Dynalco Catalyst Monitor User Manual

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5450 NW 33rd Ave, Suite 104

Fort Lauderdale, FL 33309

3211 Fruitland Ave

Los Angeles, CA 90058

Catalyst Monitor

6-Channel Monitor

Version 2

Installation and Operation Manual

Rev. I

P/N145F-12964

PCO - 00007462

Published: November 7, 2014

IMPORTANT - PLEASE READ BEFORE PROCEEDING!

This manual applies to all Version2 Catalyst Monitors.

The Dynalco Catalyst Monitor is designed for reliable and rugged operation on engines with NSCR and oxidation catalysts. This product has been designed and tested to meet the demands required in many industrial and hazardous locations meeting critical CSA standards. The performance is directly related to the quality of the installation and knowledge of the user in operating and maintaining the instrument. To ensure continued operation to the design specifications, personnel should read this manual thoroughly before proceeding with installation, operation and maintenance of this instrument. If this product is used in a manner not specified by Dynalco, the protection provided by it against hazards may be impaired.

WARNING

•

Failure to follow proper instructions may cause any one of the following situations to occur: Loss of life; personal injury; property damage; damage to this instrument; and warranty invalidation.

•

For clarification of instructions in this manual or assistance with your application, contact Dynalco at (800) 368-6666 or (954) 739-4300 or send email to

customerservice@dynalco.com

•

Additional manuals and CSA certificates are available at www.dynalco.com

•

Follow all warnings, cautions, and instructions marked on and supplied with the product.

•

Use only qualified personnel to install, operate, program and maintain the product.

•

Educate your personnel in the proper installation, operation, and maintenance of the product.

•

Install equipment as specified in the installation section of this manual. Follow appropriate local and national codes. Only connect the product to power sources and end devices specified in this manual.

•

Any repair is only to be performed by Dynalco using factory documented components. Tampering or unauthorized substitution of parts and procedures can affect the performance and cause unsafe operation of your process.

•

All equipment doors must be closed and protective covers must be in place unless qualified personnel are performing maintenance.

•

Shutdown / alarms should be tested monthly for proper operation (see page 14)

•

Please see page 22 for CSA specific installation instructions.

System Overview

The Dynalco Catalyst Monitor is designed to address the EPA mandate regarding continuous monitoring of catalyst inlet temperature and differential pressure on both spark-ignited and diesel engines. It is capable of reading up to 6 input channels, calculating differential values, providing alarm / shutdown outputs as well as allowing all parameters to be logged to an internal flash memory. An RS-485 Modbus link for communications to a DCS or PLC is also provided.

Additionally, the Catalyst Monitor is capable of calculating the engine catalyst inlet temperature based on a 4 hour rolling average per latest EPA requirements.

Basic operation:

The Catalyst Monitor will be in “stopped” or non-monitoring mode until a run indication is sensed. This is selectable as either a contact closure or magnetic pickup input. Once “running” mode is sensed, the Catalyst Monitor will read all inputs at a rate of 100 msec per channel. If any input crosses either an over or under threshold, the unit will invoke a flashing red LED on the front panel as well as an output trip (solid-state relay) that can be used for alarm or shutdown. Any trips will also cause the Catalyst Monitor to date / time stamp whenever a trip threshold is crossed. The monitor will log the last (10) alarm events for each channel input. These may be viewed on the front display.

All data is also accessible via an RS485 serial Modbus link.

Data logging functions can also be enabled where logged values are saved to an onboard flash memory.

4-Hour Rolling Average Logs:

The EPA 4-hour rolling average is configured to log the instantaneous catalyst inlet temperature every 15 minutes. The instantaneous values are then used to calculate 1-hour averages which are used to calculate a 4-hour average. The 4-hour average is a rolling average allowing logged data from previous engine run times to be included with next run times. When the “EPA Average” is enabled, the Catalyst Monitor will log continuously as long as it has received an engine run signal.

IMPORTANT:

A run signal (either digital or RPM input) must be selected in order to properly log the 4-hour rolling average. (See page 10 for configuring run signal.)

Additional Data Logging:

The Catalyst Monitor also allows additional data logging of any monitored values where they will be saved to an internal flash memory. Up to 10 log events may be selected, including logging of the catalyst differential pressure at user programmable intervals.

Flash Memory:

The onboard flash memory is sufficient to hold up to 500,000 data values with date / time stamp. When the Catalyst Monitor receives an engine run signal (either contact closure or mag pickup signal) the unit begins monitoring all enabled inputs. Following that, the monitor will begin logging data as configured. The logged data is temporarily saved to RAM memory which holds 56 logged values. The logged values remain in RAM until any of (3) events occur:

1) The RAM is full.

2) The monitor receives an engine stop signal.

3) The user initiates a “Stop Logging” command.

Following any of the above events, the data in RAM is transferred to the non-volatile flash memory. These values can be downloaded at any time to a PC using Dynalco’s download cable and Log Reader software.

IMPORTANT - Input Power Requirements:

It is important that the input supply power be a reliable source with battery backup if needed. If input power is interrupted or disconnected while the monitor is logging data, any data that has not yet been stored to flash memory may be lost. This manual contains information on page 14 that describes the steps required to safely disconnect power without risk of losing data.

Additional Features

• 5 - Digit Hourmeter Function (non-resettable)

• Engine RPM Display

• Fully programmable from front keypad

• ¼ DIN package (3 ½” width X 3 ½” height) for panel mount

Specifications

Input Types J or K type thermocouple (ungrounded) accurate to +/- 0.2 %

4 - 20 mA 0 – 1 VDC 0 - 5 VDC

0 – 10 VDC Digital Input Closure to ground indicates run condition (or use pulsed input) Pulsed Input Magnetic pickup input for RPM display & to indicate run condition Relay Outputs 2 Digital Outputs rated @ 0.15 A / 48 VDC Input Power 10 – 36 VDC Display Backlit Graphic Display Data Logging Internal Flash Memory to retain data logged values w/ date & time stamp Communications Modbus Connections Two-Part Terminal Blocks Operating Temperature Range - 40 to + 70 Deg C Certification CSA Class I, Division 2, Groups A, B, C, D

User Interface

The Catalyst Monitor is configured via the keypad on the front panel which includes a graphical backlit LCD display capable of displaying alpha numeric values and custom engineering units of measure. The keypad implements a menu system, which is navigated using the up, down, left, right, enter and escape buttons.

Installation:

The Catalyst Monitor is a standard ¼ DIN package, designed to be panel mounted. The cutout dimensions are shown below.

The Catalyst Monitor has integral mounting clips for securing into the panel. The following drawings illustrate the mounting procedure.

Terminal Connections

Description

All connections are made via the removable connectors on the back of the unit.

1 GND (Power Gnd) 13 Channel 1 (-) 2 VIN (10 - 36 VDC input) 14 Channel 1 (+) 3 GND (mag pickup input) 15 Channel 2 (-) 4 RPM + (mag pickup input) 16 Channel 2 (+) 5 Receive Data (-) 17 Channel 3 (-) 6 Receive Data (+) 18 Channel 3 (+) 7 Transmit Data (-) 19 Channel 4 (-) 8 Transmit Data (+) 20 Channel 4 (+) 9 Alarm 1 21 Channel 5 (-) 10 Alarm 1 22 Channel 5 (+) 11 Alarm 2 23 Channel 6 (-) 12 Alarm 2 24 Channel 6 (+)

Also used for USB download

cable assembly p/n 270A-13020

(see page 16)

Terminal screws to be tightened to 4 inch-pounds torque.

See page 21 for complete wiring information.

Outline Dimensions

Programming Overview

All programming is accomplished through the front keypad. Below is a brief description of each key.

Press to enter or exit the configuration screens

Press to enter or accept values

Select up

Select down

Go back one screen

Select and advance to next screen

Initial configuration consists of the following steps:

1) Setting current date / time

2) Enabling each input

3) Defining each input type

4) Defining min. & max. display values for any current or voltage inputs

5) Defining measurement display units (PSI, mV, F, C, H20, etc)

6) Setting over / under setpoint trips

7) Selecting either output 1 or output 2 (or both) for alarm trips

8) Setting either latching or non-latching for output trips

9) Defining data logging events

Programming Instructions

Important: The Catalyst Monitor must first be programmed prior to operation.

When initially powering up the unit, the display will first indicate the firmware version and then go to the operational mode. It may also display a screen warning that the time & date need to be entered. This will be explained below.

To configure the Catalyst Monitor, first go to the main programming screen by pressing the Menu / Escape key:

The following menu icons will appear from left to right:

Run Signal - defines run status input type (if any)

Channel - enables each channel type and alarm thresholds

Calibration - defines zero & span values for DCV & mA inputs

Alarm Settings - for setting high /low alarm thresholds

Alarm Logs - allows the user to view alarm status

Communication - Log Reader / Modbus setup

Data Logging - allows configuration of up to (10) different logging events

System - allows EPA enable & current date / time settings

A description of each menu item follows:

“Run Signal”

There are (3) run types available. The definitions are as follows:

None: No run indication required. Monitoring is always active. RPM: Monitoring is active when signal received from magnetic pickup. Digital: Monitoring is active when contact closure (connection to ground) is sensed.

To select run signal type, use the up / down arrows to select, then press the right arrow to accept and advance to the next screen.

If “None” is selected, there is no other action required other than to select “escape.” After selecting escape, you will be asked to select “yes” to save.

If “RPM” is selected, you will need to set the # gear teeth, RPM threshold and startup delay. The RPM threshold is the speed above which monitoring will be active. The startup delay can be configured to delay monitoring if desired, allowing time for all inputs to be at normal levels. If no delay is required, set to 0 seconds. The magnetic pickup input terminals are indicated on page 5.

If “Digital” is selected, you will only need to set the startup delay (if applicable). In this mode, a run signal will be sensed with a contact closure (or short) between the magnetic pickup input terminals indicated on page 5.

Pressing at any time during configuration will prompt you to save the changes. Select “Yes” to save any changes made. Selecting “No” will not save changes.

“Channel”

Select the channel number to configure by pressing the up / down arrows, then pressing the right arrow to navigate and select the following:

Enable Channel Yes / No Channel Type 0-1 V, 0-5 V, 0-10 V, 4-20 mA, J Type, K Type Description name input with up to 20 characters Engineering Units up to 3 characters, for example: PSI, mV, F, C etc… Note: For thermocouple inputs, you must enter either “F” or “C”

Differential calculations between channels 1&2, 3&4, 5&6 are also enabled by selecting the “Channel” icon. Enable “Differential 1” for channels 1&2, “Differential 2” for channels 3&4 and “Differential 3” for channels 5&6.

”Calibration”

Select the channel number to configure by pressing the up / down arrows and pressing the right arrow to select and continue.

The screens allow you to define the “Cal Zero” and “Cal Span” values for any channels that are configured for 0-1 V, 0-5 V, 0-10 V or 4-20 mA inputs.

Example

A pressure transmitter is connected to channel # 1. The transmitter has a 4-20 mA output representing a pressure input of 0 - 500 PSI. The “Cal Zero” and “Cal Span” values would be defined as:

Cal Zero = 0 Cal Span = 500

Note that the “Engineering Units” would be input as PSI in “Channel” configuration above.

“Alarm Settings”

Select the channel number to configure by pressing the up / down arrows, then pressing the right arrow to navigate and select the following:

Enable alarms Yes / No Alarm Type Latching / Non-Latching Alarm Output None / Output 1 / Output 2 / Output 1 and 2 Alarm Low threshold for under-trip Alarm High threshold for over-trip Alarm Reset Points Set Defaults / Set Manually If “Set Manually” is selected, 2 more screens follow: Alarm Reset Low manually set reset hysteresis for low trip Alarm Reset High manually set reset hysteresis for high trip

“Alarm Logs”

Selecting the “Alarm Logs” icon will allow you to view any active alarms as well as the history log for each channel. Select any channel number by pressing the up / down arrows. Then press the right arrow to view any active or logged alarms. Once an active alarm is acknowledged, it will be placed into the history log. The history log will continuously store the last 10 alarms for each channel as well as the time & date of each alarm occurrence.

“Communication”

This allows configuration for downloading data and Modbus communications.

”Data Logging”

The setup for EPA required logging of the catalyst inlet temperature based on a 4-hour rolling average is described in the section named “System” on page 14.

Additional data logging may be configured when you select the “Data Logging” icon. The Catalyst Monitor can be configured to log any of the parameters being monitored, at user defined time intervals. The values are saved to an internal flash memory with sufficient memory to hold up to 500,000 data values with date / time stamps. These values can be downloaded at any time to a PC using Dynalco’s “Log Reader” software.

The logging of any parameter is configured as an event. The Catalyst Monitor will allow up to (10) individual events to be defined.

It’s also possible to configure an event that will log the catalyst differential pressure at defined intervals. Note that some users may decide to manually record differential pressure once per month since this value needs to be recorded with engine fully loaded per RICE NESHAP.

Example:

To configure data logging of catalyst differential pressure after engine warm up:

(Note that this configuration will require an input signal from a magnetic pickup to sense engine running.)

Using the arrows on the keypad, select the “Data Logging” icon.

Next, select “Setup Log Events” and press the arrow.

The next screen will display a list of (10) events that can be configured. If this is the first event to be programmed, select “Event 1” and press the arrow.

Next select “Enable” and press the arrow.

The next screen allows you to define an “On” condition. The configuration for logging the differential pressure will require an “On” condition defined by an “engine run” signal. See above (page 9) for the procedure for configuring the “run” signal. In this case, select “Yes” and press the arrow.

Select “Edit Compare” on the next screen and press the arrow.

Select “Compare 1” on the next screen and press the arrow.

Select “RPM” on the next screen and press the arrow. Select “Greater Than” on the next screen and press the arrow.

Select “A Value” on the next screen and press the arrow.

On the following screen, select an RPM value that will indicate engine running. This value should be lower than the normal engine running speed and higher than the RPM defined as the “run” signal in page 9.

The next screen will ask if you want to “Edit Another?” Select “yes” and press the arrow.

Select “Compare 2” on the next screen and press the arrow.

Select “RPM” on the next screen and press the arrow.

Select “Less Than” on the next screen and press the arrow.

Select “A Value” on the next screen and press the arrow.

On the following screen, select an RPM value that will indicate the engine stopping. This value should be lower than the RPM selected above.

The next screen will ask if you want to “Edit Another?” Select “no” and press the arrow.

Press the arrow (3) more times until the screen appears as “Enter ON Delay.” Enter this number as the time delay (in seconds) following engine start when you would like to log the catalyst differential pressure. The maximum value configurable is 3600 seconds (60 minutes.) After entering the time delay, press arrow.

The next screen allows you to define an “Off” condition. Select “Yes” and press the arrow.

Select “Compare 2” on the next screen and press the arrow.

The next screen will ask if you want to “Edit Another?” Select “no” and press the arrow.

The next screen appears as “Enter OFF Delay.” Enter this number as the time delay (in seconds) following engine stop when you would like to stop logging data. The maximum value configurable is 3600 seconds (60 minutes) but this would normally be set to 0 seconds.

After entering the time delay, press arrow.

The next screen named “Input To Log” allows the user to select which parameter to log. Using the up / down arrows, select the input that is defined as the catalyst differential pressure. Press arrow.

The next screen named “Log Frequency” allows the configuration of how often (in minutes) the value is to be logged. Entering 0 minutes will allow only (1) data log event following the start delay. If you wanted to continuously log the differential pressure, you would select the frequency in minutes between data logs. Selecting escape will return to the “Log Frequency” screen.

Press the arrow and then select “Yes” to save the changes.

Pressing the escape key two times will escape to the normal monitoring mode.

“System”

“Display defaults” allows the selection of either single channel (absolute) or differential value display. Note that regardless of this setting, pressing the right or left arrow during normal operation will display the alternate display type.

“Digital output” allows the configuration of the solid state relay alarm outputs as either “Normally Open” or “Normally Closed”

“EPA enable” is used to enable a 4-hour rolling average calculation (RICE NESHAP requirement) of the catalyst inlet temperature. Select whichever channel is configured to monitor the catalyst inlet temperature. Once this is enabled, the inlet temperature will be displayed as a 4-hour rolling average value. Specifically, the instantaneous values will be averaged into 1-hour averages which will then be used to calculate the 4-hour average. The 4-hour average will also be continuously logged at 15 minute intervals as long as the monitor is receiving an engine run signal. If the engine does not run for a full 4 hours, then the averaged data from the previous engine run will be used to calculate the next run time. An example of the logging process is on page 18.

“Set date and time” is self-explanatory but is important for proper date / time stamps for both alarm logs and data logging.

IMPORTANT NOTICE REGARDING CORRECT DATE / TIME SETTING:

The correct date / time is imperative for proper data logging.

Please note that the date and time may need to be re-programmed if the Catalyst Monitor loses input power for over 1 week. This will be indicated by a warning upon powering up the unit.

Note that only the date / time may be affected by extended loss of power. Any data logged to the internal flash memory will be held indefinitely.

Alarm Outputs

The Catalyst Monitor will alarm when channel values or differential values are above or below limits as specified. Alarms can be configured as either latching or non-latching. If an alarm condition is met, the red LED on the front panel will blink and the digital output(s) will trip. The alarm point name (ch1, ch2, df1, df2) that caused the alarm will be stored in memory with date/time stamp info. Non-latching alarms will reset the alarm if its value returns to normal. Latching alarms require manual resetting via the front keypad.

WARNING:

The alarm / shutdown output should be tested monthly for proper operation, especially if being used for over temperature shutdown or other critical function.

Catalyst Inlet Temperature Monitoring (per RICE NESHAP requirements)

The Catalyst Monitor will allow you to configure any one channel to monitor the catalyst inlet temperature based on a 4 hour rolling average per the RICE NESHAP mandate. To set this up, first go to the main menu, then select “System.” Select “EPA enable” and then select which channel is monitoring the catalyst inlet temperature. Please note that once this is configured, the channel representing the catalyst inlet temperature will always display the 4 hour average, not instantaneous exhaust temperature.

IMPORTANT NOTICE REGARDING POWER INTERRUPTION:

If input power to the Catalyst Monitor is disconnected during a data log operation, there is the possibility of losing data (see page 2).

To prevent this, it is important to turn off the data logging prior to power disconnect. This is accomplished through the “Data Logging” icon on the main menu. When this is selected, the first screen will allow you to select “Stop Logging.” Pressing the

arrow will provide

instructions for a safe power down.

The data logging will be enabled automatically when power is re-applied.

Downloading logged values to PC using LogReader software

The hardware connection from the Catalyst Monitor to a PC is via a USB cable assembly, Dynalco p/n 270A-13020. The 6 ft cable length allows easy connection via a 4 pin Phoenix plug to the lower connector (terminals 5, 6, 7, 8) on the back of the Catalyst Monitor. When initially plugging the download cable into the PC’s USB port, the new device should be recognized and the driver installed automatically.

Please call (954) 739-4300 if the driver is not installed properly or assistance is required.

The Dynalco host software “LogReader” is available as a free download from our website:

www.dynalco.com/downloads

There are (2) versions available:

LogReader Ver. 1 Use for Version 1 Catalyst Monitors

LogReader ver. 2 Use for Version 2 Catalyst Monitors

Following installation, you may click on the icon to open the application. This software will allow date selectable log values to be downloaded to an excel spread sheet on the PC.

There are (3) reports generated by the LogReader software:

The report named “CatalystDataLog” is a spreadsheet of logged values as configured in the Data Logging module (see page 12). This report does not contain 4-hour averaged values but only other events (up to 10 events) that may have been configured. An example of this download is below. Note that in this example, the columns format was selected which lines up the various log events (5 events in this case) in separate columns.

The 2nd report named “CatalystDataLogEPAInstant” contains the instantaneous catalyst inlet temperatures taken at 15 minute intervals.

Note that the input channel configured to monitor the inlet temperature must also be configured as the “EPA Enabled” channel (see page 14).

There are (4) different events that are assigned to the EPA enabled channel; events 21, 22, 23 & 24.

The (4) temperature values in each event ID are then used to calculate one-hour averages. Note that in some cases, an engine may be stopped before a full hour of data is collected. In this case, if there are at least (2) logged values, a 1-hour average will be calculated, per the EPA ruling.

Finally, the (4) consecutive one-hour averages are used to calculate the EPA 4-hour rolling average.

All values (instantaneous and averaged) will be seen in the 3rd report described next.

The 3rd report named “CatalystDataLogEPAHourly” contains the same instantaneous values logged above plus the hourly averages and finally the four hour averages.

Modbus Communication

Description

The unit also provides access to the internal registered values using the Modbus Protocol. The diagram below shows the recommended connections to the removable connectors on the back of the unit for either half-duplex or full-duplex (RS485).

Wiring is as follows:

5 TD(A) ** 6 TD(B) ** 7 Jumper to PIN 5 8 Jumper to PIN 6

** A 120 ohm termination resistor may need to be installed across pins 5 & 6.

Modbus Address Registers:

Modicon

Modbus

Description

Min Value

Max

Data type

300001

Status Register, 0=not running,

0 1 16 bit signed integer

300002

Reserved

-32768

32768

16 bit signed integer

300003

Alarms

Bit mask

Bit 0

- Cha

nnel 1 Alarm

0 1

0001h

Bit 1

- Channel 2 Alarm

0 1

0002h

Bit 2

- Channel 3 Alarm

0 1

0004h

Bit 3

- Channel 4 Alarm

0 1

0008h

Bit 4

- Channel 5 Alarm

0 1

0010h

Bit 5

- Channel 6 Alarm

0 1

0020h

Bit 6

- Channel 1

2 Differential

0 1 0040h

Bit 7

- Channel 3

4 Differential

0 1 0080h

Bit 8

- Channel 5

6 Differential

0 1 0100h

Bit 9

- reserved

0 1

0200h

Bit 10

- reserved

0 1

0400h

Bit 11

- reserved

0 1

0800h

Bit 12

- reserved

0 1

1000h

Bit 13

– reserved

0 1

2000h

Bit 14

– reserved

0 1

4000h

Bit 1

5 – reserved

0 1

8000h

300004

Channel 1 Value

-32768

32767

16 bit signed integer

300005

Channel 2 Value

-32768

32767

16 bit signed integer

300006

Channel 3 Value

-32768

32767

16 bit signed integer

300007

Channel 4 Value

-32768

32767

16 bit signed integer

300008

Channel 5 Value

-32768

32767

16 bit signed integer

300009

Channel 6 Value

-32768

32767

16 bit signed integer

300010

Channel 1 and 2 Differential Value

-32

768 32767

16 bit signed integer

300011

Channel 3 and 4 Differential Value

-32768

32767

16 bit signed integer

300012

Channel 5 and 6 Differential Value

-32768

32767

16 bit signed integer

300013

Channel 1 High Alarm Limit

-32768

32767

16 bit sign

ed integer

300014

Channel 2 High Alarm Limit

-32768

32767

16 bit signed integer

300015

Channel 3 High Alarm Limit

-32768

32767

16 bit signed integer

330016

Channel 4 High Alarm Limit

-32768

32767

16 bit signed integer

The Modbus address registers are defined in the tables below.

Input Register Table (table 1)

Address

Offset

Value

1=running.

Alarm

300017

Channel 5 High

Alarm Limit

-32768

32767

16 bit signed integer

300018

Channel 6 High Alarm Limit

-32768

32767

16 bit signed integer

330019

Channel 1 and 2 Differential High

Alarm Limit

32768

32767

16 bit signed integer

300020

Channel 3 and 4 Differential High

32768

32767

16 bit signed integer

300021

Channel 5 and 6 Differential High

32768

32767

16 bit signed integer

300022

Channel 1 Low Alarm Limit

-32768

32767

16 bit signed integer

300023

Channel 2 Low Alarm Limit

-32768

32767

16 bit signed integer

300024

Channel 3 Low Alarm Limit

-32768

32767

16 bit signed integer

300025

Channel 4 Low Alarm Limit

-32768

32767

16 bit signed integer

300026

Channel 5 Low Alarm Limit

-32768

32767

16 bit signed integer

300027

26 Channel 6 Low Alarm Limit

-32768

32767

16 bit signed integer

300028

Channel 1 and 2 Differential Low

32768

32767

16 bit signed integer

300029

Channel 3 and 4 Differential Low

32768

32767

16 bit signed integer

300030

Cha

nnel 5 and 6 Differential Low

32768

32767

16 bit signed integer

300031

RPM

65535

16 bit unsigned integer

300032

65535

16 bit unsigned integer

301002

1001

Log Buffer Entry #1

Custom (See table

301006

1005

Log Buffer Entry #2

Custom (See table 4)

301010

1009

Log Buffer Entry #3

Custom (See table 4)

301014

1013

Log Buffer Entry #4

Custom (See table 4)

301018

1017

Log Buffer Entry

#5 Custom (See table 4)

301022

1021

Log Buffer Entry #6

Custom (See table 4)

301026

1025

Log Buffer Entry #7

Custom (See table 4)

301030

1029

Log Buffer Entry #8

Custom (See table 4)

301034

1033-

Log Buffer Entry #9

Custom (See table 4)

301038

1037

Log Buffer Entry #10

Custom (See table 4)

301042

1041

Log Buffer Entry #11

Custom (See table 4)

Alarm Limit

301005

301009

301013

301017

301021

301025

301029

301033

301037

301041

1004

1008

1012

1016

1020

1024

1028

1032

1036

1040

301045

1044

301046

301049

1045

Log Buffer Entry #12

Custom (See

table 4)

301050

1049

Log Buffer Entry #13

Custom (See table 4)

301054

1053

Log Buffer Entry #14

Custom (See table 4)

301058

1057

Log Buffer Entry #15

Custom (See table 4)

301062

1061

Log Buffe

r Entry #16

Custom (See table 4)

301066

1065

Log Buffer Entry #17

Custom (See table 4)

301070

1069

Log Buffer Entry #18

Custom (See table 4)

301074

1073

Log Buffer Entry #19

Custom (See table 4)

30107

1077

Log Buffer Entry #20

Custom (See table 4)

301082

1081

Log Buffer Entry #21

Custom (See table 4)

301086

1085

Log Buffer Entry #22

Custom (See table 4)

301090

1089

Log Buffer Entry #23

Custom (See table 4)

301094

1093

Log Buffer Entry #24

Custom (See table 4)

301098

1097

Log Buffer Entry #25

Custom (See table 4)

301102

1101

Log Buffer Entry #26

Custom (See table 4)

301106

1105

Log Buffer Entry #27

Custom (See table 4)

301110

1109

Log Buffer Entry #28

Custom (See table 4)

301114

1113

Log Buffer Entry #29

Custom (See table 4)

301118

1117

Log Buffer Entry #30

Custom (See ta

ble 4)

302002

2001

Channel 1 Float Value

-9999.0

99999.0

32 bit Float(IEEE 754)

302004

2003

Channel 2 Float Value

-9999.0

99999.0

32 bit Float(IEEE 754)

1048

301053

301057

301061

301065

301069

301073

301077

301081

301085

301089

1052

1056

1060

1064

1068

1072

1076

1080

1084

1088

301093

301097

301101

301105

301109

301113

301117

301121

302003

302005

1092

1096

1100

1104

1108

1112

1116

1120

2002

2004

302006

302007

2005

Channel 3 Float Value

-9999.0

99999.0

32 bit Float(I

EEE 754)

302008

2007

Channel 4 Float Value

-9999.0

99999.0

32 bit Float(IEEE 754)

302010

2009

Channel 5 Float Value

-9999.0

99999.0

32 bit Float(IEEE 754)

302012

2011

Channel 6 Float Value

-9999.0

99999.0

32 bit Float

(IEEE 754)

302014

2013

Channel 1 and 2 Differential Value

-9999.0

99999.0

32 bit Float(IEEE 754)

302016

2015

Channel 3 and 4 Differential Value

-9999.0

99999.0

32 bit Float(IEEE 754)

302018

2017

Channel 5 and 6 Differ

ential Value

-9999.0

99999.0

32 bit Float(IEEE 754)

302020

2019

Channel 1 High Alarm Limit

-9999.0

99999.0

32 bit Float(IEEE 754)

302022

2021

Channel 2 High Alarm Limit

-9999.0

99999.0

32 bit Float(IEEE 754)

302024

2023

Channel 3 High Alarm Limit

-9999.0

99999.0

32 bit Float(IEEE 754)

302026

2025

Channel 4 High Alarm Limit

-9999.0

99999.0

32 bit Float(IEEE 754)

302028

2027

Channel 5 High Alarm Limit

-9999.0

99999.0

32 bit Float(IEEE 754)

3020

2029

Channel 6 High Alarm Limit

-9999.0

99999.0

32 bit Float(IEEE 754)

302032

2031

Channel 1 and 2 Differential High

9999.0

99999.0

32 bit Float(IEEE 754)

302034

2033

Channel 3 and 4 Differential High

9999.0

99999.0

32 bit Float(IEEE 754)

302036

2035

Channel 5 and 6 Differential High

9999.0

99999.0

32 bit Float(IEEE 754)

302038

2037

Channel 1 High Low Limit

-9999.0

99999.0

32 bit Float(IEEE 754)

302040

2039

Channel 2 High Low Limit

-9999.0

99999.0

32 bit Float(IEEE 754)

302042

2041

Channel 3 High Low Limit

-9999.0

99999.0

32 bit Float(IEEE 754)

302044

2043

Channel 4 High Low Limit

-9999.0

99999.0

32 bit Float(IEEE 7

54)

302046

2045

Channel 5 High Low Limit

-9999.0

99999.0

32 bit Float(IEEE 754)

2006

302009

302011

302013

302015

302017

302019

302021

302023

302025

302027

2008

2010

2012

2014

2016

2018

2020

2022

2024

2026

302029

302031

302033

302035

302037

302039

302041

302043

302045

302047

2028

2030

2032

2034

2036

2038

2040

2042

2044

2046

Alarm Limit

302048

302049

2047

Channel 6 High Low Limit

-9999.0

99999.0

32 bit Float(IEEE 754)

302050

2049

Channel 1 and 2 Differential Low

999

9.0 99999.0

32 bit Float(IEEE 754)

302052

2051

Channel 3 and 4 Differential Low

9999.0

99999.0

32 bit Float(IEEE 754)

302054

2053

Channel 5 and 6 Differential Low

9999.0

99999.0

32 bit Float(IEEE 754)

2056

2055

RPM

99999.0

32 bit unsigned integer

302058

2057

Hourmeter

99999.0

32 bit unsigned integer

2048

302051

302053

302055

302057

302059

2050

2052

2054

2056

2058

Alarm Limit

Dynalco Catalyst Monitor User Manual

Specifications and Main Features

Frequently Asked Questions

User Manual