burner monitoring? Environment I/A Series G3 (Niagara) ENC-520 Cause Driver for Interface Resolution Tridium reports that there is no G3 driver to support an interface with this product.

Issue How to identify the DMS (MicroSmart) MSC-P1502 Enhanced from the non- Enhanced version. Environment DMS MicroSmart MSC-P1500 series Cause Controller version identification Resolution The MSC-P1502 controller came in two versions, non-Enhanced and Enhanced. The Enhanced version had the feature for AI 5 & 6 to be configured (jumpers J1 & J2) for a Voltage/mA input or resistance input.  Non-Enhanced version: Using OPRIF to communicate to the controller, the controller greeting screen would display PCB as the Controller Type. Visual identification would be that the circuit board has a label with the p/n MSCA-6160.  Enhanced version: : Using OPRIF to communicate to the controller, the controller greeting screen would display PCB as the Controller Type.  Visual identification would be that the circuit board has a label with the p/n MSCA-6161.  If there is no p/n label on the board, another way to identify an enhanced version is by looking at the circuit board. Above the inputs AI5 & AI6 there would be a white box with the wording ENHANCED AI.

Issue Is MNL-V2RV3-APP the actual controller hardware or is it an application for the actual physical controller? Environment I/A MicroNet LonMark series controllers. MNL-5RF3-APP, MNL-5RH3-APP, MNL-5RR3-APP, MNL-5RS3-APP, MNL-5RS4-APP MNL-10RF3-APP, MNL-10RH3-APP, MNL-10RR3-APP, MNL-10RS3-APP, MNL-10RS4-APP MNL-11-RF3-APP MNL-13-RF3-APP MNL-20RF3-APP, MNL-20RH3-APP, MNL-20RR3-APP, MNL-20RS3-APP, MNL-20RS4-APP MNL-V1RV3-APP, MNL-V2RV3-APP, MNL-V3RV3-APP Cause Part Number description Resolution The MNL-V2RV3 is the actual controller; the extension -APP is an option for factory to install customer's in-house engineered application. Contact Customer Service for details.

Issue What entries are needed in the INPUT_XLATE table for the Sigma digital input to work? Environment Sigma gateway.txt IC GEN DDE IC GEN OPC Cause The Sigma digital inputs operate a reverse logic of 100.0 = off and 0.0 = on.  This needs to be reflected in the IC GEN Gateway.txt file XLATE table Resolution 1.  For the IC GEN gateway.txt input XLATE table when mapping to digital input objects; [INPUT_XLATE] count=2 Item0=1 / 0.0      ;DDE input of 1 = DI on Item1=0/ 100.0  ;DDE input of 0 = DI off 2. For the IC GEN gateway.txt output XLATE table when mapping from digital output objects; [OUTPUT_XLATE] count=2 Item0=0.0/ 0        ;D0 off = DDE output of 0 Item1=100.0/ 1   ;D0 on = DDE output of 1