LonTalk, LonUsers, LonPoint, Neuron, 3120, 3150, the Echelon logo, the L
logo, and the LonUsers logo are trademarks of Echelon Corporation registered in
the United States and other countries. LonLink, LonResponse, LonSupport, and
LonMaker are trademarks of Echelon Corporation.
GLOBAL DATAPOINTS .................................................................................................................................. 11
MAPPED DATAPOINTS (V2.04.XX OR HIGHER) .......................................................................................... 12
ALARM STATUS (PRIOR TO V2.04.X) ........................................................................................................... 15
ALARM STATUS (V2.04.XX OR HIGHER) ...................................................................................................... 16
ALARM TYPE .................................................................................................................................................. 16
ENGINEERING UNIT ....................................................................................................................................... 19
HOURS RUN .................................................................................................................................................... 20
HOURS RUN LOG ........................................................................................................................................... 20
HOURS SINCE SERVICED ............................................................................................................................. 20
LAST CHANGE ............................................................................................................................................... 26
LED MODE (XF823X, XFL823X, AND XFX830X MODULES) ........................................................................ 27
MANUAL VALUE ............................................................................................................................................. 27
NETWORK VARIABLE (V2.04.XX OR HIGHER) ............................................................................................ 28
Intrinsic Hysteresis for Analog Input Signals ........................................... 23
NORMALLY OPEN/NORMALLY CLOSED (V2.04.XX OR HIGHER) ............................................................. 28
MOTOR RUN TIME .......................................................................................................................................... 29
OFF PHASE ..................................................................................................................................................... 29
OUTPUT TYPE ................................................................................................................................................ 31
POINT ALARMS .............................................................................................................................................. 31
SUPPRESS POINT .......................................................................................................................................... 33
SWITCHING DOWN ........................................................................................................................................ 33
USER ADDRESS ............................................................................................................................................. 36
EN2B-0092GE51 R0512 4
Value Hysteresis ..................................................................................... 35
VALUE ............................................................................................................................................................. 36
POINT ALARMS .............................................................................................................................................. 45
SYSTEM ALARMS .......................................................................................................................................... 46
USER PROGRAM ALARMS ............................................................................................................................ 51
DATA STORAGE ............................................................................................................................................. 51
System Alarms Suppression (V. 2.04.xx or higher) ................................. 50
Alarms Sent across the System Bus ....................................................... 51
TEST MODE (V2.03.X) ..................................................................................................... 53
COMMUNICATION ........................................................................................................... 53
SYSTEM BUS .................................................................................................................................................. 53
Initialization of Distributed I/O Modules ................................................... 55
New Bus Devices .................................................................................... 55
Network-Wide Controller Time Synchronization ...................................... 55
Point Refreshing ...................................................................................... 56
PC COMMUNICATION .................................................................................................................................... 56
CUSTOMIZE WINDOWS DEFAULT REGIONAL AND LANGUAGE SETTINGS ........................................... 60
INDEX .............................................................................................................................. 83
5 EN2B-0092GE51 R0512
EXCEL 50/100/500/600/800
EN2B-0092GE51 R0512 6
EXCEL 50/100/500/600/800
page
change
REVISION OVERVIEW
The following pages have been changed from the previous issue of this document:
33 Section “SENSOR OFFSET” added
5 EN2B-0092GE51 R0512
EXCEL 50/100/500/600/800
SYSTEM OVERVIEW
GeneralExcel 50/500/800 controllers support both LONWORKS communi c ation and the
SoftwareThe Excel 50/100/500/600/800 system includes a comprehensive software package
Firmware version numberAll information appearing in this Software Description is valid for firmware versions
Honeywell proprietary C-Bus communication. All L
described in the L
Excel 50/100/500/600/800 is a control and monitoring system specially designed for
use in buildings. These Excel controllers use the latest Direct Digital Control (DDC)
technology. Excel 50/500/800 controllers are also capable of communicating on an
open Echelon® L
particularly well-suited to controlling buildings such as schools, hotels, offices, and
hospitals. Excel 50/100 controllers differ from Excel 500/600/800 controllers in
having a fixed input/output configuration. Excel 50 controllers have a smaller fixed
input/output configuration, and are designed for smaller buildings such as
restaurants, shops, banks, and offices.
Excel 50/100/500/600/800 functions are:
• Heating control
• Air conditioning control
• Energy management
• Energy optimization
• Other building management functionality
specially designed to meet the requirements of application engineers. It comprises
the following:
• Datapoint description
• Time program
• Alarm handling
• Password protection
The software package comes with all the files listed. The menu-driven format allows
quick and easy operation.
V1.3.xx and earlier. All information, functions, and attributes valid for newer
firmware versions (V1.5.xx or higher) are marked by the corresponding version
number for which they are valid. Fig. 1 shows various controllers and the firmware
version numbers that they support.
ONWORKS Mechanism document (EN0B-0270GE51).
ONWORKS® network. Excel 50/100/500/600/800 controllers are
ONWORKS-related information is
6 EN2B-0092GE51 R0512
EXCEL 50/100/500/600/800 OVERVIEW
7
firmware ≤ 2.06.07
firmware ≥ 2.06.08
firmware ≤ 2.06.07
firmware ≥ 2.06.08
Fig. 1. Controllers and their supported firmware versions
Excel 50 firmware compatibility Please always make sure that your firmware and the bootstrap loader match; if in
doubt, consult Software Release Bulletin(s). Special care must be taken in
particular in the case of the combinations of firmware and bootstrap loader with
XD50B-xxx modules as set forth in Error! Reference source not found..
Table 1. Firmware / bootstrap loader compatibility with XD50B-xxx modules
bootstrap loader ≤ 1.01.07 NO* OK
bootstrap loader ≥ 1.01.08 OK OK
*Problems may occur when LONWORKS bus is in use.
Table 2. Firmware / bootstrap loader compatibility with XD50-xxx modules
bootstrap loader ≤ 1.01.07 OK OK
bootstrap loader ≥ 1.01.08 OK OK
*Problems may occur when LONWORKS bus is in use.
Datapoint descriptionDatapoints are the basis of the Excel 50/100/500/600/800 system. Datapoints
contain system-specific information such as values, status, limit values, and default
settings. The user has easy access to datapoints and the information they contain.
The user can recall and modify information in the datapoints.
Time programsWhenever you want, you can use time programs to enter the setpoint or status for
any datapoint. The following time programs are available:
• Daily programs
• Weekly programs
EN2B-0092GE51 R0512
OVERVIEW EXCEL 50/100/500/600/800
• Annual programs
• The "TODAY" function
• Special day list
Daily programs are used to create a weekly program. The annual program is
created automatically by multiplying the weekly program and then incorporating
additional daily programs. The "TODAY" function enables you to have a direct
influence on the switching program. This function enables you to allocate a setpoint
or status to the selected datapoints for a defined time period. This action does not
depend on the current daily program.
Alarm handlingThe alarm handling facility offers system security. Alarm signal s can, for example,
Application programYou can use the Honeywell CARE engineering tool to create application programs
PasswordsYour control system is also protected by passwords. This ensures that only
alert the operator to maintenance work that is due. All alarms that occur are stored
in data files and reported immediately. If your system configuration allows, you can
also list alarms on a printer or transmit alarms to higher-level front-ends. There are
two kinds of alarm: Critical and Non-critical. Critical alarms have priority over noncritical alarms. System alarms, caused by a fault in a controller, are always critical
alarms.
To distinguish between alarm types, you can generate your own alarm messages or
select appropriate messages already in the system.
The following events all generate alarm messages:
• Exceeding limit values
• Overdue maintenance work
• Totalizer readings
• Digital datapoint changes of state
for your system. A particular advantage offered by Honeywell CARE is the ability to
create a fully functional control program without having to be familiar with the
programming language. CARE stands for Computer Aided Regulation Engineering.
authorized persons have access to the system data. There are four operator levels,
each protected by its own password.
• Operator level 1: Read only; the operator can display information about setpoints, switching points, and operating hours.
• Operator level 2: Read and make limited changes; the operator can display system information and modify certain preset
values.
• Operator level 3: Read and make changes; system information can be displayed and modified.
• Operator level 4: Programming.
Password protection prevents unauthorized access system information and ensures
permanent, secure system operation.
EN2B-0092GE51 R0512 8
EXCEL 50/100/500/600/800
DATAPOINTS
An Excel 50/100/500/600/800 system can have the following number of datapoints:
• Excel 50: 22 physical (onboard I/Os) plus up to 46 physical LON I/Os
• Excel 100: 36 physical (onboard I/Os)
• Excel 500: 128 physical I/Os, extendable via L
• Excel 600: 128 physical I/Os
Furthermore, Excel 50/100/500/600 support an additional 256 pseudo datapoints.
Excel 800: 381 datapoints (random mix of physical and pseudo datapoints)
A datapoint has different attributes according to its type. Attributes are displayed
and modified on the XI581 (not with XCL5010, Excel 100C), XI582, and the PCbased XL-Online operator interfaces or on the Excel 50 MMI. Attributes contain
information about the given datapoint. This information could be:
• Input limits values
• Operating status
• Current temperature
• Elapsed run time
The following sections provide more-detailed information about the different kinds of
datapoints and datapoint attributes and explain which attributes are assigned to
which datapoints.
ONWORKS I/Os
Physical Datapoints
Physical datapoints are inputs and outputs attached to hardware devices like
sensors and actuators.
Fig. 2. Physical datapoint symbols
The following are examples of physical datapoints
Analog inputsNTC, PT 1000, PT 3000, BALCO Sensors (PT 3000/BALCO not with Excel 100C),
Analog outputsOutputs with a continuous 0...10 V output signal for controlling continuous actuators
Digital inputsInputs for processing voltage-free signals (switches, contacts).
Digital outputs (not Excel 100C)Outputs for driving three-position actuators, for example, a damper motor; two
Totalizer inputsDigital inputs for processing pulsed signals up to 20 Hz (depending on Distributed
standard 0 (2)...10 V and 0 (4)...20 mA input, to connect e.g. outside air
temperature sensors.
(Excel 100C supplies up to 20 mA on the analog outputs).
position devices, for example
I/O module specifications), for example
, a circulation pump; 0...10 V and pulsed outputs
, metered energy consumption.
EN2B-0092GE51 R1111 9
DATAPOINTS EXCEL 50/100/500/600/800
Pulse 2 “on”
Pulse 2 “off”
Relay 1
Relay 2
Flexible Datapoints
Flexible datapoints allow the control of more than one physical output with one
datapoint. There are three subordinate types of flexible datapoints:
• Pulse 2
• Multi-stage
Pulse 2 flexible datapointA pulse 2 datapoint allows to pulse two digital outputs (e.g. relays). When activated
• Feedback.
(e.g. set to “on”), Pulse 2 triggers one of the digital outputs, and when deactivated,
Pulse 2 triggers the other digital output.
Fig. 3. Pulse 2 flexible datapoint switching
Multistage flexible datapointMultistage flexible datapoints allow to switch up to six physical digital outputs via
one datapoint. A typical example
stage fan. A multistage flexible datapoint provides up to six editable stage texts,
e.g., stage 1, stage 2, stage 3, etc, to be edited in CARE.
Feedback flexible datapointFeedback flexible datapoints, also called “DO feedback DI” combine up to three
pairs of digital outputs/digital inputs to form up to three-stage switching with
feedback. The digital inputs of each pair act as the feedback point. If the digital
input does not feedback the actual equipment status within a predefined time “Off
Phase”, then the software will switch down this point type until a "non-alarm" state is
reached. In extreme cases, the point may be switched to the off position. See also
“Off Phase”.
Increased support (V2.04.xx or higher) Excel 500 controllers now support up to 60 flexible datapoints. In case of Feedback
flexible points, the maximum number is 128.
Previous firmware versions supported only up to 20 flexible datapoints.
would be a multi-stage electric heater or a multi-
Pseudo Datapoints
Excel 50/100/500/600 support 256 pseudo datapoints, while Excel 800 supports
381 datapoints (consisting of a random mix of physical and pseudo datapoints)
Pseudo datapoints are values (intermediate results and parameters) computed
while the application program is running. In contrast to physical datapoints, pseudo
datapoints are not directly connected to hardware devices.
Access via the user addressDuring system operation, you may need to access these values. To simplify this
process, you can include pseudo datapoints in the datapoint list, where you can
access them directly via their user addresses. Like physical datapoints, pseudo
datapoints, too, can have different attributes; for example
manual value, set minimum and maximum values, or log trends.
The following are types of pseudo datapoints:
, they can specify a
EN2B-0092GE51 R0512 10
EXCEL 50/100/500/600/800 DATA POINTS
11
C
SYSTEM BUS
LON
• Pseudo analog points
• Pseudo digital points
• Pseudo totalizer inputs
• Pseudo point multistage
Pseudo analog pointsPseudo analog points are software points containing an analog value in the user
Pseudo digital pointsPseudo digital points are software points containing a digital value in the user
Pseudo totalizer inputsPseudo totalizer inputs are digital software points from the user program, where a
.
Pseudo point multistagePseudo point multistage datapoints are identical to flexible datapoint of the type
program. A pseudo analog point could, for example
, contain a flow temperature
setpoint calculated from the room setpoint and the outside air temperature via the
heating curve.
program.
For example, logical AND operation.
The AND operation provides a logical 1 output when all input conditions are also
logical 1. Otherwise the output is a logical 0. If the user program contains such an
AND operation on different input conditions, then the output could be available as a
pseudo digital datapoint.
totalizer counter input is recorded
"multistage" except that they allow for 16 stages (including the “off stage“) and the
attribute "Status Text" allows for 16 status texts to be attached. The attribute "Technical Address" is not required.
Global Datapoints
If your control and monitoring system contains more than one controller, the controllers communicate with one another via the system bus. Any given controller can
thus both receive (read) datapoints from other controllers and transmit datapoints to
other controllers. Such datapoints are referred to as global datapoints.
NOTE: The term “global” as used here encompasses more than just those points
explicitly labeled as “global” in the CARE engineering tool.
Global datapoints which a controller receives (reads) from other controllers are
referred to as local global datapoints, and global datapoints which a controller
transmits to other controllers are referred to as remote global datapoints.
During CARE engineering, the program engineer must take care that he does not
exceed the maximum allowed 256 global datapoints (remote and local) per
controller.
Fig. 4. Global datapoints are available to all controllers on the system bus
EN2B-0092GE51 R0512
DATAPOINTS EXCEL 50/100/500/600/800
Mapped Datapoints (V2.04.xx or higher)
With firmware version V2.04.xx or higher, those Excel 50/500 controllers which
feature free programmability on L
ONWORKS (those that contain the 3120E5 Neuron
chip, i.e. date code 0044 or higher) may have I/O devices connected via the
ONWORKS network. LONWORKS network variables (or individual fields of structured
L
network variables) can be mapped to the attribute "Value" of physical datapoints
(AI/DI/AO/DO). Pseudo analog, pseudo digital, and pseudo multistage points are
also supported for NV mapping.
Each datapoint type has associated with it various parameters which allow the user
to set, e.g., the user address, the level of access protection, alarm behavior, and
other options. These parameters are called attributes. Each attribute performs a
specific function related to the datapoint. A complete list of datapoint types and their
attributes appears in Table 17 through Table 19. Not all attributes are available for
every datapoint type.
Point refreshing (V1.5.x)Four attributes ("Value", "Manual Value", "Operating Mode", and "Alarm Status") will
be simultaneously refreshed to an XL-Online operator interface.
NOTE:A complete list of attributes associated with the various datapoint types
can be found in the section "List of Datapoint Attributes" on page 38.
Access Level
Four levels of protection The attribute "Access Level" protects datapoints against unauthorized changes on
the basis of the password level needed to modify a datapoint. "Access Level"
attributes between "1" and "4" are assigned to a point. These attributes correspond
to the four password levels found in the XI581 (not with XCL5010, Excel 100C),
XI582, and XL-Online operator interfaces and the Excel 50 MMI:
• Operator level 1: Read only.
• Operator level 2: Read and make limited changes.
• Operator level 3: Read and make changes.
• Operator level 4: Programming.
For example, setting the "Access Level" attribute for the datapoint with the user
address "room temp floor 1" to "2" means that all attributes for this datapoint can
now only be edited or modified at password level 2 or higher.
Acknowledge Alarm (V 2.04.xx or higher)
The attribute "Acknowledge Alarm" allows a controller to acknowledge an alarm for
a flexible datapoint of the type "feedback" without changing the operating mode.
The controller takes the point out of alarm as soon as a rising edge is detected on
the input of the WIA statement writing to the attribute "Acknowledge Alarm".
Fig. 5. The "Acknowledge Alarm" attribute for WIA statement
This attribute is a virtual attribute and can be accessed only by a WIA statement in
CARE. It is not part of the datapoint description and therefore cannot be displayed
on an MMI or building supervisor.
EN2B-0092GE51 R1111 13
ATTRIBUTES EXCEL 50/100/500/600/800
(NC/NO system diagram)
digital input
contact status
(NC/NO system diagram)
Active State (prior to V 2.04.x)
The attribute "Active State" defines when a digital input/output is active.
NOTE: The "Active State" attribute does not reflect the current condition of a
NOTE: This is not applicable to digital inputs in applications designed for con-
The following values are possible:
• 0 = digital input/output is active when a "logical 0 signal" is present
• 1 = digital input/output is active when a "logical 1 signal" is present
Table 3 indicates the active state for various conditions of the XF523 and XFL523
modules.
Table 3. Active state for the digital input of XF523 and XFL523 modules
digital input
contact status open closed
CARE definition
NC NO NC NO
digital datapoint.
trollers using V2.04.xx firmware or higher. In such applications, this
attribute is fixed at 1, and the new attribute "Normally Open/Normally
Closed" (NO/NC) is active (see section "Normally Open/Normally Closed
(V2.04.xx or higher)" on page 28 for more details).
definition - in XL-Online DPEditor attribute "Active State"
(change Active/Passive State
text)
CARE interpretation
(control table)
display at operator interface
(status text)
1 0 1 0 1 0 1 0
1 1 0 0 0 0 1 1
OFF/
trouble:
alarm
ON/
operating
RTN*
* RTN = Return To Normal
NOTE:XFL523 Module is applicable only for V2.0.xx software.
OFF/
trouble:
alarm
ON/
operating
RTN*
ON/
operating
RTN*
OFF/
trouble:
alarm
operating
ON/
RTN*
Active State (Excel 800)
The attribute "Active State" defines when a digital input/output is active. 1 means,
that a digital input/output is active when a "logical 1 signal" is present
NOTE: "Active State" = 0 is not allowed/possible.
NOTE: The "Active State" attribute does not reflect the current condition of a
digital datapoint.
Table 4. Active State for the digital input of XF823 and XFL823 modules
OFF/
trouble:
alarm
CARE definition
definition - in XL-Online DPEditor attribute "Active State"
(change Active/Passive State
text)
EN2B-0092GE51 R0512 14
open closed
NC NO NC NO
1 1 1 1
EXCEL 50/100/500/600/800 ATTRIBUTES
15
digital input
Alarm
Alarm
CARE interpretation
(control table)
display at operator interface
(status text)
1 0 0 1
OFF/
trouble:
alarm
* RTN = Return To Normal
OFF/
trouble:
alarm
ON/
operating
RTN*
ON/
operating
RTN*
Alarm Delay
Delaying alarm outputsThe alarm delay time (in seconds) is entered in the attribute "Alarm Delay". The
alarm delay time determines how long an alarm condition must exist before an
alarm is generated. Entering an alarm delay time of 10 seconds means that the limit
value must be exceeded for at least 10 seconds before this datapoint generates an
alarm. If the limit value lasts for only 7 second, then no alarm occurs.
Alarm Suppression
The attribute “Suppress Alarm” establishes whether or not alarm messages from
the following alarm attributes should be suppressed:
• Operational status
• Min/Max. limit
• Maintenance alarm
• Interval counter
• Alarm Status
The following entries are possible:
• Off Alarms not s uppress ed
• On Alarms suppress ed
Digital input exampleIn addition to a variety of other attributes, a digital input also has the "Operating
Suppression of system The controller will not issue a system alarm when the alarm’s system alarm text
alarms (V2.04.xx or higher) starts with an @ character.
Mode", "Alarm Status", and "Maintenance Alarm" attributes. If alarm suppression is
activated for this datapoint, then no message is displayed during an operating mode
change-over, or when changing into the alarm condition, or when reaching the
maintenance alarm.
Alarm Status (prior to V2.04.x)
Alarm monitoringIn the case of a digital input or a pseudo digital point, the attribute "Alarm Status"
EN2B-0092GE51 R0512
specifies whether or not alarm monitoring is required.
The following entries are possible:
• Yes: Alarm monitoring is required
• No: Alarm monitoring is not required
When alarm monitoring is required, the alarm message occurs when the digital
point changes from the active state to the passive state (alarm reached). An
additional message is generated (alarm going) when the digital point returns to the
active state
(see Fig. 6. Alarm status messaging)
reached
ending
ATTRIBUTES EXCEL 50/100/500/600/800
Operating Mode
Min. Limit
Interval Counter
Alarm Status
DI in
DI in
“Active State”
“Passive State”
Fig. 6. Alarm status messaging
NOTE: The active state and passive state are defined in the "Active State"
datapoint attribute.
Alarm Status (V2.04.xx o r higher)
Alarm monitoring In the case of a digital input or a pseudo digital point, the attribute "Alarm Status"
specifies whether or not alarm monitoring is required.
The following entries are possible:
• Yes: Alarm monitoring is required
• No: Alarm monitoring is not required
When alarm monitoring is required, the alarm message occurs depending on the
physical contact status and on the logical status as defined in the online attribute
“Normally Open/Normally Closed”.
Alarm Type
The attributes listed in Table 5 are capable not only of generating alarms, but also
of writing them to the internal alarm memory and sending them to the PC front-end
or to the modem module (when connected).
attribute always critical optional critical or non-critical
Max. Limit X
Maintenance
Alarm
Changing over the attribute "Operating Mode" always results in a critical alarm, but
the attribute "Alarm Type" offers a choice for the alarm attributes "Min. Limit", "Max.
Limit", "Maintenance Alarm", "Totalizer", and "Alarm Status" whether an alarm is
classified as critical or non-critical. Distinguishing between critical and non-critical
alarms is significant for the subsequent reporting of the alarms to the PC front-end
or to the modem module. Compared to non-critical alarms, critical alarms are given
priority on the bus when several alarms are in the alarm queue. When the type of
alarm for a datapoint has been decided, e.g. "critical" alarm type, it refers to all
alarm attributes for this datapoint.
Table 5. Alarm attributes
X
X
X
X
X
Alarm Definition
EN2B-0092GE51 R0512 16
EXCEL 50/100/500/600/800 ATTRIBUTES
17
In the datapoint description, the alarms can be influenced using the functions
described below (see also Table 6 on page 17).
Alarm type For each datapoint in the datapoint description, the user can determine whether the
Alarm delay An alarm signal can be delayed by entering an alarm delay time. An alarm signal
Suppress alarmIf an alarm signal is not desired from a particular datapoint, this can be fixed in the
signals generated are to be treated as critical or non-critical alarm.
will be generated only if an alarm continues uninterrupted during the alarm delay
time.
datapoint description. Thus, all the alarm signals relevant to the particular datapoint
and the "Operating Mode" alarm types are suppressed.
Fig. 7. Alarm condition depending on point value and Suppress Alarm status
Fig. 7
shows an example of a changing point value that rises above and falls below
the limit Max 2. If Suppress Alarm is not active, then the alarm c ondition s witches
between normal to alarm, according to the limit Max 2. If Suppress Alarm is active,
then the alarm condition remains normal unless Suppress Alarm is switched off
before the point value falls below the limit Max 2. Regardless of the setting of the
Alarm suppression flag, an alarm is entered into the controller's history buffer and is
also available in the EBI alarm report.
Point alarmIt is possible to view all datapoints at the operator interfaces for which the limit
value (analog point) or the alarm status (digital point) is currently exceeded.
Driven by a menu, the user address and the accompanying alarm text are displayed
on the XI581 (not with XCL5010, Excel 100C) or XI582 operator interfaces or Excel
50 MMI.
On the XL-Online operator interface, a datapoint within the framework of the
datapoint description can be seen in all four password levels. If a current alarm is
present for the point in question, the attribute “Point in Alarm” produces the display
“Yes”, otherwise “No”.
Within the framework of the datapoint description, it is possible, under the attribute
“Alarm text”, to enter an alarm text of up to 18 characters in addition to the preprogrammed text. There are 256 alarm texts in total.
Table 6 presents a summary of various alarm types and attributes.
Table 6. Alarm summary
alarm type/attributes alarm status
enter alarm
delay time
alarm
suppression
point in
alarm
no. of preprogrammed texts
supplementary
text
Limit Values selection in DPD* possible possible X 8 possible
Alarm Status selection in DPD* possible possible X 2 possible
Maintenance Alarm selection in DPD* - possible - 1 Totalizer selection in DPD* - possible - 1 Operating Mode always critical - possible - 2 System Alarms always critical - - - approx. 110 -
EN2B-0092GE51 R0512
ATTRIBUTES EXCEL 50/100/500/600/800
delay time
suppression
alarm
grammed texts
text
alarm type/attributes alarm status
user program reports always non-critical - - - - *DPD = datapoint description
enter alarm
NOTE: A point is still seen as “in alarm” even when alarm suppression is
enabled.
The attribute "Cycle Count" contains the value indicating the number of transitions
to the active state (see "Active State (prior to V2.04.x)" on page 14).
alarm
point in
no. of prepro-
Delay Time Switching Up
This attribute is used in conjunction with flexible points of the type "feedback". It
defines the delay time between switching upwards from one stage to another. The
delay time affects every stage. The delay time also takes effect when switching, e.g.
from manual value 0 to 2. In this case, it is switched from stage 0 to stage 1, then to
stage 2 with the delay time between the switching processes.
Range: 0 to 255s
Default value: 10s
Resolution: 1s
supplementary
Cycle Count
Fig. 8. Delay time switching up
Delay Time Switching Down
This attribute is used in conjunction with flexible points of the type "feedback". It
defines the delay time between switching downwards from one stage to another.
The delay time affects every stage.
Range: 0 to 255s
Default value: 10s
Resolution: 1s
The feedback delay time starts to count after termination of delay time switching
up/delay time switching down.
EN2B-0092GE51 R0512 18
EXCEL 50/100/500/600/800 ATTRIBUTES
19
Fig. 9. Delay time switching down
Descriptors
Informative descriptorsA controller contains up to 128 physical datapoints and up to 256 pseudo
datapoints. The Excel 100C provides 36 physical datapoints. An individual user
address can be assigned to each of these 384 datapoints. 255 plain-language
descriptors can be created with a maximum of 32 characters each. These
descriptors are then assigned to datapoints in the datapoint description via the
attribute "Descriptor". Descriptors complete the information concealed behind the
user address. They can contain, for instance, a reference to a section of a building.
The following list is an example of the relationship between user addresses and
descriptors:
User Address Descriptor
Room temp floor 1 Heating circuit, West wing
Room temp floor 3 Heating circuit, West wing
Room temp floor 10 Heating circuit, East
Room temp corridor Heating circuit, East
Flow temp floor 1 Heating circuit, West wing
Lights floor 1 Building section V
Lights corridor Building section V
Engineering Unit
The attribute "Engineering Unit" contains a list for selecting different engineering
units for both analog datapoints (physical and pseudo), totalizer inputs (physical
and pseudo), and digital datapoints.
If, for instance, the external temperature is measured by an analog datapoint, the
engineering unit of this datapoint must be set to "°C" or "°F". If the electrical load is
detected by a totalizer input, the engineering unit must be set to "kWh" for kilowatthours.
Feedback Delay
The attribute "Feedback Delay" determines the time delay between, e.g. when a
pump switched on (and detected) and when this status is made available to a
program.
High/Low Alarm/Warning Limits
Specifying limit valuesIn the case of analog inputs (e.g. inputs for sensing room temperature) and pseudo
analog points (for instance, internally computed datapoints for the heating flow
setpoint), two minimum and two maximum monitored limit values may be entered.
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The following four limit value attributes exist:
• Low Warning Limit
• Low Alarm Limit
• High Warning Limit
• High Alarm Limit
Example: Monitoring supply air temperature limits (see Fig. 10).
Exceeding the limi t values generates an alarm.
Fig. 10. Monitoring supply air temperature limits
Hours Run
Display of elapsed hours The attribute "Hours Run" returns the total number of hours during which any of the
stages is in the ON position. However, if more than one stage is in the ON position,
the "Hours Run" count is not added up, but rather counted only once. Display of the
elapsed hours run with activated hours run logging (see also "Hours Run Log" on
page 20).
NOTE:If the attribute "Active State" of the point is 0, then the OFF position is
also counted.
Hours Run Log
Hours run logAn hours run log can be carried out for digital datapoints (physical and pseudo) and
for flexible datapoints, e.g. logging the hours run by a heating circuit pump. This
requires the decision: hours run log = Yes/No to be made in the attribute "Hours
Run Log". The accumulated hours run are displayed in the attribute “Hours Run”.
Hours run are logged with a sample rate of 1 minute.
Hours Since Serviced
Display hour s run since last maintenance The elapsed hours run since the last maintenance work are totaled in the attribute
"Last Maintained". If, for example
has already been running for 120 hours, then the entry in the attribute “Last
EN2B-0092GE51 R0512 20
, the maintenance alarm is 500 hours, and a pump
EXCEL 50/100/500/600/800 ATTRIBUTES
21
maintained” will be 120 hours. By comparing the attributes "Maintenance Alarm"
and "Last Maintained", the user can see that the next maintenance period will be
after an additional 380 hours have elapsed. If the maintenance alarm is reached,
and the maintenance work has been performed, the counter can be reset manually.
The counter can also be reset manually before reaching the maintenance alarm if,
for instance, the maintenance has been performed earlier. If the counter is not
reset, on expiration of the maintenance alarm, e.g. after 500 hours, the elapsed
hours run continues to be incremented, and an additional alarm will be generated
when 1000 hours running has been reached.
Hysteresis
The following hysteresis attributes allow the user to control the triggering conditions
based on a changing parameter under which actions are taken, such as alarm
signaling, writing values to buffers, etc. A hysteresis can be used, e.g., to prevent
an alarm from being generated unless the value being monitored changes by more
than a given value. This eliminates unnecessary alarm generation and reduces bus
communication traffic.
Alarm Hysteresis
Alarm hysteresis (V1.5.x) In the case of analog inputs and pseudo analog points, the attribute "Alarm
Hysteresis" is available. It provides variable hysteresis that can be implemented,
e.g., in order to reduce the cost of communicating with a remote front-end. The
hysteresis value is set from an MMI and can have a value anywhere in the range
defined by [10
the attribute "Engineering Unit". The minimum value for the hysteresis is 10
Alarms are generated under the following conditions:
• Max 1 Alarm (generated if MAX 1 is exceeded)
• Max 2 Alarm (generated if MAX 2 is exceeded)
• Max 2 Normal (generated if the value falls below MAX 2-Hysteresis)
• Max 1 Normal (generated if the value falls below MAX 1-Hysteresis)
• Min 1 Alarm (generated if the value falls below MIN 1)
• Min 2 Alarm (generated if the value falls below MIN 2)
• Min 2 Normal (generated if the value MIN 2+Hysteresis is exceeded)
• Min 1 Normal (generated if the value MIN 1+Hysteresis is exceeded)
The CARE default value (i.e. 1% of actual value and no less than 0.2) for this
attribute is 0. Access to "Alarm Hysteresis" is also possible via RIA/WIA.
NOTE: The number of decimal places can be changed only using CARE.
NOTE: Attempting to enter a hysteresis value that is less than the allowed
Example:
In this example, the number of decimal places in the attribute "Engineering Unit"
has been chosen to have a value of 2. Fig. 11
as a function of time that increases and decreases over the range from Max 1 to
Min 1.
-a
to (Max1 - Min1)] where “a” is the number of decimal places set in
minimum will result in the attribute being assigned the minimum value as
defined above.
shows an example datapoint value
-a
.
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ATTRIBUTES EXCEL 50/100/500/600/800
Fig. 11. Example of alarm hysteresis
The “normal” and “alarm” states as defined by the attribute "Alarm Hysteresis" are
the determined using the appropriate values in the formula given above:
Range = [10
-2
to (Max1 -Min1)] = [0.01 to 2]
Table 7 lists the resulting alarm conditions for the chosen hysteresis value of 0.05:
Table 7. Alarm conditions for alarm hysteresis
limit normal to alarm condition alarm to normal condition
Max 1 4.00 4.00 - 0.05 = 3.95
Max 2 5.00 5.00 - 0.05 = 4.95
Min 1 2.00 2.00 + 0.05 = 2.05
Min 2 0.5 0.5 + 0.05 = 0.55
Trend Hysteresis
Trend hysteresis (V1.5.x)The attribute "Trend Hysteresis" is available for the trend functions “Local Trend
Data” and “Trend Setup Data”. The attribute "Trend Hysteresis" prevents new
values from being written to the trend buffer unless the datapoint value changes
(positively or negatively) at more than the specified trend hysteresis. The minimum
hysteresis value is 10
-a
(a = number of decimal places set in the attribute
"Engineering Unit"). The CARE default value (i.e. 1% of actual value and no less
than 0.2) for this attribute is 0. Access to "Trend Hysteresis" is also possible via
RIA/WIA.
This value can be edited from an operator interface (XI581 (not with XCL5010,
Excel 100C), XI582, XL-Online, or Excel 50 MMI) via the B port (XC5010C/XC6010)
or the serial port, the system bus (XBS 1.3.3 and higher and XFI 1.6.1 and higher)
and CARE RIA/WIA statements. The password level for this attribute is determined
by the attribute "Access" (default initialization value in CARE is 0).
Fig. 12. Example of the attribute "Trend Hysteresis"
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MIN LIMIT
MAX LIMIT
Broadcast Hysteresis
Broadcast hysteresis (V1.5.x) The attribute "Broadcast Hysteresis" is available for the datapoint type "Global
Analog". The attribute "Broadcast Hysteresis" prevents new values from being
broadcast to other controllers unless the datapoint value changes (positively or
negatively) at least by the amount specified in the attribute "Broadcast Hysteresis".
The minimum hysteresis value is 10
attribute "Engineering Unit"), but not smaller than 0.2 (see also the example
section "
value and no less than 0.2) for this attribute is 0. Access to the attribute "Alarm
Hysteresis" is also possible via RIA/WIA.
This value can be edited from an operator interface (XI581 [not with XCL5010,
Excel 100C], XI582, XL-Online, and Excel 50 MMI) via the B port (XC5010C /
XC6010) or the serial port (Excel 100C, Excel 500), the system bus (XBS 1.3.3 and
higher and XFI 1.6.1 and higher), and CARE RIA/WIA statements. The password
level for this attribute is determined by the "Access" attribute (default initialization
value in CARE is 0). If several global points (remote points) are assigned to the
same physical point, the lowest global point "Broadcast Hysteresis" value of all
assigned global points is used.
Value Hysteresis" on page 35). The CARE default value (i.e. 1% of actual
-a
(a = number of decimal places set in the
in
Intrinsic Hysteresis for Analog Input Signals
A minimum default hysteresis of 37 mV (24 - 1 bit) for 0 to 10 V input signals is
implemented. Due to the nonlinearity of NTC sensors, the hysteresis varies over the
temperature range, whereas it is approximately constant for PT 100/1000/3000 and
Balco 500 sensors. Approximations of hysteresis depending on the sensor and
temperature range are summarized below.
NOTEThe Intrinsic Hysteresis for analog input signals is not a user-
NTC 20k ΩHysteresis varies nonlinearly over the entire temperature range and depending on
whether the upper boundary (MAX LIMIT) or the lower boundary (MIN LIMIT) is
exceeded. The approximations shown in
(intermediate values can be interpolated):
temperature range
programmable attribute, but rather an intrinsic hysteresis of the Excel
50/100/500/600/800.
Table 8 can be used in practice
Table 8. Intrinsic hysteresis values for various temperature ranges
average hysteresis
average hysteresis
-40 °C (-40 °F) 2.2 K (4.0 °F) 2.5 K (4.5 °F)
-30 °C (-22 °F) 1.3 K (2.3 °F) 1.3 K (2.3 °F)
0 °C (32 °F) 0.4 K (0.7 °F) 0.4 K (0.7 °F)
40 °C(104 °F) 0.5 K (0.9 °F) 0.4 K (0.7 °F)
80 °C (40 °F) 1.5 K (2.7 °F) 1.5 K (2.7 °F)
100 °C (212 °F) 3.0 K (5.4 °F) 2.7 K (4.9 °F)
130 °C (266 °F) 8.5 K (15.3 °F) 7.2 K (13.0 °F)
PT 100 (not with Excel 100C)Hysteresis increases approx. linearly with temperature.
PT 1000/1Hysteresis increases approx. linearly with temperature.
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Average hysteresis: 0.75 K (1.35 °F)
Hyst. At -45 °C (-49 °F): 0.7 K (1.3 °F)
Hyst. At 145 °C (293 °F): 0.8 K (1.4 °F)
Average hysteresis: 0.8 K (1.4 °F)
Hyst. At -45 °C (-49 °F): 0.7 K (1.3 °F)
Hyst. At 145 °C (293 °F): 0.9 K (1.6 °F)
ATTRIBUTES EXCEL 50/100/500/600/800
Input/Output Status
Active State (prior to V.2.04.x)
Status Text
PT 1000/2Hysteresis increases approx. linearly with temperature.
PT 3000 (not with Excel 100C)Hysteresis increases approx. linearly with temperature.
Balco 500 (not with Excel 100C)Hysteresis decreases approx. linearly with temperature.
Average hysteresis: 1.6 K (2.9 °F)
Hyst. At 0 °C (32 °F): 1.3 K (2.3 °F)
Hyst. At 400 °C (752 °F): 2.0 K (3.6 °F)
Average hysteresis: 0.8 K (1.4 °F)
Hyst. At -45 °C (-49 °F): 0.7 K (1.3 °F)
Hyst. At 145 °C (293 °F): 1.0 K (1.8 °F)
Average hysteresis: 0.9 K (1.6 °F)
Hyst. At -50 °C (-49 °F): 1.0 K (1.8 °F)
Hyst. At 150 °C (293 °F): 0.7 K (1.3 °F)
Input/Output Status Text (prior to V2.04.xx)
2 status texts per digital data outputTwo status texts can be assigned to each digital datapoint status. Status texts give
an overview of the condition of the sensor or switching device c onnected to the
datapoint.
The associated status text appears in the attribute "Value" depending on the actual
point status.
For instance, the status texts could be as follows for a point connected to a digital
output:
Digital point status 0: Status Text: "Passive”
Digital point status 1: Status Text: "Active”
Table 9. Relationships between I/O Status, Active State, and Status Text
0 0 active
0 1 passive
1 0 passive
1 1 active
Status Text with flexible datapoints The attribute "Status Text" allows you to describe the value sent to the controller by
the digital output Pulse 1 and by flexible datapoints. In the case of flexible
datapoints of the type "feedback", the status text refers to the value of the feedback
flexible datapoint and not to the required value.
Input/Output Status Text (V2.04.xx or higher)
With firmware 2.04.xx or higher, the relationship between physical output status and
logical output status as defined by the attribute "Normally Open/Normally Closed"
determines the display of the equivalent status text. See section "Normally
Open/Normally Closed (V2.04.xx or higher)" on page 28 for details.
Interval Count
Interval count The attribute "Interval Count" shows the totalizer value (pulse x scaling factor)
Displaying the interval count The attribute "Interval Count" can be viewed on the XI581, XI582, and Excel 50 MMI
accumulated since the last reset.
operating units as well as via the XL-Online Operating Software and building
Supervisor front-ends like XBS, EBI and XFI. Based on mathematical rounding, it is
EN2B-0092GE51 R0512 24
EXCEL 50/100/500/600/800 ATTRIBUTES
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possible that not every value is displayed when high frequency values with high
scaling factors are received.
Resetting the interval count Resetting takes place either manually via an operating unit, by reaching the
Totalizer overflow When the “Interval Limit” or the “totalized” constant is reached, a “Totalizer
“Interval Limit” value, or by reaching the “totalized” constant, which is 2 to the power
of 31.
Overflow” system alarm is created.
Interval Limit
The attribute “Interval Limit” is that value of the "Interval Count" attribute which,
when reached, will generate a “Totalizer Overflow” alarm. The highest possible
value for the attribute "Interval Count" is 99,999,999.
Electrical energy example A message should be generated after the “consumption” of 5 MWh of electrical
power. The input in the attribute “Interval Limit” must therefore be 5 MWh.
Once the interval count reaches its reporting level of 5 MWh, then a report is
generated, the interval count is reset to “Zero”, and a new totalizing period is
started.
I/O Characteristic
The attribute "I/O Characteristic" enables the user to display special input and output characteristics (see Fig. 13) for analog inputs/outputs. Special characteristics
permit, for instance, the adaptation of Excel 50/100/500/600/800 to many different
sensor types. Ten individual input/output characteristics are available per
Excel 50/100/500/600/800 controller.
Each special characteristic is assigned a name that can be recalled from the
attribute "I/O Characteristic". Thus, the desired characteristic can be assigned to
the selected datapoint.
Fig. 13. Example of a special output characteristic
Creation of characteristics is carried out at programming level. Up to a maximum of
four reference points can be specified per characteristic. Up to ten different
characteristics can be defined for each controller.
For XFL and XFC I/O modules, user-defined characteristics are supported from
CARE 5.0 and controller firmware 2.06.05 onwards.
CAUTION
Regarding I/O characteristic, the behavior of controllers with OS < 2.06.05
engineered using CARE 4 differs significantly from controllers with OS
2.06.05 and higher engineered using CARE 7 and higher. See also section
“Controller OS 2.06 usage and functionality in CARE 4 and CARE – XL500
7.01.02” in Excel CARE – User Guide (EN2B-0182GE51).
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ATTRIBUTES EXCEL 50/100/500/600/800
pull-up
load-free voltage
(1
controller firmware ≥ 2.03;
When using the XF821A/XFL821A for current inputs, be sure to assign "@" as the first digit of the input characteristic name.
Assigning "@" as first digit of input characteristic name (e.g.: "@0-10V") in the CARE text editor disables the pull-up resistor.
Fig. 14. Input circuit diagram
Last Change
In the attribute "Last Change", the last change of state of a digital input/output is
stored with the time and date.
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In this way it is possible to determine the last switch-on point of a fan, pump, etc.
connected via a digital output.
In the case of analog inputs and pseudo analog points, the last time an alarm limit
occurred is stored.
LED Mode (XF823x, XFL823x, and XFx830x modules)
The XF823x Panel Bus Binary Input Module, the XFL823x Lonworks Bus Binary
Input Module, and the XF830x / XFU830x modules support the “LED Mode”
attribute, which can be set in the CARE datapoint editor. The following attribute
options are provided:
• “Alarm” LEDs will be red/green (red = alarm state, not XF830x / XFU830x modules)
• “Status” LEDs will be yellow/off (yellow = active state)
NOTE: XF830x / XFU830x modules do not support the Alarm option. Hence, do
NOTE: When the XFL823x L
not assign this attribute to datapoints allocated to one of these modules.
non-Excel 800 controllers, the LED mode can only be set in the
ONWORKS NV settings in CARE, and not in the CARE datapoint editor.
L
ONWORKS Bus Binary Input Module is used with
Maintenance Alarm
Specifying a maintenance alarm In the case of those datapoints for which an hours run log has been activated, a
time entry can occur within the attribute "Maintenance Alarm" to indicate after how
many operational hours an alarm message should be generated. Entering “Zero”
results in no alarm message.
Example:
Maintenance should be carried out every 500 hours on the heating circuit pump
controlled via a digital output. To achieve this, a time interval duration of 500 hours
is entered in the attribute "Maintenance Alarm" for this datapoint. At the same time,
activation of the hours run log must also take place in the attribute “Hours Run log”
for this datapoint. An alarm message now occurs after 500 hours, to bring to the
operator’s attention the necessary pump maintenance.
Manual Value
When the attribute "Operating Mode" is set to "Manual", the operator can enter a
manual value or state, and the application program will work with this manual value
or state until the operating mode is set back to “Automatic”.
Fig. 15. Example of a sensor input
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ATTRIBUTES EXCEL 50/100/500/600/800
output signal
NO/NC attribute
logical status
text displayed
In Fig. 15, the attribute "Operating Mode" is set to "Manual", i.e. the value entered
manually is processed in the application program.
NOTE:
“Value” and “Manual Value” are online attributes, relevant only during controller
operation via MMI or XL-Online. Furthermore, “Manual Value” is an internal online
attribute only, not visible to the operator! The operator will see only the online
attribute “value”, which can be edited only if the attribute "Operating Mode" is set to
"Manual". See also section "Operating Mode" on page 29.
Network Variable (V2. 04.xx or higher)
Datapoints which are mapped to network variables on the LONWORKS network have
an attribute named "Network Variable" containing the network variable index (0-
4095) and the network variable name which allows this information to be displayed
on an MMI.
Normally Open/Normally Closed (V2.04.xx or higher)
The attribute "Normally Open/Normally Closed" defines the relationship between
the input/output signal of a digital datapoint and its logical status. This attribute is
also applicable when the digital point is the basic point of a flexible datapoint.
NOTE:The attribute "Active State" is fixed at 1 and is no longer relevant for
Table 11 and Table 12 show the relationship between the I/O signals, the attributes,
and the logical status for digital inputs and digital outputs, respectively.
Table 11. The attribute " Normally Open/Normally Closed " – Digital Inputs
Table 12. The attribute " Normally Open/Normally Closed " – Digital Outputs
applications designed for this controller firmware version. Applications
designed for an older controller version will still work with this firmware
though, and in that case the attribute "Active State" is still active.
input signal NO/NC attribute logical status text displayed
Low (<2.5 V) N.O. 0 passive
High (>5 V) N.O. 1 active
Low (<2.5 V) N.C. 1 active
High (>5 V) N.C. 0 passive
Low (<2.5 V) N.O. 0 passive
High (>5 V) N.O. 1 active
Low (<2.5 V) N.C. 1 active
High (>5 V) N.C. 0 passive
In the open LON mode, the "Normally Open/Normally Closed" functionality is
supported from CARE 5.0 and controller firmware 2.06.05 onwards.
CAUTION
Regarding “Normally Open/Normally Closed,” the behavior of controllers
with OS < 2.06.05 engineered using CARE 4 differs significantly from
controllers with OS 2.06.05 and higher engineered using CARE 7 and
higher. See also section “Controller OS 2.06 usage and functionality in
CARE 4 and CARE – XL500 7.01.02” in Excel CARE – User Guide (EN2B-
EN2B-0092GE51 R0512 28
0182GE51).
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Motor Run Time
Time to open / time to closeFor actuators controlled via a three-position output, two values (time to open / time
to close) can be entered in the attribute “Motor Run Time”. This attribute defines the
time required by the actuator to change from the “Open” to the “Closed” state, and
vice versa.
If no value is entered for the “Time to Closed” motor run time, then the “Time to
Open” motor run time is assumed automatically. In the case of the motor run-on
time, when reversing directions, 1% of the “Time to Open” motor run time is added
to the calculated time.
The three-position output relay energizes when the calculated run time reaches
500 ms. The stated run time always amounts to 500 ms or a multiple thereof. A
calculated run time of, for instance, 1215 ms results in an actual run time of
1000 ms.
CAUTION
Regarding motor run time, the behavior of controllers with OS < 2.06.05
engineered using CARE 4 differs significantly from controllers with OS
2.06.05 and higher engineered using CARE 7 and higher. See also section
“Controller OS 2.06 usage and functionality in CARE 4 and CARE – XL500
7.01.02” in Excel CARE – User Guide (EN2B-0182GE51).
Off Phase
Fig. 16. Off phase
The attribute "Off Phase" is used in conjunction with flexible datapoints of the type
"feedback". It defines the duration of the OFF phase on switching down. It is of
relevance only if the attribute “Switching Down” is set to 0, i.e. if OFF phases are
selected on switching down.
• Range: 0 to 255s
• Default value: 10s
• Resolution: 1s
The OFF phase has to be defined for devices with large inertia, such as fans.
Operating Mode
The attribute "Operating Mode" enables the user to switch between manual and
automatic operation.
AutomaticUnder automatic operation, the controller processes the values at the inputs, for
EN2B-0092GE51 R0512
instance from temperature sensors. For outputs, under automatic operation, the
status shown by the user/time switch program is adopted, e.g., "Heating circuit
pump off".
ATTRIBUTES EXCEL 50/100/500/600/800
mode
mode
operating mode
automatic value*
resulting value
output signal
ManualDuring manual operation, the controller uses the manual values, for example, "flow
temperature setpoint = 60°C". Outputs adopt the preselected condition, for
example
, "Heating circuit pump on".
Automatic/Manual AlarmFor automatic operation, the attribute "Operating Mode" contains the inputs "Auto"
and "Manual". Each switch from automatic to manual operation and back again
generates a critical alarm.
Remote (V2.0.x) (not Excel 100C)If manual override controls are present on either the Analog Output (XFL522) or
Digital Output (XFL524) modules connected via a L
ONWORKS network, then the
status of these controls (automatic/manual override) is stored in the attribute
"Operating Mode". If the manual override controls are set to automatic, the attribute
"Operating Mode" can be set to either automatic or manual. If the manual override
controls are set to manual override, then the attribute "Operating Mode" can be in
the remote mode, only.
Fig. 17 and Fig. 18 demonstrate the relationship between the attribute "Operating
Mode", and both the attributes "Value" and "Manual Value" for input and output
functions.
Fig. 17. Control flow for input functions
Fig. 18. Control flow for output functions
NOTE: The attribute "Remote" is available only if Manual Override modules are
installed on the Distributed I/O output modules. This attribute is therefore
not applicable to Excel 50/100/600.
Analog Points Table 13 indicates the analog point signals depending on the attribute "Operating
Mode":
Table 13. Analog point signals
auto operating
manual operating
remote**
20% don’t care don't care
manual value don't care 10% don't care
remote value don't care don't care 50%
20% 10% 50%
2 V 1 V 5 V
* Automatic value is either the physical point value (inputs) or the value from the
program (outputs)
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manual Value
remote value
*Automatic value is either the physical point value (inputs) of the value from the
**Output only (V2.0.x)
** Output only (V2.0.x)
Digital pointsTable 14 indicates the digital point signals depending on the attribute "Operating
Mode":
automatic value* ONdon’t care don’t care
resulting Value ON OFF ON
output signal HIGH LOW HIGH
program (outputs)
Table 14. Digital point signals
auto operating
mode
don’t care OFF don’t care
n/a n/a ON
manual operating
mode
remote**
operating mode
Alarming The change from the 'automatic' to the 'manual' mode will create a point alarm if
Firmware prior to V.2.04.x With controller firmware prior to V.2.04.xx, the alarm will report the status of the
Firmware V.2.04.x Beginning with controller firmware V.2.04.x, the alarm will report the status of the
other alarm conditions are set accordingly.
operating mode as it was before the change.
operating mode as it is after the change.
Output Type
Three-position outputs are digital outputs. From an operational viewpoint, they are
assigned the same datapoint description as analog outputs, i.e. a three-position
output possesses attributes similar to those of an analog output.
Analog or 3-position outputThe attribute "Output Type" determines whether the analog output datapoint
description should be assigned to an analog output or to a three-position output.
The following inputs are possible:
• Continuous The analog output datapoint description is assigned to an analog output.
• Three-position The analog output datapoint description is assigned to a three-position output.
• Remote three-position Output to the Excel 100 MCE 3 and MCD 3 output
modules.
Subtype
The attribute "Subtype" is used in conjunction with digital outputs and flexible
datapoints. It determines whether the digital output is of the non-pulsed type.
The attribute "Point in Alarm" refers to alarm messages from the alarm attributes
"Min. Limit", "Max. Limit", and "Alarm Status".
The attribute "Point in Alarm" indicates whether or not those datapoints using these
attributes are currently in alarm.
The following entries are possible:
• Yes = the chosen datapoint is in alarm
• No = the chosen datapoint is not in alarm
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Point Alarms
ATTRIBUTES EXCEL 50/100/500/600/800
• As soon as an alarm occurs (e.g. through exceeding a limit value), the attribute
"Point in Alarm" is set to "Yes". The attribute is immediately set back to "No"
when the limit value returns to normal.
Pulse Duration
The attribute "Pulse Duration" is used for the pulsed subtypes of the digital output
(i.e. "Pulse 1") and flexible datapoints of the type "Pulse 2". It defines the duration
between coming and going edge of a pulsed signal. The values for this attribute can
vary from 1 to 255 seconds; the resolution is 1 second. The default value is 1
second.
NOTE:After a power failure or disconnection of the controller, the “Pulse 1” and
“Pulse 2” outputs will resume their last output pulse behavior before the
outage.
Safety Position (XFx822x, XFx824x, and XFx830x modules)
The analog output modules XF822x/XFL822x/XFLR822x, the relay output modules
XFL824x/XFL824x/XFLR824x and the mixed I/O modules XF830x/XFU830x support
the “Safety Position” attribute, which can be set in the CARE datapoint editor.
The modules will put the outputs into the safety position as soon as communication
with the Excel 800 CPU is lost.
The XF822x/XF824x modules detect this lost communication once no more polls
are received from the Excel 800 CPU for more than one second.
The XFL822x/XFL824x and XF830x/XFU830x modules detect this lost
communication once no more polls are received from the Excel 800 CPU within the
heartbeat time of the module.
XF822x/XFL822x –”The following attribute options are provided:
• “0%” equals 0 Vdc or 2 Vdc (0…11 Vdc or 2…11 Vdc characteristic)
• “50%” equals 5 Vdc or 6 Vdc (0…11 Vdc or 2…11 Vdc characteristic)
• “100%” equals 10 Vdc
• “Remain in last position” (this is the default setting).
XF824x/XFL824x and XF830x/XFU830x –”The following attribute options are
provided:
• “Off (logical)”
• “On (logical)”
• “Remain in last position” (this is the default setting).
NOTE:When the XFL822x/XFLR822x and XFL824x/XFLR824x modules are
used with non-Excel 800 controllers, the Safety Position can only be set
ONWORKS NV settings in CARE, and not in the CARE datapoint
in the L
editor.
Scaling Factor
Input pulses from utility meters (gas, water, heat, etc.) can be connected to the
totalizer inputs using the attribute "Scaling Factor". The pulses supplied by the
meters are multiplied by the scaling factor and are then ready to be read as pure
consumption values. The "Scaling Factor" thus always indicates the value of each
pulse received. The adjustable range is 0.0 through 100,000,000.0,
Example: A heat meter supplies 10 pulses per kW h "consumed". Accordingly, the scaling
EN2B-0092GE51 R0512 32
The number of decimal places depends on the selected engineering unit.
factor (= value of a pulse) is 0.1 kWh/pulse.
EXCEL 50/100/500/600/800 ATTRIBUTES
33
Pseudo totalizers:In the event that you have selected the datapoint type "pseudo totalizer inputs," you
must set the attribute "Scaling Factor" to "1"; otherwise, the number of pseudo
totalizer inputs will not be counted.
Sensor Offset
The attribute “Sensor Offset” is designed for the compensation of the resistance of
the sensor wiring for low-resistance sensors, like Pt 100, Pt 1000, Balco 500.
The voltage offset due to the wire resistance is approximately constant, the attribute
“Sensor Offset” functionality has therefore been designed to compensate constant
voltage offsets at the analog input.
Function principleThe principle is that the attribute “Sensor Offset” can be defined at a selected tem-
perature, e.g., 1 °C at 20 °C. The Excel controller processes this temperature offset
into a voltage offset, e.g., -0.11 V, and applies this very voltage offset for correcting
(offsetting) all voltages measured.
In order to display a temperature, the controller processes the resulting voltage
back into a temperature. This principle and the processing (including mathematical
rounding) from “°C” into “volt” and back into “°C” leads to slightly inconstant offsets
across the temperature range.
Example for a selected “Sensor Offset” of 1°C:
Measured Temperature Corrected Temperature
20°C 19°C
-10°C -8,4°C
For XFL and XFC I/O modules, "Sensor Offset" functionality is supported from
CARE 5.0 and controller firmware 2.06.05 onwards.
CAUTION
Regarding sensor offset, the behavior of controllers with OS < 2.06.05
engineered using CARE 4 differs significantly from controllers with OS
2.06.05 and higher engineered using CARE 7 and higher.
For example, for XL50 internal AI and XL500 internal AI (XF521/527
modules), the sensor offset is subtracted from the datapoint value.
For XL50 and XL800 controllers using XF821 modules, the sensor offset is
added to the datapoint value.
See also section “Sensor Offset Handling” in Excel CARE – User Guide
(EN2B-0182GE51).
Suppress Point
The attribute "Suppress Point" means that datapoints are no longer processed and
checked. As a result, no alarms are generated for suppressed points. Where you
have flexible datapoints, this attribute acts upon all basic types of physical
datapoints.
IMPORTANT
Never suppress a datapoint used via your application program. This
causes system failure.
Switching Down
The attribute "Switching Down" is used in conjunction with flexible datapoints of the
type "feedback". On switching down from one stage to another, it determines
EN2B-0092GE51 R0512
ATTRIBUTES EXCEL 50/100/500/600/800
020401
Input/output number
Controller number (set via MMI)
Module number (set via address swi tch on each I/O module)
whether the off-phase is selected between the single stages, e.g., for ventilators, or
whether the next lower stage is selected directly, e.g., for electrical air heaters.
Switching down Switching down behavior
0 3, OFF, 2, OFF, 1, OFF
1 3, 2 , 1
Switch-On Counter
Record switching frequencyThe attribute "Switch-On Counter" gives information about the switching frequency
of digital datapoints. The change of state from 0 to 1 is counted in each case.
Technical Address
Technical addressAn Excel 500/600 controller consists of 16 Distributed input/output modules with a
Mapped points (V2.04.xx or higher)Datapoints that are mapped only to L
total of 128 physical inputs and outputs. The Excel 100C provides 36 physic al I/Os
(see Excel 100C Installation Instructions, form no. EN1R-0144GE51, for technical
addresses). Where a system requires additional inputs and outputs, several controllers can be connected together. Controllers then communicate with one another
via the system bus.
Each physical datapoint within the system must have an address that identifies the
point uniquely. The technical address contains information about the controller
number, the I/O module number, and also the input/output number in this module
(see Fig. 19).
Fig. 19. Example of a technical address
Thus, the address 02.04.01 uniquely identifies the first input/output in the fourth
module of the second controller in your system.
NOTE:The Excel 50 controller does not have I/O modules, but its technical
addresses follow the same pattern, with module numbers referring to
internal I/O boards. For details, see the Excel 50 Installation Instructions.
ONWORKS network variables are not assigned
to any I/O board. In this case, the board number (module number) of the technical
address is zero.
EN2B-0092GE51 R0512 34
Trend Logging
Up to 20 datapoints (all datapoint types, except for global datapoints) in each
controller can be trend logged simultaneously. This means changes in the input or
output value can be stored with the user address, value (or status), date, and time
for 20 different datapoints. This is achieved by selecting the attribute "Trend
Logging" to YES in the datapoint description.
For analog values (see Fig. 20), the value, e.g., 20 °C / 68 °F, is displayed in
addition to the user address, date, and time. For digital values (see Fig. 21), the
status text, e.g., "On", is displayed in addition to the user address, date, and time.
EXCEL 50/100/500/600/800 ATTRIBUTES
35
Fig. 20. Trend log display (analog input)
Fig. 21. Trend log display (digital input)
200 values can be written to the local trend log memory. If the memory is full, the
earliest data is overwritten with new data. The 200 most up-to-date values are
always available in the memory.
If several datapoints are selected for the trend log, those datapoints whose value or
status changes more frequently will create a larger number of values to be logged.
Each change in status is logged for digital points. For analog points, there are two
different types of trending: value hysteresis and time-based. The datapoint
attributes for each of these types of trending are described below.
Value Hysteresis
When value hysteresis trending is selected (i.e. when the attribute "Trend Cycle" is
set to 0), a new value is written to the memory when the point changes more than
the given hysteresis compared to the previous value.
The default hysteresis value is 1% of the actual value, but not less than 0.2 (see
also section "Trend Hysteresis" on page 22).
Example 1: The current measured value is 20°C
1 % of 20°C = 0.2°C
A new trend log value is stored at either 20.2°C or 19.8°C
Example 2: The current measured value is 9°C
A new trend log value is stored at either 9.2°C or 8.8°C
The trend can be displayed as text and as a graphic. The graphic display offers the
following features:
• Simultaneous display of an analog and a digital datapoint
• Auto-scaling of the time and the value axis
• Scrolling the time axis
• Manual re-scaling of the time axis (ZOOM/UNZOOM function) with possible
resolutions:
- minute display
- hourly display
- daily display
- weekly display
• Quick change between graphic and text display
Trend Cycle (V2.03.x)
With V2.03.xx firmware, it is possible to perform time-based trending for physical
and pseudo analog points for both local and remote trending. A trend value is
stored in the trend buffer at the end of a fixed interval given by the datapoint
attribute "Trend Cycle", as shown in Fig. 22:
EN2B-0092GE51 R0512
ATTRIBUTES EXCEL 50/100/500/600/800
VALUE
flexible datapoint
number of technical addresses
TREND
VALUE
TREND
VALUE
TREND
VALUE
TREND CYCLE
TREND CYCLE
Fig. 22. The attribute "Trend Cycle"
The value of the attribute "Trend Cycle" is given in minutes, and the valid range is 0
to 1440 min (=24 hours). A trend cycle value of 0 will disable time-based trending
(this is the default) and value-hysteresis trending is used if the trend log attribute is
set. The value for the attribute "Trend Cycle" can be changed via the MMI, C-Bus,
or modem connection to EBI/SymmetrE, and also via CARE RIA/WIA statements.
NOTEIf the attribute "Trend Cycle" is set to anything other than 0, trending will
be time-based and the attribute "Trend Hysteresis" will be ignored.
User Address
The attribute "User Address" is a sequence of up to 18 letters and numbers
assigned to each datapoint (physical and pseudo).
Example The temperature of a room is recorded at a sensor input; the associated user
address could be as follows:
Room Temp.1.10 (Room temperature, 1st floor, room 10)
The datapoint can be accessed directly by selecting this user address on the XI581
(not with XCL5010, Excel 100C), XI582, and XL-Online operator interfaces or the
XL50-MMI.
In the case of basic types of physical data, a user address always corresponds
exactly to one technical address (see Table 15).
The user address of flexible datapoints may refer to up to six technical addresses .
Table 15. Number of technical addresses for flexible datapoints
EN2B-0092GE51 R0512 36
Pulse 2 2
Multi-stage up to 6
Feedback up to 6 (in pairs of 2)
Value
When the controller is working in automatic (the attribute "Operating Mode" is set to
"Auto"), the value currently being processed by the program, or the current status,
can be found in the attribute "Value". The attribute "Value" for an analog input could
contain, for example, the current room temperature of 21 °C / 70 °F.
A pump switched by a digital output could contain the current status of the pump,
for example ON, in its attribute "Value".
EXCEL 50/100/500/600/800 ATTRIBUTES
37
operator level XBS
access for write protection values
Write Protection
The attribute "Write Protection" (XBS, only) prevents data from being overwritten.
The default setting of the attribute is 0 (="No"). If the datapoint should be protected,
then "No" must be overwritten with a value between 0 and 100.
0 = No write protection
100 = Highest priority required
To change this attribute, the operator must log in at an operator level that
corresponds to the current write protection attribute (see Table 16).
1 no access
2 no access
3 0 to 60
4 0 to 80
5 0 to 100
The operator's authority level is compared to the write protection status of the
datapoint to establish whether or not any modification can be made.
As soon as the operator receives permission, he can alter the attribute of secured
datapoints. The operator can also set the write protection to a higher value or
cancel write protection completely.
Example: A datapoint with a write protection value of 61 can be altered only at operator level
4 or 5.
The write protection can be reduced to 0 from level 4 as well as level 5. The
datapoints can be altered through level 3. A detailed high priority can then be given
through the write protection.
NOTE:When online, the XI581 (not with XCL5010, Excel 100C), XI582, and XL-
Online operator interfaces and the XL50-MMI do not recognize the
attribute "Write Protection". You can still change any datapoint via the
user interface, even if the datapoint is write-protected.
Table 16. Access values for operator levels
EN2B-0092GE51 R0512
ATTRIBUTES EXCEL 50/100/500/600/800
analog input
analog output
digital input
digital output
digital output (pulse 1)
1
List of Datapoint Attributes
Different attributes are assigned to each datapoint type. Table 17, Table 18, and
Table 19 list the attributes assigned to the various datapoint types:
User Address User Address User Address User Address User Address
Descriptor Descriptor Descriptor Descriptor Descriptor
Technical Address Technical Address Technical Address Technical Address Technical Address
Suppress Point Suppress Point Suppress Point Suppress Point Suppress Point
Access Level Access Level Access Level Access Level Access Level
Write Protection Write Protection Write Protection Write Protection Write Protection
Operating Mode Operating Mode Operating Mode Operating Mode Operating Mode
Value Value Value Value Value
Manual Value Manual Value Manual Value Manual Value Manual Value
Engineering Unit Engineering Unit Alarm Delay Alarm Type Alarm Type
I/O Characteristic I/O Characteristic Alarm Type Alarm Reporting Alarm Reporting
Sensor Offset Alarm Reporting Alarm Status Trend Logging Trend Logging
Low Warning Limit Trend Logging Point in Alarm Hours Run Log Hours Run Log
Low Alarm Limit Subtype Alarm Reporting Hours Run Hours Run
High Warning Limit Time to Open Trend Logging Service Interval Pulse Duration
High Alarm Limit Time to Close Hours Run Log Hours Since Serviced Service Interval
Alarm Delay Trend Hysteresis Hours Run Active State Hours Since Serviced
Alarm Type Trend Cycle Service Interval Active State Text Active State
Point in Alarm Suppress Alarm Hours Since Serviced Passive State Text Active State Text
Alarm Reporting NV Name and Index Active State Cycle Count Passive State Text
Trend Logging Safety Position1 Active State Text Last Changed Cycle Count
Alarm Status
changed
Alarm Hysteresis Last Changed Suppress Alarm Subtype
Trend Hysteresis Cycle Count Suppress Alarm
Trend Cycle Suppress Alarm NV Name and Index *
Normally Open /
Suppress Alarm NV Name and Index * NV Name and Index *
NV Name and Index * LED Mode1 Safety Position1
* Read-only attribute. Changing the NV name and index requires changing the datapoint to NV mapping in CARE.
Excel 800, only.
Passive State Text Subtype Last Changed
Table 17. Datapoint attributes
Normally Closed
Normally Open /
Normally Closed
EN2B-0092GE51 R0512 38
EXCEL 50/100/500/600/800 ATTRIBUTES
39
input
Table 18. Datapoint attributes
totalizer input
pseudo totalizer
pseudo analog point pseudo digital point pseudo point multistage
User Address User Address User Address User Address User Address
Descriptor Descriptor Descriptor Descriptor Descriptor
Technical Address Suppress Point Access Level Access Level Point Enable
Suppress Point Access Level Write Protection Write Protection Access
Access Level Write Protection Operating Mode Operating Mode Write protection
Write Protection Operating Mode Value Value Operating Mode
Operating Mode Value Manual Value Manual Value Value
Value Manual Value Engineering Unit Alarm Type Value Manual
Manual Value Engineering Unit Low Warning Limit Alarm Delay Status Text
Engineering Unit Alarm Type Low Alarm Limit Alarm Status Alarm Type
Alarm Type Trend Logging High Warning Limit Point in Alarm Trend Logging
Trend Logging Scaling Factor High Alarm Limit Alarm Reporting Hours Run log
Scaling Factor Interval Limit Alarm Type Trend Logging Hours Run
Interval Limit Interval Value Alarm Delay Hours Run Log Maintenance Alarm
Interval Value Suppress Alarm Point in Alarm Hours Run Last Serviced
Suppress Alarm Trend Logging Service Interval Last Change
Alarm Status changed Active State Switch on Counter
Alarm Hysteresis Hours Since Serviced Number of Stages
Trend Hysteresis Active State Text Suppress Alarm
Trend Cycle Passive State Text NV Name and Index *
Suppress Alarm Cycle Count NV Name and Index * Last Changed Suppress Alarm NV Name and Index *
* Read-only attribute. Changing the NV name and index requires changing the datapoint to NV mapping in CARE.
EN2B-0092GE51 R0512
ATTRIBUTES EXCEL 50/100/500/600/800
(analog)
(digital)
(type: Pulse 2)
(type: feedback)
multi-stage)
global datapoint
User Address User Address User Address User Address User Address
Descriptor Descriptor Descriptor Descriptor Descriptor
Technical Address Technical Address Technical Address 1/2 Technical Address
Access Level Access Level Suppress Point Status Suppress Point
Write Protection Write Protection Access Level Switching down Access Level
Operating Mode Operating Mode Write Protection Off phase Write Protection
Value Value Operating Mode Delay switch up Operating Mode
Manual Value Manual Value Status Delay switch down Value
Engineering Unit Alarm Type Manual Status Feedback Delay Manual Value
Low Warning Limit Alarm Delay Status Text Operating Mode Status Text
Low Alarm Limit Alarm Status Ala rm Type Manual status Active State
High Warning Limit Point in Alarm Trend Logging Status Text Alarm Type
High Alarm Limit Alarm Reporting Hours Run Log Suppress Point Alarm Reporting
Alarm Type Trend Logging Hours Run Access Level Trend Logging
Alarm Delay Hours Run Log Pulse Duration Write Protection Hours Run Log
Point in Alarm Hours Run Service Interval Trend Logging Hours Run
Trend Logging Service Interval Hours Since Serviced Hours Run Log Service Interval
Alarm Status changed Active State Last Changed Hours Run Hours Since Serviced
Alarm Hysteresis Hours Since Serviced Cycle Count Service Interval Last Changed
Trend Hysteresis Active State Text Suppress Alarm Subtype Cycle Count
Trend Cycle Passive State Text Hours Since Serviced Suppress Alarm
Suppress Alarm Cycle Count Alarm Type
Broadcast Hysteresis Last Changed Point in Alarm Suppress Alarm Alarm Reporting Last Changed Cycle Count Suppress Alarm
global datapoint
Table 19. Datapoint attributes
flexible datapoint
flexible datapoint
1/2/3/4/5/6
flexible datapoint (type:
Technical Address
1/2/3/4/5/6
EN2B-0092GE51 R0512 40
EXCEL 50/100/500/600/800
41
TIME PROGRAMS
Time programs allow you to set values and control states for specific datapoints at
specific times. You can adapt time programs to suit the structure of your system.
Network-wide time synchronizationTime synchronization of all devices connected to the system bus is carried out by
the controller designated as the synchronization master. Synchronization is based
on date, hours, minutes, and seconds to an accuracy of ± 120 seconds (see also
"Network-Wide Controller Time Synchronization" on page 55).
Structure
Flexible time programsAn Excel 50/100/500/600/800 time program can consist of several individual time
programs. You define these individual time programs according to their function and
assign a name to each one. This means you can generate a time program for each
section of your system or building.
Time programs are created on the basis of the following modules:
• daily programs
• weekly programs
• annual programs
Further, these modules can be modified as needed using the following two
functions:
• the special day list
• the “TODAY” function
Daily programs are combined to form a weekly program. The weekly program is
then automatically copied repeatedly to form the annual program. If you need to
execute a different daily program on certain days of the year, you can enter the
customized daily program directly in the annual program.
The special day list and the "TODAY" function are available as additional features.
The special day list allows you to mark specific days as being legal holidays. You
can also use the special day list for floating legal holidays, for example Good Friday
and Easter Monday. The "TODAY" function allows you to overwrite time program
assignments "ad hoc" for a defined time period without permanently changing the
entire time program.
Individual Time Programs
Daily Program
Daily programs are the basic building blocks of any time program. Using daily
programs, you enter the switching times with the desired setpoints and switching
conditions for the datapoints. When preparing a daily program and assigning the
name, there is initially no specific relationship to a particular day in the week.
The modular structure of the time program makes it possible for the user to
establish various different daily programs, keep them in a library, and to include
them in the weekly program as desired. The user is free to extend the list of daily
programs to meet his special requirements.
The repeated use of the same daily program is also possible (for example, the
same daily program can apply from Monday to Friday in the weekly program).
Changes in a daily program are immediately effective in the weekly and annual
programs as well as in the special day list.
A daily program can also have the name "Sundays and holidays", for example. The
names of the daily program provide a reference to the switching points. In the
"Workday 22 hr" daily program, the setpoint is reduced from 22.0°C to 12.0°C at
22.00 hr.
EN2B-0092GE51 R1111
TIME PROGRAMS EXCEL 50/100/500/600/800
The daily programs of the heating loops are independent from each other. In spite
of their having the same name, such as "Sunday and holidays", the daily programs
for all heating circuits are distinguished through the user addresses defined. The
same also applies to the service water loop daily programs. The switch points and
values can therefore be changed as desired in any daily program without
influencing another daily program. The exact procedure for creating a daily program
is described in the Operating Instructions.
Switching pointsA daily program can be regarded as a module that contains information about
New daily program Daily programs can be generated at operator level 2 (read and limited changes) of
V1.05.xThe daily program is automatically assigned the name "DPn" (English language) or
ApplicationDaily programs are used in the following sections of time programs:
Deleting a daily program If a daily program is to be deleted, the system will check whether this program is
switching times related to the duration of one day. It contains all user addresses
addressed in this time interval.
The number of switching points per user address is not restricted.
These switching points are defined by means of a switching time, referenced user
address, and a setpoint value or control state. The switching times are set to the
minute. Several switching points can be allocated to one switching instant.
Switching points can be re-entered, changed, or deleted to modify the daily
program. The permissible range (minimum or maximum value) for a user address or
its control state is defined in the datapoint description. No values may be entered
outside this range.
the XI581 (not with XCL5010, Excel 100C), XI582, and XL-Online operator
interfaces and the XL50-MMI. It is possible to assign a name to a daily program
generated on the XL-Online.
"TPn" (German language) (n = sequence power of the daily program) if no name is
assigned by the user or, if the program is generated on the XI581 (not with
XCL5010, Excel 100C), XI582, or the Excel 50 MMI. Once selected, program
names can be changed via the XL-Online.
• To generate weekly programs
• For direct entries in annual programs
• For holidays in the special day list
still required in the time program. This daily program cannot be deleted if it is still
contained in the time program.
Weekly Program
A separate weekly program is generated for each time program. The weekly
program defines which daily program is to be used for which weekday. A daily
program is assigned to each day of the week (Monday to Sunday). It is also
possible to assign the same daily program to several weekdays. The weekly
program, if defined, is automatically copied for each week in the annual program.
If a change is made to a weekday in a weekly program, this change will affect the
weekday in every week of the year. If a daily program is entered directly in the
annual program, this daily program will have priority over the daily program from the
weekly program. The definition of a weekly program forms the basis of the annual
program.
Annual Program
The annual program is structured like a calendar and consists of successive weekly
programs. It provides an overview of which daily programs are valid on which
calendar days. If the daily program in a weekly program does not apply on a
particular calendar date, another daily program can be entered for it directly in the
annual program.
The annual program starts on the current day. Each day, the time frame shifts one
day. Days added at the end are automatically assigned the daily program from the
weekly program. This ensures that every day is assigned a daily program.
EN2B-0092GE51 R0512 42
EXCEL 50/100/500/600/800 TIME PROGRAMS
43
Entries in the annual program must therefore be made only if a daily program
differing from the one selected is to be used. An undefined daily program to be
inserted in the annual program can be defined in the daily program.
Special Day List
One special day list exists per time program. It makes a number of holidays and
special days available to which a daily program can be assigned. This daily program will then apply to this holiday or special day every year. The date of floating
holidays is calculated automatically by the Excel 500. If no daily program is entered
on certain holidays, the special day list is not taken into account on this day.
The following holidays and special days are contained in the list:
• New Year's Day (1
• Epiphany (6
st
th
of January)
of January)
• Monday before Ash Wednesday
• Shrove Tuesday
• Ash Wednesday
• Good Friday
• Easter Sunday
• Easter Monday
• Labor Day (1
st
of May)
• Ascension Day
• Whit Sunday
• Whit Monday
• Corpus Christi
• Assumption Day (15
• Day of German Unity (3
• Reformation Day (31
• All Saint's Day (1
th
of August)
rd
of October)
st
of October)
st
of November)
• Day of Prayer and Repentance
• 1st to 4th Sundays in Advent
• Christmas Eve (24
• Christmas Day (25
• Boxing Day (26
• New Year's Eve (31
th
of December)
th
of December)
th
of December)
st
of December)
• First Saturday in the month (Germany)
If a daily program that has not yet been defined should be entered in the special
day list, it must first be defined in the "Daily program" section of the time program.
NOTE:To activate the special day list, you must set the special day status to
ON.
The "TODAY" Function
Using the "TODAY" function, it is possible to perform on/off changes to setpoint
values or control states without having to access the annual program or to define a
new daily program. New setpoint values or control states and the period of validity
(i.e. start and end) for a specific user address are defined. These changes are
carried out at operator level 2 of the XI581 (not with XCL5010, Excel 100C), XI582,
and XL-Online operator interfaces or the Excel 50 MMI. The start time must be
within 24 hours from the entry time. The end time must be within 24 hours from the
start time. The duration of the change can thus amount to a maximum of 24 hours.
The entry is deleted automatically after the end time point is exceeded.
Generating a Time P rogram
A new time program is defined at operator level 4 (programming level) of XL-Online
or on the Excel CARE engineering system. The new time program is given a name
EN2B-0092GE51 R0512
TIME PROGRAMS EXCEL 50/100/500/600/800
and assigned a user address. This process thus defines which user addresses are
to be referenced by the time program.
Up to 20 time programs can be defined for each Excel 500. The time programs are
extremely flexible. The switching points for a section of the system or building are
usually combined in one time program. It is also possible to combine all datapoints
in one time program.
The following steps can also be carried out at operator level 2 (read and limited
changes) of the XI581 (not with XCL5010, Excel 100C), XI582, and XL-Online
operator interfaces and the XL50-MMI.
1) Daily programs are generated and given a name.
2) User addresses with a switching time and setpoint value or control state are
entered in the daily program.
3) A daily program is assigned to each weekday in the weekly program section
after the daily programs have been generated.
4) This weekly program is automatically copied for each week in the annual
program.
The generation of an executable time program is now complete.
If, on a certain day in the annual program, a daily program differing from the one
specified in the weekly program is to be used, this new daily program can be
entered directly in the annual program. The defined weekly program is not modified
and continues to be used on those days which have not been modified, in any way,
in the annual program.
Any changes to be made to switching times, setpoint values, or control states must
be carried out in the daily programs.
The special day list is available. It contains a number of holidays; a different daily
program can be assigned to each holiday. Once assigned to a holiday, the daily
program will apply on this holiday every year. That is valid for holidays with fixed
date (for example
(Ascension Day, Good Friday). The dates of floating holidays will be calculated
automatically by Excel 500. If there are no entries, then the existing daily program
of the annual program remains valid on that holiday.
New Year’s Day or Christmas Eve) as well as for floating holidays
EN2B-0092GE51 R0512 44
EXCEL 50/100/500/600/800
45
ALARM HANDLING
The Excel 50/100/500/600/800 alarm handling facility offers a high degree of
security by both storing and immediately displaying all alarms that occur at the
operator interfaces. The user chooses whether an alarm is critical or non-critical.
The user can also create personalized alarm texts, if required.
If your Excel 50/100/500/600/800 is connected to a front-end or a modem, critical
alarms are transmitted as high priority.
Point Alarms
The type of alarm generated by a datapoint depends on the type of datapoint
involved. Furthermore, there are alarm types which are valid for all datapoints or
which refer to system alarms in the control unit.
Limit monitoringIn the case of an analog input or pseudo analog point, two maximum limits (limit
Alarm status In the case of a digital input or pseudo digital point, a decision can be made
Maintenance Alarm In the case of a digital input, a digital output, or a pseudo digital point, the hours run
TotalizerA pulse input signal interval can be fixed for a totalizer input that, if exceeded,
Max. 1, limit Max. 2) and two minimum limits (limit Min 1, limit Min 2) can be set for
a particular value. The limit values are entered in the datapoint description. Each
time this limit value is reached, irrespective of the direction, an alarm is triggered. If,
for example, a measured value takes on a value that exceeds a maximum limit or
drops below a minimum limit, an alarm is generated (alarm reached).
If the value returns from the alarm range to the normal range and, in doing so,
reaches a limit value in the opposite direction, an alarm signal is given in the same
way (alarm reached).
Since this sequence is identical for all four limit values, a total of eight different
alarm signals are possible for one analog datapoint. These eight alarm signal texts
are programmed permanently, and require no input from the user.
whether or not an alarm check is desired. The entry is made in the datapoint
description.
Prior to V.2.04.x
Alarm Check Enter "Yes"
No Alarm Check Enter "No"
If an alarm check is desired, an alarm signal is produced if the digital point changes
from Active State to Passive State (alarm reached). When the digital point returns
to Active State, an additional signal is generated (alarm going). The two alarm
signal texts are permanently programmed and require no input from the user.
The fixing of active and passive states must be carried out in the datapoint
description under the attribute "Active State".
0 = Active state with "0" signal
1 = Active state with "1" signal
V.2.04.x
The attribute "Active State" is fixed to “1”. This means that the alarm status is no
longer dependant upon the attribute "Active State", but rather only upon the
physical contact status and upon the logical status as defined in the online attribute
"Normally Open/Normally Closed".
time entry can be activated and a maintenance interval can be fixed. If the latter is
exceeded, an alarm signal is generated. The text of this signal is permanently
programmed and requires no input from the user. If a check is to be skipped, a "0"
is entered in the datapoint descriptor under the attribute "Maintenance Interval".
triggers an alarm signal. The alarm signal text is permanently programmed and
requires no input from the user. If a check is not desired, a "0" is entered in the
datapoint description under the attribute "Interval Count".
EN2B-0092GE51 R1111
ALARM HANDLING EXCEL 50/100/500/600/800
Operational status All datapoints can be switched from the 'automatic' to the 'manual' operational
Remote (V2.0.x) (not with Excel 100C) If a manual override control is changed on a Distributed I/O module, an alarm
Alarm suppression in manual modeUnder controller firmware 2.06.02 and higher, the following datapoint alarms can be
mode. Each time the operating mode is changed, irrespective of the direction
involved, a critical alarm signal is generated. Both alarm signal texts are
preprogrammed and require no input from the user.
“overr.switch_manu” or “overr.switch_auto” is generated and the “manu” value is
transmitted.
suppressed for as long as the corresponding datapoints are in the 'manual override'
mode:
• min. and max. limit alarms (of analog datapoints, only);
• status alarms (of digital datapoints, only).
This alarm suppression is activated during CARE engineering by inserting the "at"
sign ("@") at the beginning of the descriptor text of the pseudo datapoint "Startup".
Benefits:
As long as this alarm suppression is in effect, the repair or replacement of defective
and/or malfunctioning (flickering) inputs (resulting e.g. from sensor breakage,
sensor short-circuiting, defective alarm switches, etc.) can be performed while the
corresponding datapoint is in the "manual override" mode.
NOTE:Only when using XFI 2.1.0 SIM1 will the event behavior and visualization
behavior be identical to that of Honeywell Deltanet controllers.
System Alarms
Operating errors that occur in a control unit or during communication with other
Alarm
no.
1 AI Module Defect 25 Maximum conversion time was exceeded while testing ADC (defect on an AI card).
2 AI 0 Volt Error 24
3 AI 5 Volt Failure 23
4 MAX 2 alarm 2 Alarm limit for AI-, PA points
5 MAX 2 normal 76 Alarm limit for AI-, PA points
6 MAX 1 alarm 1 Alarm limit for AI-, PA points
7 MIN 2 alarm 4 Alarm limit for AI-, PA points
8 MIN 2 normal 78 Alarm limit for AI-, PA points
9 MIN 1 alarm 3 Alarm limit for AI-, PA points
10 MAX 1 normal 75 Alarm limit for AI-, PA points
11 MIN 1 normal 77 Alarm limit for AI-, PA points
12 Alarm memory full 22
13 Alarm 6 Alarm condition control for DI , PD points.
alarm text
English)
cond.
code #
Excel 50/100/500/600/800 units are recognized and displayed by the computer
module. These alarm signals can relate, for example
need to change the buffer battery (data protection), or the presence of one digital
output module too many (maximum 10). These alarm signal texts are
preprogrammed. They are always critical alarms.
Table 20. System alarms
cause/reason
While measuring GND voltage on an AI card, one value greater than 0.5 V was measured
(AI card defect).
While measuring the 5-V reference voltage on an AI card, one value greater than 5 V or
smaller than 4.5 V was measured (AI card defect or incorrect power supply of AI card).
1) After starting the Field I/O Task with the parameter "INIT", the default datapoint
description couldn't be installed because USX didn't provide enough storage space for
sending CNAP telegrams.
2) Alarm send buffer full.
, to a defective module, the
EN2B-0092GE51 R0512 46
EXCEL 50/100/500/600/800 ALARM HANDLING
47
Alarm
no.
alarm text
English)
cond.
code #
cause/reason
14 Return to normal 79 Alarm condition control for DI, PD points.
15 Hware clock failed 61 Error while initializing the system clock.
16 Battery low 17 Battery voltage too low or battery not existent.
17 Battery sta tu s OK 87
18 Wrong Module ID 71
19
Too Many DO
Module
60 Too many modules of the same type (XF521, XF522, ...).
Battery voltage back to normal again (alarm occurs only after alarm message "Battery
low").
An invalid module ID is read (error on internal I/O or defect module or the module has an
as-yet unspecified module ID).
20 Contr. w/o Flash 81 Error occurred when burning the Flash EPROM.
21 FLASH Mem Full 82 Not enough Flash memory space to save application.
22 Link Point Alarm - Xlink alarm.
23 Link Comm Down - Xlink alarm.
24 No characteristic 57 The application part "Characteristics" is defect.
Incompatible version numbers of RACL program and RACL parameter files and/or
datapoint description.
30 RACL program contains errors (MCAL from submodule).
- Alarm not used.
32 RACL program contains errors (undefined Operation code).
33 RACL program contains errors (Checksum changed).
1) During RACL run, datapoint contains errors or point is locked.
33 Unknown datapoint 34
2) An unrecognized (missing) characteristic in the datapoint editor has been used.
Check if the default file set of the controller is different from the set used in CARE.
34 SSI Points Active Xlink alarm.
35 Invalid operation 36
Non-valid arithmetical operation during RACL performance (e.g. division by zero or RACL
statements LN with input value 1.0 ).
38 Arithmetic underflow at RACL performance "-infinite".
39 RACL program contains errors (invalid Operation Code).
39 Z-Reg. index error 40 Access to non-existing Z register (e.g.: RACL statements ISTO and IRCL).
40 Invalid Y-Register 41 Too many statements (exits) in one column.
41 Invalid P-Register 42 Attempt to use non-existent P register.
42 Invalid T-Register 43 Attempt to use non-existent T register.
43 Invalid Z-Register 44 Attempt to use non-existent Z register.
44 SSI Interface Up - Xlink alarm.
45 No parameter file - RACL parameter file missing.
46 No Z file - RACL Z register file missing.
47 No T file - RACL time register file missing.
EN2B-0092GE51 R0512
ALARM HANDLING EXCEL 50/100/500/600/800
Alarm
no.
48 Part applic. mi s s
alarm text
English)
cond.
code #
46
47
48
49
52
cause/reason
1) No RACL program.
2) No parameter file.
3) No Z register file.
4) No T register file.
5) No datapoint description.
26 1) Submodule does not exist.
27 2) Parameter file missing.
28 3) No M0 module.
49 RACL environ fault
31 4) Invalid SKIP destination.
34 5) Info points STARTUP, SHUTDOWN, or EXECUTING_STOPPED are missing or
parameters set to 0,0,0).
50 INIT div. by zero 14 Reason of new start: Division by zero.
51 INIT under OpCode 15 Reason of new start: the system software contains an undefined Operation Code.
52 Power failure 16 Reason of new start: power failure, data in RAM ok.
53 Link Config Bad - Xlink alarm.
54 I/O board missing 19
55 Unused I/O board 18
The required configuration contains at least one module which is not included in the
hardware configuration.
The hardware configuration contains at least one module that is not needed (can be taken
out).
1) Hardware Configuration file (.kfx file) not complete loaded.
2) Different modules are plugged under the same address (set using the rotary HEX
56 HW Config. failure 20
switch) in the required configuration and in the hardware configuration.
3) An application containing NV-mapping is rejected by the target controller because the
hardware does not have the 3120E5 Neuron® chip.
57 Wrong version no. 21 The version number of the application files and the configuration file are not the same.
58 Totalizer overflow 5 Overflow operation hours counter, point value of counters and interval impulse counter.
59 Maintenance alarm 7
Course of a service interval for digital points or course or the message/calling interval for
The loaded application contains too many remote points. An application with more than 46
61 Too many Globals 63
62 C-Bus error 64
63
No Globals
memory
9 No remote storage; the remote controller has no storage left for requested remote points.
NVs has been rejected for download into an Excel 50 freely programmable controller
located on a L
ONWORKS network.
Communication defect/disturbance between Excel 500 and C-Bus submodule. Logical
modem device in controller has gotten a C-Bus # already in use for a C-Bus controller.
64 Global pnt mis sing 10 The user address of the remote point was not found in the remote controller.
65 Glob Pnt Occupied 11 A remote output to a remote controller is already assigned to another controller.
66 CPU stopped 12 The remote controller is in stopped condition.
67 CPU not available 13 The remote controller is switched off or does not respond to C-Bus communication.
68 Init. actuators 65 Floating outputs (3-position outputs) are synchronized.
69 WARM START 66 Reason of new start: watchdog.
70 COLD START 67 Reason of new start: power failure, data in RAM destroyed.
71 Point in manual 68 When falling back to pass word level 3 there are still points in manual override.
72 Report too large 69 Not enough space in the report file for initialization.
73 XI 581 required 70
After a download, an entry is demanded in the initializing phase of the ASPECD
application. This can happen only with XI581 emulation.
74 New appli. loaded 74 Download of a new application part or entire application.
EN2B-0092GE51 R0512 48
EXCEL 50/100/500/600/800 ALARM HANDLING
49
Alarm
no.
alarm text
English)
cond.
code #
cause/reason
75 Auto operation 80 Point is in automatic mode.
76 Manual operation 8 Point is in manual override mode.
77 Too many trend pnt 73 Too many points in trend.
78 No C-BUS refresh 110 No memory to execute refresh / trend functionality.
79 Template too long 85 Template for wildcard search too long.
80 206
Used only for MCR200 controllers. MCR200 rejects the setting of summer time if it is done
with corresponding function of XBS or XL-Online.
Used only for MCR200 controllers. A weekday is allocated to the daily programs of
81 207
another weekday by copying the corresponding data. While copying, the name of the daily
programs (weekday) remains whereas it would be exchanged by allocation.
82 83
83 B-Port Download 100
84 C-Bus Download 101
85 B-Port change 102
86 C-Bus change 103
Only used for MCR200 controllers. Texts from XIP100 or MCR200 Fax were not able to be
loaded into the MCR200.
Download was done via B-Port. In addition to this alarm, one of the following alarms is
displayed: 88 to 98.
Download was done via C-Bus. In addition to this alarm, one of the following alarms is
displayed: 88 to 98.
Online changes were done via B Port. In addition to this alarm, one of the following alarms
is displayed: 88 to 93.
Online changes were done via C-Bus. In addition to this alarm, one of the following alarms
is displayed: 88 to 93.
87 Device logged 84 Operator has logged himself in with MMI via C-Bus (Remote Login). Not sent on C-bus.
88 DDC Parameter - This alarm is shown in addition to one of the following alarms: 83 to 86.
89 DDC Z-Register - This alarm is shown in addition to one of the following alarms: 83 to 85.
90 DDC T-Register - This alarm is shown in addition to one of the following alarms: 83 to 84.
91 Datapoints - This alarm is shown in addition to one of the following alarms: 83 to 86.
92 Time Program - This alarm is shown in addition to one of the following alarms: 83 to 86 and 101.
93 ASPECD Program - This alarm is shown in addition to one of the following alarms: 83 to 85.
94 Alarm Texts - This alarm is shown in addition to one of the following alarms: 83 and 84.
95 Characteristics - This alarm is shown in addition to one of the following alarms: 83 and 84.
96 Descriptors - This alarm is shown in addition to one of the following alarms: 83 and 84.
97 Engineering Units - This alarm is shown in addition to one of the following alarms: 83 and 84.
98 State Texts - This alarm is shown in addition to one of the following alarms: 83 and 84.
99 Field I/O - This alarm is shown in addition to one of the following alarms: 101.
100 Glob.Pnt.Transfer - This alarm is shown in addition to one of the following alarms: 101.
104
101 Applic. stopped
105
106
Application task was stopped. This alarm, together with one of the following alarms, is
shown: 92, 99, 100, 102.
107
102 DDC Program - This alarm is shown in addition to one of the following alarms: 83 to 86 and 101.
103 I/O board present 108
A module which is part of the required configuration but was missing in the hardware
configuration has been added to the hardware configuration again.
104 Time dev. > 2 min 98 A time deviation greater than 2 minutes has been detected on a device on the C-Bus.
105 Manual time sync. 99 Somebody has changed the system time of the C-Bus devices via a local MMI.
106 Dig.Out.Conflict 109 Application error: An XL50 DO is using a triac already in use by a 3-position output.
107 Overr. switch auto 111 Manual override switches on Distributed I/O output modules are reset to automatic mode.
108 Overr. switch manu 112
Manual override switches on Distributed I/O output modules are set into override mode
(values coming from the XL controller will be overwritten by the switches).
EN2B-0092GE51 R0512
ALARM HANDLING EXCEL 50/100/500/600/800
network or a sensor break or a
Alarm
no.
109 Hardware Failure 88
110 Hardware OK 89
111 M-Bus (XL50, only) - Used only in Excel 50 fixed applications. Shown together with M-Bus-related alarms.
112 OVFL crit. alarms 113 Critical alarm buffer full.
113 OVFL non-crit. al. 114 Non-critical alarm buffer full.
114 OVFL trend 115 Remote trend buffer full.
115 NV Bindings lost 116
116 pls upload trends! 117
117 config data def. 118
118 unauthorized acc. 119 Unauthorized telephone number and/or unauthorized password tried to dial in.
119 out of memory 120 No more memory available for alarm handling.
120 Please disconnect! 121
121 front-end not avail. 122 Front-end could not be reached. Line occupied or disconnected.
122 config complete 123 Configuration for the remote communication received, accepted and complete.
123 modem device OK 124 Response message to the XBS life check.
124 C bus error 125
125 LON- I/O init start 126 Initialization start of the Distributed I/O modules.
126 LON- I/O init done 127 Initialization of the Distributed I/O modules finished.
127 IP-DIO conflict 128 Standard I/O module XF5xx plugged with address of already-used DIO module XFL5xx.
128 Invalid user ID 212 CARE license key tag in the application is incorrect.
129 MTO Binding failed 155
130 board missing 19
131 board present 108
alarm text
English)
cond.
code #
cause/reason
A Distributed I/O module was removed from the LONWORKS
sensor short-circuit or missing NV update from a bound NV was detected on a Distributed
I/O module.
A missing Distributed I/O module was reconnected to the L
sensor was reconnected on a Distributed I/O module or a sensor break / short-circuit was
repaired or a missing NV update from a bound NV was supplied.
If the network interface has been changed in CARE and the changed application has been
downloaded, all bindings will be lost.
The remote trend buffer has reached its notification level and should be uploaded in order
to avoid trend buffer overflow.
Configuration data for the remote communication lost or corrupt due to power failure,
EEPROM fault or uncharged gold cap.
Front-end X is online while remote trend buffer for front-end Y exceeds the notification
level. Terminate dial-up connection with the controller in order to allow it to transmit its
remote trend buffer to front-end Y.
No C-Bus communication between remote communication device number and application
device number. Probably the application device number is missing.
The user has tried to make more “many-to-one-bindings” during controller runtime than
were specified during CARE engineering. The “many” relation of a “many-to-one-binding”
(MTO) is specified during CARE engineering. (The entered “many” relation will be used to
calculate the memory space taken from the controller's application memory for the “manyto-one-binding”.)
In the event of a module defect or power failure (initialization), this alarm is related to the
datapoints on this board. The required configuration contains at least one module not
included in the hardware configuration.
In the event of a module defect or power failure (initialization), this alarm is related to the
datapoints on this board. A module which is part of the required configuration but was
missing in the hardware configuration has been added to the hardware configuration
again.
ONWORKS network or a missing
System Alarms Suppression (V. 2.04.xx or higher)
System alarms can be suppressed during CARE engineering by inserting the "at"
sign ("@") at the beginning of the corresponding alarm text in the alarm text file.
In order to avoid alarm showers at power failure and power return, separate system
alarms are provided for module power failure and for input failures on the modules
(see Table 21).
EN2B-0092GE51 R0512 50
EXCEL 50/100/500/600/800 ALARM HANDLING
51
Reason for fault Module alarm Poi n t alarm
Care 3.x applications
for controller
firmware V. 2.04.xx
Care 4.x applications
for controller
firmware V. 2.04.xx
Care 4.x applications
for controller
firmware V. 2.06.xx
ProcedureEngineer CARE 4.x applications for controller firmware version 2.04.xx, and then
defective module or power failure
sensor break / short-circuit or
missing NV update from bound NV
defective module or power failure
sensor break / short-circuit or
missing NV update from bound NV
defective module or power failure
sensor break / short-circuit or
Due to open LON, module
alarms are no longer possible!
suppress the datapoint system alarms 109 and 110 by placing the @ character at
the first position of the corresponding alarm text.
"hardware failure" (109)
"hardware OK" (110)
"hardware failure" (109)
"hardware OK" (110)
"board missing" (130)
"board present" (131)
"hardware failure" (109)
"hardware OK" (110)
"board missing" (130)
"board present" (131)
"hardware failure" (109)
"hardware OK" (110)
User Program Alarms
It is possible to generate alarm signals at any point in the user program by using a
special program command.
The alarm text can be individually created and may contain up to 18 characters.
Data Storage
Each alarm is stored in the alarm memory that can hold up to 99 alarms. Alarm signals in the alarm memory contain neither an indication of the nature of the alarm
signals in the alarm (critical/non-critical) nor an acknowledgment of the alarm on the
operator interface.
The alarm memory entry contains user address, alarm text, date, and time. If the
memory capacity is exceeded, new alarm signals are accepted, such that the last
99 alarms always remain in the alarm memory.
The alarm memory can be viewed on the XI581 (not with XCL5010, Excel 100C),
XI582 and XL-Online operator interfaces and the Excel 50 MMI.
Alarms Sent across the System Bus
Alarm recovery Once the capacity of the temporary alarm buffer for system alarms is reached (max.
Refresh list deletion (V1.5.x)If an XBS or XL-Online is disconnected from the bus/controller, then the refresh list
99 alarms for firmware 2.03.xx or lower, and max. 50 alarms for firmware 2.04.x),
then any additional alarms cause the datapoint to be labeled "in alarm" and given a
description of the type of alarm that has occurred. Labeling is carried out only for
the last occurring alarm for that datapoint.
When a C-bus connection to a front-end has been established, then all alarm
messages of the temporary system alarm buffer are sent to the front-end. Afterwards, alarms for datapoints that are labeled “in alarm” are sent directly to the Cbus (except those that are in alarm suppression).
If the controller’s alarm history buffer still contains information related to such an
alarm, then this information is sent to the front-end. Otherwise, only the alarm type
(without data or time) is sent. In this case, the datapoints appear at the front-end
with an asterisk indicating that the data and time shown do not correspond to the
generation of the alarm.
is deleted after a period of 2 minutes. This allows point values to be updated that
EN2B-0092GE51 R0512
ALARM HANDLING EXCEL 50/100/500/600/800
are set in refresh after a short-time interruption (maximum: 2 minutes) due to a
communication error.
EN2B-0092GE51 R0512 52
EXCEL 50/100/500/600/800
53
TEST MODE (V2.03.X)
General Excel 50/100/500/800 controllers feature a special test mode intended specifically
Distributed I/O testing
(V2.04.xx or higher)
for troubleshooting or system checkout and which allows manually setting outputs
and verifying inputs. When entering the test mode, a set of default datapoints is
generated corresponding to the physical I/O of the controller. The default user
addresses are coded to correspond with the physical I/O in the following way:
AI0101: Analog input, module 1, input 1
AO0201: Analog output, module 2, output 1
DI0301: Digital input, module 3, input 1
DO0401: Digital output, module 4, output 1
3P0101: Motor output, module 1, output 1
NOTE:Excel 50/100 controllers do not have I/O modules, but their technical
addresses follow the same pattern, with module numbers referring to
internal I/O boards. For details, see the Excel 50 and Excel 100
Installation Instructions.
Excel 800 supports the test mode for the Panel Bus I/O Modules, only
(XF8xxxx).
Values are displayed (0/1 for digital points) for each of the default datapoints, and
the values are refreshed in this screen as they change. Outputs can be set manually via MMI. The alarm buffer records all system alarms and all changes of state of
inputs.
Beginning with controller firmware V2.04.x, Distributed I/O modules can be checked
out in the same way as described above. For details, see the Software Release
Bulletin for XL500, controller firmware version 2.04.00.
COMMUNICATION
General Control systems often need to carry out complex monitoring and control functions
L
(V2.04.xx or higher)
ONWORKS communication
as part of their building management task. This is difficult if individual subsystems
cannot exchange data with one another. Control applications using such equipment
soon reach the performance limits of their controllers. This is because there is only
a limited number of inputs and outputs available and it is difficult for the controller to
monitor several processes simultaneously. In addition, it may not be economical to
connect different parts of a plant because they are too far away from one another.
Equipment that has been specially designed to implement only a particular
application has the disadvantages of being more expensive in the first place and
inflexible to future needs.
The Excel 50/100/500/600/800 have a modular structure, so they can be tailored to
match the plant they are controlling. The individual Excel controllers are able to
communicate with one another, so that the configuration of one section of your
system does not limit the overall size of your building management system.
Excel 50 and Excel 500 controllers equipped with 3120E5 Neuron chips (date code
0044 or higher) are capable of communicating with devices on an Echelon®
ONWORKS® network. For more information, see Excel 50/500 LONWORKS
L
Mechanisms Description, EN0B-0270GE51.
System Bus
Up to 30 Excel controllers can be connected to one another via a System Bus (Cbus). Other C-bus compatible components can be substituted for any of the 30
Excel controllers. Example
controllers, the Excel EMC, and Excel Building Supervisors. The C-bus allows con-
s of C-bus compatible components are Excel IRC Multi-
EN2B-0092GE51 R1111
COMMUNICATION EXCEL 50/100/500/600/800
trollers and devices to exchange data such as measured values, alarms log, and
trends. This means that values from one controller or device can be sent to the
entire system.
Besides allowing communication between controllers and devices, the C-bus also
enables the entire system to be connected to PC front-ends.
When a controller does not have a modem directly connected, the C-bus also
allows controllers to communicate with other controllers that do have a modem
connected, so that data can be transmitted via the public telephone network.
Access
The C-bus supports multi-master communication using the token passing procedure. A bus master is a controller governing communication between bus
devices. The master asks for data and then distributes the data on the bus. Controllers transmit data only when asked for it by the master or when they assume the
function of the master.
Multi-master communication means that all controllers in the system can function as
the master, so the right to request and transmit data is not permanently assigned to
a specific controller. This has the advantage that a part of the system can still
continue working even if one of the controllers is defective.
The flow of data between devices can be structured hierarchically as part of the
software in the user program. Structuring data exchange means defining what information can be exchanged between which bus devices. Communication is still
carried out on the multi-master principle, but bus access time is reduced by concentrating specific data in specific controllers.
Bus Initialization
When your system first starts up, the software runs a check to see what devices are
connected to the C-bus. This process is called initialization. The software stores the
information as the Device Type List in the controllers.
During initialization, the bus master requests information about global datapoints
from each controller. At the same time, the controllers store the address of the
device making the request so that the controllers can subsequently transmit the
appropriate data to the appropriate device.
After initialization, each controller knows the address of the next controller with the
right to transmit data. If a controller now stops communication, the bus master
recognizes that this controller is no longer online and interrupts token passing. As a
result, the C-bus reinitializes automatically and also updates the Device Type List,
excluding controllers that are no longer online. This ensures continuous bus
communication even when individual controllers go off line.
Bus Communication
The Excel 50/100/500/600/800 controller does not transmit any plant-specific data
before the C-bus has been initialized. Controller communication depends on the
user program stored in each controller. Bus-wide communication occurs when
global datapoints have been defined in the user program.
See "Global Datapoints" on page 11 for details on defining global datapoints.
During normal operation, the bus master transmits active values. The bus master
transmits only values which have changed or which have been requested by
another device on initialization or when a device has been offline.
This method of exchanging data reduces the load on the bus and means controllers
store only the data they need for their own communication.
I/O Runtime Synchronization
XF525 After application download and after a power failure a runtime synchronization takes
EN2B-0092GE51 R0512 54
place which takes the complete runtime as defined in the datapoint description plus
an additional 10%.
EXCEL 50/100/500/600/800 COMMUNICATION
55
Calculated Runtime Actual Runtime
>100% permanently open
>96% 96% plus 100% of defined runtime (Excel 500)
96% plus 200% of defined runtime (Excel 50)
<2% 2% minus 100% of defined runtime (Excel 500)
2% minus 200% of defined runtime (Excel 50)
<0% permanently closed
XF825 Synchronization will take place in the following situations:
Internal hysteresis is 2 to 3.125% and 95 to 96% of defined runtime.
Calculated position < Lower sync threshold
The floating actuators will be synchronized when the ass oc i ated input signal drops
below the lower synchronization threshold, which is 2% by default.
In order to avoid any logical interlock problems, this type of synchronization will
immediately be finished when the input signal exceeds the lower synchronization
threshold + sensitivity hysteresis. The actuator will drive to –“Synchronization Time”
in this case.
An additional synchronization with -20 % is done after half an hour and one hour in
order to compensate temperature drifts of the valve.
Example:
A cooling valve is closed. The valve is cold at the time it is closed. The valve will get
warm and expand. This may result in leakage.
Calculated position > Upper sync threshold
The floating actuators will be synchronized when the ass oc i ated input signal
exceeds the upper synchronization threshold, which is 98% by default.
In order to avoid any logical interlock problems, this type of synchronization will
immediately be finished when the input signal drops below upper synchronization
threshold – sensitivity hysteresis.
Synchronization after power-up / 24 hours
The floating actuators will be synchronized in the following situations:
• Always after power-up or reset of the Excel 800 controller
• Optionally, once every 24 hours the actuator will be driven towards the “closed”
position.
Initialization of Distributed I/O Modules
XFL52x V1.02 with Excel 500 V2.01.03 During and after initialization of the Distributed I/O modules, the output of the
Remote Override Modules XFR522/XFR522A and XFR524/XFR524A will remain
unchanged. This means that the output status will always remain unchanged as
long as the 24 Vac power supply is applied and as long as there is no manual
change at the XFRxxxx modules.
New Bus Devices
The system automatically detects new devices. When it has detected a new device,
the system reinitializes so the new device is included in the Device Type List.
Network-Wide Controller Time Synchronization
Network-wide time synchronization is carried out automatically once each hour by
the designated synchronization master. Each controller with firmware V2.0.xx or
higher can act as a synchronization master. If the time is manually changed on any
of the connected system bus controllers, then this time is adopted for synchronization. If the controller on which the time was changed is eligible as a synchronization master, then it will become the synchronization master on the bus.
Synchronization is based on date, hours, minutes, and seconds to an accuracy of
± 120 seconds across the system bus (detected after no more than 1 hour). If this
time is exceeded, an alarm is generated. Daylight saving time is included in the
EN2B-0092GE51 R0512
COMMUNICATION EXCEL 50/100/500/600/800
synchronization process. Any new device added to the system bus will adopt the
bus system time.
NOTE:If you enter the time on the local MMI of an older device (prior to
V2.0.xx), synchronization will not be carried out. Even the locally entered
time might be overwritten by a synchronization coming from a newer
device (V2.0.xx or higher).
Point Refreshing
Excel controllers provides a refresh mechanism (that is adapted to the Token
timing) for sending the values of the attributes "Value", "Manual Value", "Operating
Mode", and "Alarm Status" to either an MMI interface or to a front-end. (A maximum
of two point refresh messages can be sent while the controller is holding the
Token.)
PC Communication
An Excel 50/100/500/600/800 system can also accommodate a PC connected to
the C-bus. Multi-master communication is still supported and token passing
continues between the individual bus devices. The C-bus treats controllers as being
equal in rank to a PC.
Excel IRC
Excel controllers support communication with the Excel IRC control system. This
system monitors and controls individual rooms within a building. The Excel IRC
system communicates on the C-bus via its Multicontroller (MC). The Application
control functions for Excel IRC, called ACFs, are all processed by the MC.
See EXCEL 5000 IRC Integration System Overview and Application Guide,
EN3R-1182GE51, for additional information.
Remote Communication
Excel 50/100/500/600/800 controllers are all able to communicate to remote
building supervisors via an analog or ISDN modem connected to them. This allows
two-way communication between the building supervisors and the controllers. The
Excel 100/500 controllers can store the numbers and passwords for up to three
supervisors and can call them in response to critical alarms or other programmed
triggers, or the supervisor can call at any time for status, trend, or alarm
information.
Disable dial-out (V2.04.xx or higher)Automatic upload of the remote trend buffer can be disabled by a remote front-end
Direct modem connection
(Excel 50/500,
V2.01.xx or higher and
Excel 800, V3.00.xx or higher)
(XBS 1.6.0 or higher). In this case, remote trend values are stored in the buffer, with
newest values overwriting oldest when the buffer is full, but the controller does not
dial out to send remote trend buffer level alarms or to flush the buffer. The controller
will still dial out for critical and uncritical alarms.
Excel 100 and 600 controllers and Excel 500 controllers with V1.5.xx firmware or
earlier can, when operating as stand-alone controllers, make use of the XDM506
modem submodule mounted on the CPU board. The XDM506 can perform all of the
functions of the XM100A in providing remote communication capability with up to
three building supervisors.
Excel 50/500 controllers with firmware version V2.01.xx or higher, Excel 100C
controllers, as well as Excel 800 controllers with firmware version V3.00.xx or higher
have the advantage of allowing direct connection of a modem or ISDN terminal
EN2B-0092GE51 R0512 56
EXCEL 50/100/500/600/800 COMMUNICATION
57
adapter to the controller for either C-Bus systems or stand-alone controller
applications. No additional hardware is necessary. Excel 50/100/500/800 controllers
can store 100 trend values (by default) for the connected EBI/SymmetrE, in addition
to handling normal building control functions. Data transmission rates up to 38.4
Kbaud are supported with modem/ISDN terminal adapter attached.
If no special modem behavior is needed, it is not necessary to set up or initialize the
modem/ISDN terminal adapter. The Excel 50/100/500/800 controller will detect the
modem attached to the serial port and set the communication speed to the default
value of 9.6 Kbaud. The Excel 50/100/500/800 controller will also detect whether
the modem/ISDN terminal adapter is initialized in auto-answer or manu-answer
mode, and it will initialize the modem for manu-answer mode (S0=0).
NOTE: Remote communication to XBSi building supervisors is not supported by
NOTE: IRC alarming can be accomplished only indirectly with firmware version
direct modem connection.
V2.01.xx by using a separate Excel 500 controller with special operating
system firmware (XL IRC V1.03.x) which allows mapping between it and
an IRC Multicontroller. In that case, the IRC alarms are treated like
normal C-Bus data.
Fig. 23. Remote Modem Connection
EN2B-0092GE51 R0512
COMMUNICATION EXCEL 50/100/500/600/800
Remote Trending (dial-up)
General
Per front-end (XBS, EBI), trend values for a total of 20 data points can be stored
(via dial-up) in the remote trend buffer of the controller to which the modem has
been connected. These 20 data points can come from the controller to which the
modem has been connected, or they can come from various other controllers on
the same C-Bus or L
Per front-end (XBS, EBI), trend values for a total of 100 data points can be stored
(via dial-up) in the remote trend buffer of the controller to which the modem has
been connected. These 100 data points can come from the controller to which the
modem has been connected, or they can come from various other controllers on
the same C-Bus or L
additional remote trend buffer.
In combination with the large RAM controllers XD52-FC, XD52-FCS, XC5210C, a
total of 384 KB of additional trend buffer is available. This increase in the trend
buffer size reduces the number of times the controller must dial-up the front-end
and lowers the risk of trend values being overwritten due to a full buffer.
By exploiting this feature, it is possible, when no application is downloaded, to use
the EXCEL controller as a pure trending device.
The amount of additional memory available for the remote trend buffer is determined by the value for “Application Memory Size” entered with the MMI during the
start-up sequence of the controller. This number is subtracted from the total
application memory, and the resulting number, in Kbytes, is the additional remote
trend buffer size. Fig. 24 illustrates the adjustable remote trend buffer.
TOTAL APPLICA TION MEMORY
UNUSED APPLICATION MEMORY
ONWORKS bus.
Controller Firmware 2.03.xx and Higher
ONWORKS bus. Unused application memory can be used as
Controller Firmware 2.04.xx and Higher
REMOTE TREND BUFFER
e.g. 58 KB
58 KB
= 1263 ADDITIONAL TREND SAMPLES
128 KB
APPLICATION
e.g. 70 KBYTES
+ 100 TREND SAMPLES (DEFAULT)
= 1363 T0TAL TREND SAMPLES
Fig. 24. Adjustable remote trend buffer example
The maximum number of trend values will be displayed on the MMI once a value for
application memory size is entered. The adjustment range for the application
memory size is the following:
Table 22. Adjustment range for application memory size
application memory size trend values in remote trend buffer
maximum (default): 128 Kbyte 42 per front-end
example: 120 Kbyte 100 per front-end
minimum: 38 Kbyte 100 per front-end; PLUS “N” for front-end A
EN2B-0092GE51 R0512 58
EXCEL 50/100/500/600/800 COMMUNICATION
59
160
Remote trend buffer size formula For XD52-FC, XD52-FCS, and XC5210C controller (512 Kbytes of RAM):
N = (128 Kbytes - appl. size (in Kbytes) + 384 Kbytes) * 1024 bytes / 47 bytes
For all other controllers equipped with Flash EPROMS:
N = (128 Kbytes - appl. size (in Kbytes)) * 1024 bytes / 47 bytes
Hence, the maximum value of N is 10,327 trend values for large RAM controllers
and 1,960 trend values for all others containing Flash memory. This means that for
all Flash memory-equipped modules with a minimum application size of 38 Kbytes,
there will be 2,064 (1,960 + 104) trend values for front-end A and 104 trend values
each for front-end B and front-end C.
If an application being downloaded exceeds the application memory size, a warning
message will be displayed on the MMI, and the download will not be executed.
Excel 800
Excel 800 controllers provide a reserved Remote Trend Memory of 60Kbytes, which
allows a total of 2591 trend entries to be stored – see also diagram below:
2391 trend entries for front-end A
Plus 100 trend entries for front-end B
Plus 100 trend entries for front-end C
= 2391 PER FRONT-END A
+ 100 PER FRONT-END B
+ 100 PER FRONT-END C
Fig. 25. Adjustable remote trend buffer example (Excel 800)
Unused application memory can be used for storing additional remote trend entries.
In order to do so, the adjustment range for the application memory size is the
following.
Table 23. Adjustment range of application memory size
application memory size trend values in remote trend buffer
Customize Windows Default Regional and Language Settings
In order to setup an Excel 5000 system that uses any language other than the
respective Windows default language, you must customize the Regional and
Language Options Settings in Windows as a prerequisite before working with
CARE / COACH and Excel Online / COACH Online. In addition, for a successful
application engineering, the controller must be equipped with the appropriate
firmware and XI582 with the appropriate EPROM.
For all settings to be done, please refer to the country and language settings table
that lists the settings for:
• Windows
• CARE / COACH
• Excel Online / COACH Online
• XI852 EPROM
• Controller firmware
For information on coding special characters in Western, Eastern and Turkish
languages, please refer to the character settings tables following the country and
language settings table.
To customize Windows, refer to the procedure following the character settings
tables.
Country
XL 40 XL 50 XL 50 XL100/500/800
Several
Australia
Albania
Austria
Belgium
Bulgaria
Brazil
Canada
China
Windows Version /
Regional and Language
Options Settings
Arabic
English (Australia)
Albanian
German (Austria)
Dutch (Belgium),
French (Belgium)
Bulgarian
Portuguese (Brazil)
English (Canada)
Chinese (Simplified)
Table 24. HBS Country and Language Settings
CARE Country
Code / Location
Selection
Arabic
(not supported)
Australia
not supported not supported not supported
Austria
Belgium
Russia
Brazil
Canada
PR China
Controllers with Internal Text MMI
XL40A2MMI
XI40AI
(required
firmware)
not supported not supported
XL50L207.02C
or higher
XL50L207.02C
or higher
XL50L207.02C
or or higher
not supported not supported
not supported not supported
XL50L207.02C
or higher
not supported not supported
XL50- MMI-xxxx
XL50D
XL50A-MMI-xxxx
XL50A-UMMI-xxxx
(required
firmware)
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
Controllers with
Internal
Graphic MMI
XL50CH
XL50CY
XL50TW
XL50ACH
XL50ACY
XL50ATW
(required
firmware)
not supported not supported not supported
EU50L207.02C
or higher
not supported not supported Western
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
Controllers with
External
XI581/2
XI581/2
XI581B/2B
(required
hardware)
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU Cyrillic
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU
XI581B/2B-CH
XL Online
CHINESE_
BIG5
EN2B-0092GE51 R0512 60
EXCEL 50/100/500/600/800 MISCELLEANOUS
61
Country
XL 40 XL 50 XL 50 XL100/500/800
Croatia
Czech
Republic
Denmark Danish
Finland
France
Germany German
Several
Hungary
Iceland
Ireland
Italy
Japan Japanese Japan not supported not supported not supported XI581B/2B-JP Japanese
Korea Korean Korea not supported not supported not supported not supported Western
Several
Lithuania Lithuanian
Macedonia Macedonian
Mexico
Morocco
Netherlands
New
Zealand
Norway
Poland
Portugal
Windows Version /
Regional and Language
Options Settings
Croatian
Czech
Finnish
French
Hebrew
Hungarian
Icelandic
English (Ireland)
Italian
Several
Spanish (Mexico)
French
Dutch
English (New Zealand)
Norwegian
Polish
Portuguese
CARE Country
Code / Location
Selection
Slovakia
Slovakia
Denmark
Finland
France
Germany
Hebrew
Hungary
Iceland
Ireland
Italy
Latin America XL50L207.02C
not supported not supported not supported
Russia
Mexico
France
Netherlands
New Zealand
Norway
Slovakia
Portugal
Controllers with Internal Text MMI
XL40A2MMI
XI40AI
(required
firmware)
not supported not supported
not supported not supported
not supported not supported
XL50L207.02C
or higher
XL50L207.02C
or higher
XL50L207.02C
or higher
not supported not supported
XL50L207.02C
or higher
XL50L207.02C
or higher
XL50L207.02C
or higher
XL50L207.02C
or higher
or higher
not supported not supported
XL50L207.02C
or higher
XL50L207.02C
or higher
XL50L207.02C
or higher
XL50L207.02C
or higher
not supported not supported
not supported not supported
not supported not supported
XL50- MMI-xxxx
XL50D
XL50A-MMI-xxxx
XL50A-UMMI-xxxx
(required
firmware)
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
Controllers with
Internal
Graphic MMI
XL50CH
XL50CY
XL50TW
XL50ACH
XL50ACY
XL50ATW
(required
firmware)
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
not supported not supported
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
Controllers with
External
XI581/2
XI581/2
XI581B/2B
(required
hardware)
XI581B/2B-EU Central
XI581B/2B-EU Central
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU Central
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU Cyrillic
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU Western
XI581B/2B-EU Central
XI581B/2B-EU Western
XL Online
European
European
European
Cyrillic
European
EN2B-0092GE51 R0512
MISCELLEANOUS EXCEL 50/100/500/600/800
Country
XL 40 XL 50 XL 50 XL100/500/800
Romania Romanian
Russia
Serbia
Slovakia
Slovenia
Spain
Sweden
Switzerland
Taiwan
Tunisia
Turkey
U.A.E.
Ukraine
United
Kingdom
United
States
Windows Version /
Regional and Language
Options Settings
Russian
Serbian (Latin, Bosnia
and Herzegovina)
Slovak
Slovenian
Spanish
Swedish
German (Switzerland),
French (Switzerland),
Italian (Switzerland)
Chinese (Taiwan)
French
Turkish
Arabic (U.A.E.)
Ukrainian
English (United Kingdom) United Kingdom XL50L207.02C
English
CARE Country
Code / Location
Selection
Slovakia
Russia
not supported not supported not supported
Slovakia
Slovakia
Spain
Sweden
Switzerland
Taiwan
France
Turkey
Arabic
(not supported)
Russia
United States
Controllers with Internal Text MMI
XL40A2MMI
XI40AI
(required
firmware)
not supported not supported
not supported not supported
not supported not supported
not supported not supported
XL50L207.02C
or higher
XL50L207.02C
or higher
XL50L207.02C
or higher
not supported not supported
XL50L207.02C
or higher
not supported not supported
not supported not supported
not supported not supported
or higher
XL50L207.02C
or higher
XL50- MMI-xxxx
XL50D
XL50A-MMI-xxxx
XL50A-UMMI-xxxx
(required
firmware)
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
EU50L207.02C or
higher
TW50L207.02C or
higher
XL50L207.02C or
higher
Controllers with
Internal
Graphic MMI
XL50CH
XL50CY
XL50TW
XL50ACH
XL50ACY
XL50ATW
(required
firmware)
EU50L207.02C
or higher
EU50L207.02C
or higher
not supported not supported Cyrillic
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
TW50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
not supported not supported not supported
EU50L207.02C
or higher
EU50L207.02C
or higher
EU50L207.02C
or higher
TW50L207.02C
or higher
XL50L207.02C
or higher
Table 25. CentraLine Country and Language Settings
Country
Tiger Panther Panther Lion
Several
Australia
Albania
Austria
Belgium
Bulgaria
Brazil Portuguese (Brazil) not supported not supported not supported not supported not supported not supported
Canada English (Canada) not supported not supported not supported not supported not supported not supported
China Chinese (Simplified) not supported not supported not supported not supported not supported not supported
Croatia
Czech
Republic
Denmark Danish
Finland
France
Germany German
Several
Hungary
Iceland
Ireland
Italy
Japan Japanese not supported not supported not supported not supported not supported not supported
Korea Korean not supported not supported not supported not supported not supported not supported
Lithuania Lithuanian
EU50L207.02C or
higher
TW50L207.02C
or higher
XL50L207.02C
or higher
Controllers with
Internal
Graphic MMI
CLPA13LC2x
CLPA13LM2x
CLPA21LC2x
CLPA21LM2x
(required
firmware)
EU50L207.02C
or higher
TW50L207.02C
or higher
XL50L207.02C
Controllers with
External
CLMMI00N2x
CLMMI00N2x
(required
hardware)
EU50L207.02C
or higher
TW50L207.02C
or higher
XL50L207.02C
Table 26. Character Settings (Western Europe)
Hex
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
20 32 32 SPACE
23 35 # 35 NUMBER SIGN
COACH
Online
Western
24 36 $ 36 DOLLAR SIGN
25 37 % 37 PERCENT SIGN
26 38 & 38 AMPERSAND
27 39 ' 39 APOSTROPHE
28 40 ( 40 LEFT PARENTHESIS
29 41 ) 41 RIGHT PARENTHESIS
2E 46 . 46 FULL STOP
30 48 0 48 DIGIT ZERO
31 49 1 49 DIGIT ONE
32 50 2 50 DIGIT TWO
33 51 3 51 DIGIT THREE
34 52 4 52 DIGIT FOUR
35 53 5 53 DIGIT FIVE
36 54 6 54 DIGIT SIX
37 55 7 55 DIGIT SEVEN
38 56 8 56 DIGIT EIGHT
39 57 9 57 DIGIT NINE
3A 58 : 58 COLON
40 64 @ 64 COMMERCIAL AT
41 65 A 65 LATIN CAPITAL LETTER A
42 66 B 66 LATIN CAPITAL LETTER B
EN2B-0092GE51 R0512
MISCELLEANOUS EXCEL 50/100/500/600/800
Hex
43 67 C 67 LATIN CAPITAL LETTER C
44 68 D 68 LATIN CAPITAL LETTER D
45 69 E 69 LATIN CAPITAL LETTER E
46 70 F 70 LATIN CAPITAL LETTER F
47 71 G 71 LATIN CAPITAL LETTER G
48 72 H 72 LATIN CAPITAL LETTER H
49 73 I 73 LATIN CAPITAL LETTER I
4A 74 J 74 LATIN CAPITAL LETTER J
4B 75 K 75 LATIN CAPITAL LETTER K
4C 76 L 76 LATIN CAPITAL LETTER L
4D 77 M 77 LATIN CAPITAL LETTER M
4E 78 N 78 LATIN CAPITAL LETTER N
4F 79 O 79 LATIN CAPITAL LETTER O
50 80 P 80 LATIN CAPITAL LETTER P
51 81 Q 81 LATIN CAPITAL LETTER Q
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
52 82 R 82 LATIN CAPITAL LETTER R
53 83 S 83 LATIN CAPITAL LETTER S
54 84 T 84 LATIN CAPITAL LETTER T
55 85 U 85 LATIN CAPITAL LETTER U
56 86 V 86 LATIN CAPITAL LETTER V
57 87 W 87 LATIN CAPITAL LETTER W
58 88 X 88 LATIN CAPITAL LETTER X
59 89 Y 89 LATIN CAPITAL LETTER Y
5A 90 Z 90 LATIN CAPITAL LETTER Z
5F 95 _ 95 LOW LINE
61 97 a 97 LATIN SMALL LETTER A
62 98 b 98 LATIN SMALL LETTER B
63 99 c 99 LATIN SMALL LETTER C
64 100 d 100 LATIN SMALL LETTER D
65 101 e 101 LATIN SMALL LETTER E
66 102 f 102 LATIN SMALL LETTER F
67 103 g 103 LATIN SMALL LETTER G
68 104 h 104 LATIN SMALL LETTER H
69 105 i 105 LATIN SMALL LETTER I
6A 106 j 106 LATIN SMALL LETTER J
6B 107 k 107 LATIN SMALL LETTER K
EN2B-0092GE51 R0512 66
EXCEL 50/100/500/600/800 MISCELLEANOUS
67
Hex
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
6C 108 l 108 LATIN SMALL LETTER L
6D 109 m 109 LATIN SMALL LETTER M
6E 110 n 110 LATIN SMALL LETTER N
6F 111 o 111 LATIN SMALL LETTER O
70 112 p 112 LATIN SMALL LETTER P
71 113 q 113 LATIN SMALL LETTER Q
72 114 r 114 LATIN SMALL LETTER R
73 115 s 115 LATIN SMALL LETTER S
74 116 t 116 LATIN SMALL LETTER T
75 117 u 117 LATIN SMALL LETTER U
76 118 v 118 LATIN SMALL LETTER V
77 119 w 119 LATIN SMALL LETTER W
78 120 x 120 LATIN SMALL LETTER X
79 121 y 121 LATIN SMALL LETTER Y
7A 122 z 122 LATIN SMALL LETTER Z
7E 126 ~ 126 TILDE
80 128 Ç 199 LATIN CAPITAL LETTER C WITH CEDILLA
81 129 ü 252 LATIN SMALL LETTER U WITH DIAERESIS
82 130 é 233 LATIN SMALL LETTER E WI TH ACUTE
83 131 â 226 LATIN SMALL LETTER A WI TH CIRCUMFLEX
84 132 ä 228 LATIN SMALL LETTER A WI TH DIAERESIS
85 133 à 224 LATIN SMALL LETTER A WI TH GRAVE
86 134 å 229 LATIN SMALL LETTER A WI TH RING ABOVE
87 135 ç 231 LATIN SMALL LETTER C WITH CEDILLA
88 136 ê 234 LATIN SMALL LETTER E WITH CIRCUMFLEX
89 137 ë 235 LATIN SMALL LETTER E WI TH DIAERESIS
8A 138 è 232 LATIN SMALL LETTER E WITH GRAVE
8B 139 ï 239 LATIN SMALL LETTER I WITH DIAERESIS
8C 140 î 238 LATIN SMALL LETTER I WITH CIRCUMFLEX
8D 141 ì 236 LATIN SMALL LETTER I WITH GRAVE
8E 142 Ä 196 LATIN CAPITAL LETTER A WITH DIAERESIS
8F 143 Å 197 LATIN CAPITAL LETTER A WITH RING ABOVE
90 144 É 201 LATIN CAPITAL LETTER E WITH ACUTE
91 145 æ 230 LATIN SMALL LETTER AE
92 146 Æ 198 LATIN CAPITAL LETTER AE
93 147 ô 244 LATIN SMALL LETTER O WITH CIRCUMFLEX
EN2B-0092GE51 R0512
MISCELLEANOUS EXCEL 50/100/500/600/800
Hex
94 148 ö 246 LATIN SMALL LETTER O WITH DIAERESIS
95 149 ò 242 LATIN SMALL LETTER O WITH GRAVE
96 150 û 251 LATIN SMALL LETTER U WITH CIRCUMFLEX
97 151 ù 249 LATIN SMALL LETTER U WITH GRAVE
98 152 ÿ 255 LATIN SMALL LETTER Y WITH DIAERESIS
99 153 Ö 214 LATIN CAPITAL LETTER O WI TH DIAERESIS
9A 154 Ü 220 LATIN CAPITAL LETTER U WITH DIAERESIS
9B 155 ø 248 LATIN SMALL LETTER O WITH STROKE
9D 157 Ø 216 LATIN CAPITAL LETTER O WITH STROKE
9F 159 ƒ 402 LATIN SMALL LETTER F WITH HOOK
A0 160 á 225 LATIN SMALL LETTER A WITH ACUTE
A1 161 í 237 LATIN SMALL LETTER I WITH ACUTE
A2 162 ó 243 LATIN SMALL LETTER O WITH ACUTE
A3 163 ú 250 LATIN SMALL LETTER U WITH ACUTE
A4 164 ñ 241 LATIN SMALL LETTER N WITH TILDE
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
A5 165 Ñ 209 LATIN CAPITAL LETTER N WITH TILDE
A8 168 ¿ 191 INVERTED QUESTION MARK
B5 181 Á 193 LATIN CAPITAL LETTER A WITH ACUTE
B6 182 Â 194 LATIN CAPITAL LE TTER A WITH CIRCUMFLEX
B7 183 À 192 LATIN CAPITAL LETTER A WITH GRAVE
C6 198 ã 227 LATIN SMALL LETTER A WITH TILDE
C7 199 Ã 195 LATIN CAPITAL LETTER A WITH TILDE
D0 208 ð 240 LATIN SMALL LETTER ETH
D1 209 Ð 208 LATIN CAPITAL LETTER ETH
D2 210 Ê 202 LATIN CAPITAL LETTER E WITH CIRCUMFLEX
D3 211 Ë 203 LATIN CAPITAL LETTER E WITH DIAERESIS
D4 212 È 200 LATIN CAPITAL LETTER E WITH GRAVE
D5 213 ı305 LATIN SMALL LETTER DOTLESS I
D6 214 Í 205 LATIN CAPITAL LETTER I WITH ACUTE
D7 215 Î 206 LATIN CAPITAL LETTER I WITH CIRCUMFLEX
D8 216 Ï 207 LATIN CAPITAL LETTER I WITH DIAERESIS
DE 222 Ì 204 LATIN CAPITAL LETTER I WITH GRAVE
E0 224 Ó 211 LATIN CAPITAL LETTER O WITH ACUTE
E1 225 ß 223 LATIN SMALL LETTER SHARP S
E2 226 Ô 212 LATIN CAPITAL LETTER O WITH CIRCUMFLEX
E3 227 Ò 210 LATIN CAPITAL LETTER O WITH GRAVE
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Hex
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
E4 228 õ 245 LATIN SMALL LETTER O WITH TILDE
E5 229 Õ 213 LATIN CAPITAL LETTER O WITH TILDE
E6 230 µ 181 MICRO SIGN
E7 231 þ 254 LATIN SMALL LETTER THORN
E8 232 Þ 222 LATIN CAPITAL LETTER THORN
E9 233 Ú 218 LATIN CAPITAL LETTER U WITH ACUTE
EA 234 Û 219 LATIN CAPITAL LETTER U WITH CIRCUMFLEX
EB 235 Ù 217 LATIN CAPITAL LETTER U WITH GRAVE
EC 236 ý 253 LATIN SMALL LETTER Y WITH ACUTE
ED 237 Ý 221 LATIN CAPITAL LETTER Y WITH ACUTE
EF 239 ´ 180 ACUTE ACCENT
F8 248 ° 176 DEGREE SIGN
Table 27. Character Settings (Eastern Europe)
Hex
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
20 32 32 SPACE
23 35 # 35 NUMBER SIGN
24 36 $ 36 DOLLAR SIGN
25 37 % 37 PERCENT SIGN
26 38 & 38 AMPERSAND
27 39 ' 39 APOSTROPHE
28 40 ( 40 LEFT PARENTHESIS
29 41 ) 41 RIGHT PARENTHESIS
2E 46 . 46 FULL STOP
30 48 0 48 DIGIT ZERO
31 49 1 49 DIGIT ONE
32 50 2 50 DIGIT TWO
33 51 3 51 DIGIT THREE
34 52 4 52 DIGIT FOUR
35 53 5 53 DIGIT FIVE
36 54 6 54 DIGIT SIX
37 55 7 55 DIGIT SEVEN
38 56 8 56 DIGIT EIGHT
39 57 9 57 DIGIT NINE
3A 58 : 58 COLON
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Hex
40 64 @ 64 COMMERCIAL AT
41 65 A 65 LATIN CAPITAL LETTER A
42 66 B 66 LATIN CAPITAL LETTER B
43 67 C 67 LATIN CAPITAL LETTER C
44 68 D 68 LATIN CAPITAL LETTER D
45 69 E 69 LATIN CAPITAL LETTER E
46 70 F 70 LATIN CAPITAL LETTER F
47 71 G 71 LATIN CAPITAL LETTER G
48 72 H 72 LATIN CAPITAL LETTER H
49 73 I 73 LATIN CAPITAL LETTER I
4A 74 J 74 LATIN CAPITAL LETTER J
4B 75 K 75 LATIN CAPITAL LETTER K
4C 76 L 76 LATIN CAPITAL LETTER L
4D 77 M 77 LATIN CAPITAL LETTER M
4E 78 N 78 LATIN CAPITAL LETTER N
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
4F 79 O 79 LATIN CAPITAL LETTER O
50 80 P 80 LATIN CAPITAL LETTER P
51 81 Q 81 LATIN CAPITAL LETTER Q
52 82 R 82 LATIN CAPITAL LETTER R
53 83 S 83 LATIN CAPITAL LETTER S
54 84 T 84 LATIN CAPITAL LETTER T
55 85 U 85 LATIN CAPITAL LETTER U
56 86 V 86 LATIN CAPITAL LETTER V
57 87 W 87 LATIN CAPITAL LETTER W
58 88 X 88 LATIN CAPITAL LETTER X
59 89 Y 89 LATIN CAPITAL LETTER Y
5A 90 Z 90 LATIN CAPITAL LETTER Z
5F 95 _ 95 LOW LINE
61 97 a 97 LATIN SMALL LETTER A
62 98 b 98 LATIN SMALL LETTER B
63 99 c 99 LATIN SMALL LETTER C
64 100 d 100 LATIN SMALL LETTER D
65 101 e 101 LATIN SMALL LETTER E
66 102 f 102 LATIN SMALL LETTER F
67 103 g 103 LATIN SMALL LETTER G
68 104 h 104 LATIN SMALL LETTER H
EN2B-0092GE51 R0512 70
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Hex
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
69 105 i 105 LATIN SMALL LETTER I
6A 106 j 106 LATIN SMALL LETTER J
6B 107 k 107 LATIN SMALL LETTER K
6C 108 l 108 LATIN SMALL LETTER L
6D 109 m 109 LATIN SMALL LETTER M
6E 110 n 110 LATIN SMALL LETTER N
6F 111 o 111 LATIN SMALL LETTER O
70 112 p 112 LATIN SMALL LETTER P
71 113 q 113 LATIN SMALL LETTER Q
72 114 r 114 LATIN SMALL LETTER R
73 115 s 115 LATIN SMALL LETTER S
74 116 t 116 LATIN SMALL LETTER T
75 117 u 117 LATIN SMALL LETTER U
76 118 v 118 LATIN SMALL LETTER V
77 119 w 119 LATIN SMALL LETTER W
78 120 x 120 LATIN SMALL LETTER X
79 121 y 121 LATIN SMALL LETTER Y
7A 122 z 122 LATIN SMALL LETTER Z
7E 126 ~ 126 TILDE
80 128 Ç 199 LATIN CAPITAL LETTER C WITH CEDILLA
81 129 ü 252 LATIN SMALL LETTER U WITH DIAERESIS
82 130 é 233 LATIN SMALL LETTER E WITH ACUTE
83 131 â 226 LATIN SMALL LETTER A WITH CIRCUMFLEX
84 132 ä 228 LATIN SMALL LETTER A WITH DIAERESIS
85 133 ů367 LATIN SMALL LETTER U WITH RING ABOVE
86 134 ć263 LATIN SMALL LETTER C WITH ACUTE
87 135 ç 231 LATIN SMALL LETTER C WITH CEDILLA
88 136 ł322 LATIN SMALL LETTER L WITH STROKE
89 137 ë 235 LATIN SMALL LETTER E WITH DIAERESIS
8A 138 Ő336
LATIN CAPITAL LETTER O WITH DOUBLE
ACUTE
8B 139 ő337 LATIN SMALL LETTER O WITH DOUBLE ACUTE
8C 140 î 238 L A TIN SMALL LE TTER I WITH CIRCUMFLEX
8D 141 Ź377 LATIN CAPITAL LETTER Z WITH ACUTE
8E 142 Ä 196 LATIN CAPITAL LETTER A WITH DIAERESIS
8F 143 Ć262 LATIN CAPITAL LETTER C WITH ACUTE
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Hex
90 144 É 201 LATIN CAPITAL LETTER E WITH ACUTE
91 145 Ĺ313 LATIN CAPITAL LETTER L WITH ACUTE
92 146 ĺ314 LATIN SMALL LETTER L WITH ACUTE
93 147 ô 244 LATIN SMALL LETTER O WITH CIRCUMFLEX
94 148 ö 246 LATIN SMALL LETTER O WITH DIAERESIS
95 149 Ľ317 LATIN CAPITAL LETTER L WITH CARON
96 150 ľ318 LATIN SMALL LETTER L WI TH CARON
97 151 Ś346 LATIN CAPITAL LETTER S WITH ACUTE
98 152 ś347 LATIN SMALL LETTER S WITH ACUTE
99 153 Ö 214 LATIN CAPITAL LETTER O WITH DIAERESIS
9A 154 Ü 220 LATIN CAPITAL LETTER U WITH DIAERESIS
9B 155 Ť356 LATIN CAPITAL LETTER T WITH CARON
9C 156 ť357 LATIN SMALL LETTER T WITH CARON
9D 157 Ł321 LATIN CAPITAL LETTER L WITH STROKE
9F 159 č269 LATIN SMALL LETTER C WITH CARON
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
A0 160 á 225 LATIN SMALL LETTER A WITH ACUTE
A1 161 í 237 LATIN SMALL LETTER I WITH ACUTE
A2 162 ó 243 LATIN SMALL LETTER O WITH ACUTE
A3 163 ú 250 LATIN SMALL LETTER U WITH ACUTE
A4 164 Ą260 LATIN CAPITAL LETTER A WITH OGONEK
A5 165 ą261 LATIN SMALL LETTER A WITH OGONEK
A6 166 Ž 381 LATIN CAPITAL LETTER Z WITH CARON
A7 167 ž 382 LATIN SMALL LETTER Z WITH CARON
A8 168 Ę280 LATIN CAPITAL LETTER E WITH OGONEK
A9 169 ę281 LATIN SMALL LETTER E WITH OGONEK
AB 171 ź378 LATIN SMALL LETTER Z WITH ACUTE
AC 172 Č268 LATIN CAPITAL LETTER C WITH CARON
AD 173 ş351 L ATIN SMALL LETTER S WITH CEDILLA
B5 181 Á 193 LATIN CAPITAL LETTER A WITH ACUTE
B6 182 Â 194 LATIN CAPITAL LETTER A WITH CIRCUMFLEX
B7 183 Ě282 LATIN CAPITAL LETTER E WITH CARON
B8 184 Ş350 LATIN CAPITAL LETTER S W I TH CEDILLA
BD 189 Ż379 LATIN CAPITAL LETTER Z WITH DOT ABOVE
BE 190 ż380 LATIN SMALL LETTER Z WITH DOT ABOVE
C6 198 Ă258 LATIN CAPITAL LETTER A WITH BREVE
C7 199 ă259 LATIN SMALL LETTER A WITH BREVE
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Hex
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
D0 208 đ273 LATIN SMALL LETTER D WITH STROKE
D1 209 Đ272 LATIN CAPITAL LETTER D WITH STROKE
D2 210 Ď270 LATIN CAPITAL LETTER D WITH CARON
D3 211 Ë 203 LATIN CAPITAL LETTER E WITH DIAERESIS
D4 212 ď271 LATIN SMALL LETTER D WITH CARON
D5 213 Ň327 LATIN CAPITAL LETTER N WITH CARON
D6 214 Í 205 LATIN CAPITAL LETTER I WITH ACUTE
D7 215 Î 206 LATIN CAPITAL LETTER I WITH CIRCUMFLEX
D8 216 ě283 LATIN SMALL LETTER E WITH CARON
DD 221 Ţ354 LATIN CAPITAL LETTER T WITH CEDILLA
DE 222 Ů366 LATIN CAPITAL LETTER U WITH RING ABOVE
E0 224 Ó 211 LATIN CAPITAL LETTER O WITH ACUTE
E1 225 ß 223 LATIN SMALL LETTER SHARP S
E2 226 Ô 212 LATIN CAPITAL LETTER O WITH CIRCUMFLEX
E3 227 Ń323 LATIN CAPITAL LETTER N WITH ACUTE
E4 228 ń324 LATIN SMALL LETTER N WITH ACUTE
E5 229 ň328 LATIN SMALL LETTER N WITH CARON
E6 230 Š 352 LATIN CAPITAL LETTER S WITH CARON
E7 231 š 353 LATIN SMALL LETTER S WITH CARON
E8 232 Ŕ340 LATIN CAPITAL LETTER R WITH ACUTE
E9 233 Ú 218 LATIN CAPITAL LETTER U WITH ACUTE
EA 234 ŕ341 LATIN SMALL LETTER R WITH ACUTE
EB 235 Ű368
LATIN CAPITAL LETTER U WITH DOUBLE
ACUTE
EC 236 ý 253 L ATIN SMALL LETTER Y WI TH ACUTE
ED 237 Ý 221 LATIN CAPITAL LETTER Y WITH ACUTE
EE 238 ţ355 LATIN SMALL LETTER T WITH CEDILLA
F8 248 ° 176 DEGREE SIGN
FB 251 ű369 LATIN SMALL LETTER U WITH DOUBLE ACUTE
FC 252 Ř344 LATIN CAPITAL LETTER R WITH CARON
FD 253 ř345 LA TIN SMALL LE TTER R WITH CARON
Table 28. Character Settings (Turkey)
Hex
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
20 32 32 SPACE
23 35 # 35 NUMBER SIGN
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Hex
24 36 $ 36 DOLLAR SIGN
25 37 % 37 PERCENT SIGN
26 38 & 38 AMPERSAND
27 39 ' 39 APOSTROPHE
28 40 ( 40 LEFT PARENTHESIS
29 41 ) 41 RIGHT PARENTHESIS
2E 46 . 46 FULL STOP
30 48 0 48 DIGIT ZERO
31 49 1 49 DIGIT ONE
32 50 2 50 DIGIT TWO
33 51 3 51 DIGIT THREE
34 52 4 52 DIGIT FOUR
35 53 5 53 DIGIT FIVE
36 54 6 54 DIGIT SIX
37 55 7 55 DIGIT SEVEN
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
38 56 8 56 DIGIT EIGHT
39 57 9 57 DIGIT NINE
3A 58 : 58 COLON
40 64 @ 64 COMMERCIAL AT
41 65 A 65 LATIN CAPITAL LETTER A
42 66 B 66 LATIN CAPITAL LETTER B
43 67 C 67 LATIN CAPITAL LETTER C
44 68 D 68 LATIN CAPITAL LETTER D
45 69 E 69 LATIN CAPITAL LETTER E
46 70 F 70 LATIN CAPITAL LETTER F
47 71 G 71 LATIN CAPITAL LETTER G
48 72 H 72 LATIN CAPITAL LETTER H
49 73 I 73 LATIN CAPITAL LETTER I
4A 74 J 74 LATIN CAPITAL LETTER J
4B 75 K 75 LATIN CAPITAL LETTER K
4C 76 L 76 LATIN CAPITAL LETTER L
4D 77 M 77 LATIN CAPITAL LETTER M
4E 78 N 78 LATIN CAPITAL LETTER N
4F 79 O 79 L ATIN CAPITAL LETTER O
50 80 P 80 LATIN CAPITAL LETTER P
51 81 Q 81 LATIN CAPITAL LETTER Q
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Hex
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
52 82 R 82 LATIN CAPITAL LETTER R
53 83 S 83 LATIN CAPITAL LETTER S
54 84 T 84 LATIN CAPITAL LETTER T
55 85 U 85 LATIN CAPITAL LETTER U
56 86 V 86 LATIN CAPITAL LETTER V
57 87 W 87 LATIN CAPITAL LETTER W
58 88 X 88 LATIN CAPITAL LETTER X
59 89 Y 89 LATIN CAPITAL LETTER Y
5A 90 Z 90 LATIN CAPITAL LETTER Z
5F 95 _ 95 LOW LINE
61 97 a 97 LATIN SMALL LETTER A
62 98 b 98 LATIN SMALL LETTER B
63 99 c 99 LATIN SMALL LETTER C
64 100 d 100 LATIN SMALL LETTER D
65 101 e 101 LATIN SMALL LETTER E
66 102 f 102 LATIN SMALL LETTER F
67 103 g 103 LATIN SMALL LETTER G
68 104 h 104 LATIN SMALL LETTER H
69 105 i 105 LATIN SMALL LETTER I
6A 106 j 106 LATIN SMALL LETTER J
6B 107 k 107 LATIN SMALL LETTER K
6C 108 l 108 LATIN SMALL LETTER L
6D 109 m 109 LATIN SMALL LETTER M
6E 110 n 110 LATIN SMALL LETTER N
6F 111 o 111 LATIN SMALL LETTER O
70 112 p 112 LATIN SMALL LETTER P
71 113 q 113 LATIN SMALL LETTER Q
72 114 r 114 LATIN SMALL LETTER R
73 115 s 115 LATIN SMALL LETTER S
74 116 t 116 LATIN SMALL LETTER T
75 117 u 117 LATIN SMALL LETTER U
76 118 v 118 LATIN SMALL LETTER V
77 119 w 119 L ATIN SMALL LETTER W
78 120 x 120 LATIN SMALL LETTER X
79 121 y 121 LATIN SMALL LETTER Y
7A 122 z 122 LATIN SMALL LETTER Z
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Hex
7E 126 ~ 126 TILDE
80 128 Ç 199 LATIN CAPITAL LETTER C WITH CEDILLA
81 129 ü 252 LATIN SMALL LETTER U WITH DIAERESIS
82 130 é 233 LATIN SMALL LETTER E WITH ACUTE
83 131 âyyy 226 LATIN SMALL LETTER A WITH CIRCUMFLEX
84 132 ä 228 LATIN SMALL LETTER A WITH DIAERESIS
85 133 à 224 LATIN SMALL LETTER A WITH GRAVE
86 134 å 229 LATIN SMALL LETTER A WITH RING ABOVE
87 135 ç 231 LATIN SMALL LETTER C WITH CEDILLA
88 136 ê 234 LATIN SMALL LETTER E WITH CIRCUMFLEX
89 137 ë 235 LATIN SMALL LETTER E WITH DIAERESIS
8A 138 è 232 LATIN SMALL LETTER E WITH GRAVE
8B 139 ï 239 LATIN SMALL LETTER I WITH DIAERESIS
8C 140 î 238 LATIN SMALL LETTER I WITH CIRCUMFLEX
8D 141 ı305 LATIN SMALL LETTER DOTLESS I
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
8E 142 Ä 196 LATIN CAPITAL LETTER A WITH DIAERESIS
8F 143 Å 197 LATIN CAPITAL LETTER A WITH RING ABOVE
90 144 É 201 LATIN CAPITAL LETTER E WITH ACUTE
91 145 æ 230 LATIN SMALL LETTER AE
92 146 Æ 198 LATIN CAPITAL LETTER AE
93 147 ô 244 LATIN SMALL LETTER O WITH CIRCUMFLEX
94 148 ö 246 LATIN SMALL LETTER O WITH DIAERESIS
95 149 ò 242 LATIN SMALL LETTER O WITH GRAVE
96 150 û 251 LATIN SMALL LETTER U WITH CIRCUMFLEX
97 151 ù 249 LATIN SMALL LETTER U WITH GRAVE
98 152 İ304 LATIN CAPITAL LETTER I WITH DOT ABOVE
99 153 Ö 214 LATIN CAPITAL LETTER O WITH DIAERESIS
9A 154 Ü 220 LATIN CAPITAL LETTER U WITH DIAERESIS
9B 155 ø 248 LATIN SMALL LETTER O WITH STROKE
9D 157 Ø 216 LATIN CAPITAL LETTER O WITH STROKE
9E 158 Ş350 LATIN CAPITAL LETTER S WITH CEDILLA
9F 159 ş351 LATIN SMALL LETTER S WITH CEDILLA
A0 160 á 225 LATIN SMALL LETTER A WITH ACUTE
A1 161 í 237 LATIN SMALL LETTER I WITH ACUTE
A2 162 ó 243 LATIN SMALL LETTER O WITH ACUTE
A3 163 ú 250 LATIN SMALL LETTER U WITH ACUTE
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Hex
Dec Char Unicode ISO/IEC 10646-1:2000 Character Name
A4 164 ñ 241 LA TIN SMALL LETTER N WITH TILD E
A5 165 Ñ 209 LATIN CAPITAL LETTER N WITH TI LDE
A6 166 Ğ286 LATIN CAPITAL LETTER G WITH BREVE
A7 167 ğ287 LATIN SMALL LETTER G WITH BREVE
A8 168 ¿ 191 INVERTED QUESTION MARK
B5 181 Á 193 LATIN CAPITAL LETTER A WITH ACUTE
B6 182 Â 194 LATIN CAPITAL LETTER A WITH CIRCUMFLEX
B7 183 À 192 LATIN CAPITAL LETTER A WITH GRAVE
C6 198 ã 227 LATIN SMALL LETTER A WITH TILDE
C7 199 Ã 195 LATIN CAPITAL LETTER A WITH TILDE
D2 210 Ê 202 LATIN CAPITAL LETTER E WITH CIRCUMFLEX
D3 211 Ë 203 LATIN CAPITAL LETTER E WITH DIAERESIS
D4 212 È 200 LATIN CAPITAL LETTER E WITH GRAVE
D6 214 Í 205 LATIN CAPITAL LETTER I WITH ACUTE
D7 215 Î 206 LATIN CAPITAL LETTER I WITH CIRCUMFLEX
D8 216 Ï 207 LATIN CAPITAL LETTER I W I TH DIAERESIS
DE 222 Ì 204 LATIN CAPITAL LETTER I WITH GRAVE
E0 224 Ó 211 LATIN CAPITAL LETTER O WITH ACUTE
E1 225 ß 223 LATIN SMALL LETTER SHARP S
E2 226 Ô 212 LATIN CAPITAL LETTER O WITH CIRCUMFLEX
E3 227 Ò 210 LATIN CAPITAL LETTER O WITH GRAVE
E4 228 õ 245 LA TIN SMALL LETTER O WITH TILDE
E5 229 Õ 213 LATIN CAPITAL LETTER O WI TH TILDE
E6 230 µ 181 MICRO SIGN
E9 233 Ú 218 LATIN CAPITAL LETTER U WITH ACUTE
EA 234 Û 219 LATIN CAPITAL LETTER U WITH CIRCUMFLEX
EB 235 Ù 217 LATIN CAPITAL LETTER U WITH GRAVE
EC 236 ì 236 LATIN SMALL LETTER I WITH GRAVE
ED 237 ÿ 255 LATIN SMALL LETTER Y WITH DIAERESIS
F8 248 ° 176 DEGREE SIGN
EN2B-0092GE51 R0512
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Procedure1. In Windows, click Start>Settings>Control panel.
2. Double-click Regional and Language Options. The Regional and Language Options dialog box displays.
3. On the Regional Options tab under Standards and formats, select the
language for displaying standards and formats such as format numbers,
currencies, dates, and time.
4. Under Location, select the matching country for supporting you with local
services such as news and weather.
5. Select the Languages tab.
6. If you want to support Arabic, Armenian, Georgian, Thai, Hebrew, Indic, Thai
and Vietnamese languages, check Install files for complex script and right-to-left languages (including Thai).
7. If you want to support Japanese, Chinese and Korean languages, chec k Install files for East Asian languages under Supplemental language support.
8. Make sure that you have the necess ary harddisk space indicated in the
message boxes displayed. Close the message boxes by clicking OK.
After confirming by clicking OK or Apply, the additional files will be installed on
the PC.
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9. After successful installation, repeat steps 1 through 5, and then proceed with
step 10.
10. Click Details button. The Text Services and Input Languages dialog box
displays. The actual input language is selected in Default input language and
the corresponding installed services are highlighted in bold under Installed services.
11. To add a new input language, click the Add button. The Add Input Language
dialog box displays.
12. In Input Language, select the language, in this case Italian. Check/select
optional settings for Keyboard layout/IME, Handwriting recognition and Speech
if available and if desired.
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13. Click OK. The new language and its services are added to the Installed
Services list and can be selected as default input language.
14. In Default input language, select the language, in this case Italian.
15. In the Text Services and Input Languages dialog box, click the Language bar
button. The Language Bar Settings dialog box displays. Check Show the
Language bar on the desktop and Show additional Language bar icons in
the task bar. These enabled options allow toggling between several
language(s) on the desktop and in the taskbar after the customization is
finished.
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16. Click OK.
17. In the Text Services and Input Languages dialog box, click OK, and then select
the Advanced tab in the Regional and Language Options dialog box.
18. In Language for non-Unicode programs, select the language, in this case
Italian.
19. Click OK to save all settings. The Advanced message box may display.
20. Follow the instructions described in the message box, and close the message
box. The Change Regional Options message box displays.
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21. Restart the PC by clicking Yes. After restart, the new language, in this case
Italian is added to the Language bar.
22. Check the language in the Language bar.
23. For selecting the language in CARE, COACH, XL-Online respectively in
COACH Online, please refer to the corresponding Online Help and/or PDF
documentation.
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83
INDEX
alarms
alarm definition, 17
alarm delay, 17
alarm handling, 45
alarm hysteresis, 21
alarm status, 45
alarm suppression, 17, 18, 33, 46, 50
alarm type, 16, 17
alarms sent across the system bus, 51
automatic/manual alarms, 30, 31, 45
data storage, 51
point alarms, 17, 31, 45
specifying a maintenance alarm, 27, 45
specifying alarm limit values, 19
system alarm Totalizer Overflow, 25
system alarms, 46
user program alarms, 51
attributes
Access, 22
Access Level, 13
Acknowledge Alarm, 13
Active State, 14, 16, 20, 28, 45
Alarm Delay, 15
Alarm Hysteresis, 21, 23
Alarm Status, 13, 15, 16, 31, 56
Broadcast Hysteresis, 23
Cycle Count, 18
Delay Time Switching Down, 18
Delay Time Switching Up, 18
Descriptor, 19
Engineering Unit, 19
Feedback Delay, 19
High Alarm Limit, 20
High Warning Limit, 20
Hours Run, 20
Hours Run Log, 20
I/O Characteristic, 25
Interval Count, 24, 45
Interval Limit, 25
Last Change, 26
Last Maintained, 20
Low Alarm Limit, 20
Low Warning Limit, 20
Maintenance Alarm, 15, 16, 21, 27
Maintenance Interval, 45
Manual Value, 13, 56
Max. Limit, 16, 31
Min. Limit, 16, 31
Motor Run Time, 29
Network Variable, 28
Normally Open/Normally Closed, 16, 24, 28, 45
Off Phase, 29
Operating Mode, 13, 15, 16, 27, 29, 30, 56
Output Type, 31
Point in Alarm, 17
Pulse Duration, 32
Remote, 30
Scaling Factor, 31, 32
Sensor Offset, 33
pseudo analog points, 11, 19, 21, 27, 35, 45
pseudo digital points, 11, 15, 16, 45
pseudo point multistage data-points, 11
pseudo totalizer inputs, 11
remote communication
direct modem connection, 56
disabling dial-out, 56
test mode, 53
time programs, 41
annual program, 42
daily program, 41
generating a time program, 43
special day list, 43
structure of, 41
TODAY function, 43
weekly program, 42
user addresses, 36
access via, 10
assignable to each of 384 data-points, 19
default user addresses, 53
number of switching points per, 42
relationship between user addresses and descriptors, 19
EN2B-0092GE51 R0512
Manufactured for and on behalf of the Environmental and Combustion Controls Division of Honeywell Technologies Sàrl, Rolle, Z.A. La Pièce 16, Switzerland by its Authorized Representative: