Prolon T1100 User manual

T1100
User Guide
Ver. 5.1
Introduction
The T1100 digital thermostats are networkable, microprocessor-based
thermostats designed for zoning applications. Proportional and integral (PI)
control loops, working in conjunction with fully customizable outputs (1 analog / 1
digital) deliver accurate yet flexible control strategies. An auxiliary analog input is
available for zone temperature averaging or as a radiant floor slab temperature
input. Configuration, performed via a capacitive circular touch pad, is made easy
through an intuitive menu system displayed on a backlit graphic LCD screen.
Installation
1. Open casing to remove back cover by
pushing on the tab located underneath the
thermostat. (Figure 1)
2. Pull wire(s) through central hole of back
cover.
3. Screw in the back cover to the wall.
4. Connect wires:
Pull out the screw terminal blocks.
Remove 1 cm insulation from the end of
each wire.
Connect the wires to the terminal
blocks: see Figure 2 for pin
identification. Typical wiring examples
can be found below.
Reinstall terminal blocks.
5. Reconnect top cover
Important: Do not install the thermostat under
the following conditions:
xAny location exposed to direct sunlight
xOn an outside wall
xNear an air discharge grill
xIn a location where vertical air circulation
is restricted
xNear a dimmer switch
Figure 1
Figure 2
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Power source
The T1100 is powered by a 24 VAC
power source connected using the
"COM" pin and the "24 AC" pin (see
N
L
120Vac24Vac
24 VAC
COM
1
2
3
4
Figure 3). The common for the
power source is shared by the
auxiliary analog input and the analog
output.
Figure 3: Power Source
Network Setup
RS485
Daisy
Chain
NET A (+)
NET B (-)
1
2
3
4
The T1100 can work autonomously
or networked. When networked, it
will communicate in real-time with
other ProLon controllers. The T1100
uses the Modbus RTU protocol over
RS485. A unique network address
must be assigned to each device on
the network. For the T1100, this can
be done through the menu system.
The network connections are made
using the “NETA” (+) and “NETB” (-)
pins (
Figure 4: Network Connection
Figure 4). Bias and terminating
resistors can be activated or
deactivated using jumpers on the
back of the PCB (see Figure 5). Bias
and terminating resistors are used to
improve signal quality in an RS485
network. For more information
regarding application of network
resistors or shielding, see the
ProLon Network Guide.
Figure 5: Network Resistor Jumpers
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Auxiliary Analog Input
The T1100 has an auxiliary analog
input which can be used to connect
another thermistor. The T1100 can
be configured to use this alternate
temperature reading for a variety of
functions, including temperature
averaging or radiant floor slab
temperature. The alternate
thermistor (10KΩtype 3) can be
connected to the auxiliary input using
the “AUX IN” and “COM” pins (see
5
6
7
8
9
10
AUX IN
COM
Figure 6: Auxiliary Input
Figure 6).
Outputs Specifications
The T1100 series thermostats contain a fully customizable Triac output and a 0-
10VDC output to drive components. An integrated resettable fuse protects both
outputs of the T1100 against current surges and short circuits. This protection will
cut the current to the output as soon as an overload condition is detected. The
fuse is round and yellow-colored which, upon a short circuit condition, will heat
up and change to orange. When the faulty wiring or circuit is fixed, the fuse will
automatically reset and allow current to flow through the output again.
Output Type Heating Cooling
Digital
Passive Sink Triac 10-30 VAC (dry contact)
On-or-Off
Pulsed
Max Current: 750 mA
Valve
Relay
Triac
Valve
Relay
Analog
Modulating Output
On-or-Off
Max Current: 40 mA
Configurable signal:
- 0 to 10 VDC
- 2 to 10 VDC
- 0 to 5 VDC
Modulating Valve
SCR
Relay
Triac
Modulating Valve
Relay
Figure 7: Output Specifications
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Typical wiring of the Digital Output
The T1100 opens and closes a triac contact to allow an external source to power
the load.
R
External Load
N
External
24 VAC
5
6
7
8
9
10
DO+
DO-
Figure 8: Typical wiring of digital output
Typical Wiring of the Analog Output
The T1100 provides the control signal to the load, which is powered externally or
from the same power source as the T1100.
5
6
7
8
9
10
AO
COM Com
24 V
0-10v Controlled
Load
External
24 V
source
N
Figure 9: Typical wiring of analog output
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Operation
The T1100 is controlled using the
circular touch pad on the bottom half of
the thermostat. The touch pad uses
capacitive sensing technology to detect
finger proximity. There are no moving
parts to push or rotate. The T1100 is
controlled using simple scrolling, tapping
or holding motions, performed around
the circle of the touch pad. The center of
the circle is unused.
Tap here to
go BACK Tap here to ENTER
Scroll clockwise or
counterclockwise
to adjust or navigate
FEEDBACK
The black
arc follows
your finger
22.8 ºC
Hint Display
At the bottom of the screen, a circle
representing the touch pad is
displayed, with hints on how to
navigate and modify settings, as well
as providing feedback as you
manipulate the touch pad. Hints are
context-sensitive and will only
display where logical. HINTS
Hold your finger over
highlighted areas to use
special features
Changing the setpoint
5

Schedule Override
Navigating Menus
6

Menu Maps
Visualisation and Options Menu Map
Configuration Menu Map
7

Temperature Menu Map
Outputs Menu Map
8

Radiant Floor Menu Map
Network Menu Map
Visualisation Screen
9

Menu Guide
Section Description Min Max Default Units
1.1) Temp Unit Lets you select between Celsius or
Fahrenheit temperature display. --Celsius-
- - Internal -
1.2) Temp
Source Lets you decide how the zone temperature is determined:
Internal
•(Only the onboard thermistor
is used to calculate temperature)
External
•(The temperature reading is
obtained from an external thermistor
connected to the auxiliary input)
Average
•(The temperature reading is
obtained from an average of both the
internal thermistors reading and the
reading obtained from the external
thermistor connected to the auxiliary
input. )
NOTE: When an output is set to control a
radiant floor, the external input is
automatically dedicated to slab
temperature sensing.
1.3) Sound This option lets you enable or disable audio
feedback from touchpad interaction. - - Enabled -
1.4) Backlight Auto: The backlight activates upon any user
interaction with the touchpad, and goes off
after 60 seconds of inactivity.
--Auto-
On: The backlight is permanently on.
Off: the backlight is permanently off,
regardless of user interaction.
1.5) Language This option changes the display language English
1.6) Restore
Default Activating this option causes the thermostat to revert all configuration properties back to
their factory defaults.
-- --
WARNING: This
cannot be undone.
1.7) Reset Causes the thermostat to perform an
electronic reset. All configuration properties
remain saved, but any active overrides are
lost.
-- --
2.1) Device Type The type of thermostat being used. - - - -
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Section Description Min Max Default Units
2.2) Software
Vers The current software version of the thermostat device type. -- --
2.3) Hardware
Vers Physical version of the thermostat. - - - -
2.4) My Address This option lets you set the address of the
thermostat on the network. Each device on
a network must have a different address.
1 127 101 -
2.5) Name The name given to this zone. Can only be
changed using Focus software. -- --
-15 15 0 °C3.1) Temp Calib This value will be added to the room
temperature reading (regardless of source). -27 27 0 °F
3.2) Morn
WarmUp Time The duration that the outputs will be disabled after receiving a morning warm up
command from the network master, unless
the network master is using a longer period.
0 250 0 min
0.5 15 1 °C4.1) Deadband The deadband between the occupied
heating setpoint and the occupied cooling
setpoint. 0.9 27 1.8 °F
0 10 3 °C4.2) Prop Band Defines the proportional band used to
calculate the proportional component of the
demand. Please refer to the following
image.
Heating
Setpoint Cooling
Setpoint
°C
0%
100% 0% 100%
Proportional
2Proportional
2
Deadband 0 18 5.4 °F
4.3) Cool Int Defines the amount of time required for the
cooling integral component of the demand
to equalize the proportional component.
Setting this value to zero removes the
cooling integral component of the demand.
0 120 15 min
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Section Description Min Max Default Units
4.4) Heat Int Defines the amount of time required for the
heating integral component of the demand
to equalize the proportional component.
Setting this value to zero removes the
cooling integral component of the demand.
0 120 15 min
5 30 19 °C5.1) Heat SP
Min During occupied mode, the thermostat will use this value as a low limit for the heating
setpoint. 41 86 66.2 °F
6 44.5 25 °C5.2) Heat SP
Max During occupied mode, the thermostat will use this value as a high limit for the heating
setpoint. 42.8 112.1 77 °F
5.5 44 20 °C5.3) Cool SP Min During occupied mode, the thermostat will
use this value as a low limit for the cooling
setpoint. 41.9 111.2 68 °F
6.5 45 26 °C5.4) Cool SP
Max During occupied mode, the thermostat will use this value as a high limit for the cooling
setpoint. 43.7 113 78.8 °F
0 20 3 °C6.1) Heat Offset During unoccupied mode, the active heating
setpoint is decreased by this amount. 0 36 5.4 °F
0 20 5 °C6.2) Cool Offset During unoccupied mode, the active cooling
setpoint is increased by this amount. 0 36 9 °F
5 30 15 °C6.3) Heat SP
Lim During unoccupied mode, the thermostat will use this value as a low limit for the
heating setpoint. 41 86 59 °F
5.5 45 30 °C6.4) Cool SP Lim During unoccupied mode, the thermostat
will use this value as a high limit for the
cooling setpoint. 41.9 113 86 °F
6.5) Unocc
Overr Time The time spent in occupied mode once the thermostat is manually overridden from
unoccupied mode.
0 720 120 min
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Section Description Min Max Default Units
7.1) SP Mode Sets the digital output in heating or cooling
mode. - - HEAT -
7.2) Setpoint The desired setpoint for the digital output.
Cannot be zero. 5 95 50 %
7.3)Ctrl Mode Sets the digital output in proportional or
differential mode. --DIFF-
•In proportional mode, the output is at
0% when the demand reaches the
setpoint, and pulses proportionally as
the demand increases, reaching 100%
once the demand reaches the sum of
the setpoint and the proportional
band. Proportional Band
Setpoint
Output = 0% Output = 100%
Demand
0%
•In differential mode, the output
alternates between ON and OFF
whenever the demand passes through
a differential band centered on the
setpoint.
Setpoint
Differential
ON
OFF Demand
7.4) Prop The proportional band used when the digital
output Ctrl Mode is set to Proportional. 5 99 50 %
7.5) Diff The differential band used when the digital
output Ctrl Mode is set to Differential. 8 99 40 %
7.6) Rev Act When reverse acting is selected, the output
action will be inverted versus the output
state. (If the output is indicating 100%, the
contact will be open instead of closed.)
--OFF-
7.7) Override This option lets you manually override the
digital output or set it back to automatic
control.
0 100 AUTO %
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Section Description Min Max Default Units
8.1) SP Mode Sets the analog output in heating or cooling
mode. - - HEAT -
8.2) Setpoint The desired setpoint for the analog output.
Cannot be zero. 1 95 25 %
8.3) Ctrl Mode Sets the analog output in proportional or
differential mode. --PROP-
•In proportional mode, the output is at
0% when the demand reaches the
setpoint, and modulates (or pulses)
proportionally as the demand
increases, reaching 100% once the
demand reaches the sum of the
setpoint and the proportional band.
Proportional Band
Setpoint
Output = 0% Output = 100%
Demand
0%
•In differential mode, the output
alternates between ON and OFF
whenever the demand passes through
a differential band centered on the
setpoint.
Setpoint
Differential
ON
OFF Demand
8.4) Prop The proportional band used when the
analog output Ctrl Mode is set to
Proportional.
5 99 75 %
8.5) Diff The differential band used when the analog
output Ctrl Mode is set to Differential. 8 99 40 %
8.6) Rev Act When reverse acting is selected, the analog
output voltage will be inversely proportional
to the output state.
--OFF-
8.7) Pulsed The analog output can be configured to
pulse instead of modulate when used in
Proportional mode.
--OFF-
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Section Description Min Max Default Units
8.8) Range The analog output can be set to work over
different voltage ranges: - - 0-10V -
•0-10VDC
•2-10VDC
•0-5VDC
8.9) Override This option lets you manually override the
analog output or set it back to automatic
control.
0 100 AUTO %
9.1) Override This option lets you assign an output to
control the radiant floor system. It also gives
access to the radiant floor menu.
--None-
5 30 27 °C10.1) Max Slab
Temp
41 86 80.6 °F
5 30 21 °C
Calculated
Output
Level
Slab Temperature
Min
Max
Slab
Temperature
Setpoint
0% 100%
10.2) Min Slab
Temp
The Slab Temperature Setpoint is
determined using a scale defined by the
minimum and maximum slab temperatures.
The Calculated Output Level that
determines the Slab Temperature Setpoint
is defined by the configuration of the output
selected to control the radiant floor.
41 86 69.8 °F
5 30 19 °C11.1) Min Slab
Temp When in unoccupied mode, the scale defined above is ignored, and the controller
maintains this temperature in the slab. 41 86 66.2 °F
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Section Description Min Max Default Units
0 10 1 °C12.1)
Proportional
0 18 1.8 °F
The output pulses at 50% of the cycle
length when the slab temperature reaches
the setpoint. The proportional band will
increase or reduce the length of the pulse
depending on the offset from the setpoint.
12.2) Integral Defined as the amount of time required to
cause the pulse width to vary by 100% to
compensate for a continual error of 1 °C.
0 600 60 min
13.1) Cycle
Length The amount of time of a total ON AND OFF cycle. 5 250 15 min
5 30 15 °C13.2) Outside
Cutoff Above this temperature, the radiant floor output always remains deactivated. (There
is a 2°C differential to allow for temperature
fluctuations). 41 86 59 °F
-15 15 0 °C13.3) Calibration This applies an offset to the slab
temperature reading, if required. -27 -27 0 °F
14.1) GrpCode1 One of three control groups that this
thermostat can belong to. Zero is ignored. 0 250 0 -
14.2) GrpCode2 One of three control groups that this
thermostat can belong to. Zero is ignored. 0 250 0 -
14.3) GrpCode3 One of three control groups that this
thermostat can belong to. Zero is ignored. 0 250 0 -
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Section Description Min Max Default Units
14.4) GrpWght1 The weight of the thermostat in the group
selected in GrpCode1. 0 15 0 -
14.5) GrpWght2 The weight of the thermostat in the group
selected in GrpCode2. 0 15 0 -
14.6) GrpWght3 The weight of the thermostat in the group
selected in GrpCode3. 0 15 0 -
14.7) Global
Wght The weight of the thermostat in the global group. 0 60 1 -
15.1) Baud Rate The baud rate used for serial
communication. 9600 115200 57600 bps
15.2) Parity The parity used for serial communication. --None-
•None
•Odd
•Even
15.3) Stop Bits The number of stop bits used for serial
communication. 12 1-
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Specifications
Supply: 24 VAC ±10%, 50/60 Hz Microprocessor
Power consumption: 5 VA max
Inputs: 1 analog input (Thermistor 10K type3 /
dry contact), 10 bit resolution (1024 segments)
Digital Output: Triac, 10-30 VAC sink, 750 mA
max (resettable fuse), ON/OFF or pulsed,
heat/cool
Analog Output: 0-10 VDC, 40 mA max
(resettable fuse), ON/OFF or pulsed, heat/cool
Screen: LCD 80x130 pixels with back lighting
Interface: Circular capacitive touch pad
Audible feedback: Yes
: Atmel 32 bits, 60 MHz, 256K Bytes
Flash
Communication protocols: Modbus RTU (RS485), up to
127 devices.
Baud rates: 9600, 19200, 38400, 57600, 76800, 115200
Connection: Screw-type terminal blocks (16 AWG max)
and RJ45 modular jack
Dimensions: 82 mm x 126 mm ( 3.23" x 4.96" )
Weight: 0.1 kg (0.22 lb)
Environment: 0-50 deg C (32-122 deg F)
Mounting: Standard electrical box 2" x 4"
Dimensions
© Copyright 2010 ProLon. All rights reserved.
No part of this document may be photocopied or reproduced by any means, or translated to another language without prior written consent of
ProLon. All specifications are nominal and may change as design improvements are introduced. ProLon shall not be liable for damages resulting
from misapplication or misuse of its products. All trademarks are the property of their respective owners.
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