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46
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Vergroot
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Stand 4/2004
Published 07/2007 Art. N
o
. TDMA 065
CONTROL
CONTROL
601/701
601/701
The Solar and Heating Regul
The Solar and Heating Regul
a
a
tor
tor
Use and Application
Solar regulating with stratification control and optimized
heating support
Making best use of the solar yield with or without a flow
volume meter
Single stage or modulated boiler regulation
Regulation of up to 3 heating circuits
Solid fuel boiler regulation
Return flow temperature raising or boiler buffering
Circulation control
Cooling
Twin thermal store regulation
Swimming pool function
Multifunctional temperature difference regulation
Multifunctional temperature switch
Optional: Remote control and room thermostat function us-
ing the TR-CONTROL
Optional: Data access, programming and control via PC
software
Note: Not all functions are applicable to all regulators or
variations!
Technical Documentation
Installation and Operating Instruc-
tions
1 SERVICE AND MENU STRUCTURE 2
1.1 Servicing 2
1.2 Menu Structure 3
2 FUNCTIONS AND SETTINGS 4
2.1 Indicator Values (Temperature and Performance) 4
2.2 System Variations and Functions 4
2.3 Solar Thermal System Operating Functions (Solar Input Data) 6
2.4 Hot Water Supply Operation Functions (Water Input Data) 9
2.5 Heating, Heating Circuit and Heating Support Operating
Functions (Heating Input Data) 10
2.6 Boiler Operating Functions (Boiler Input Data) 15
2.7 T-PRO 17
2.8 T-PRO 2 18
2.9 Service Menu 18
2.10 PC- Interface 19
3 DISRUPTION AND FUNCTION CONTROL 19
3.1 Regulating the Solar Thermal System without Extra Functions 19
3.2 Regulating the Solar Thermal System with Activated Frost
Protection 19
3.3 Regulating the Solar Thermal System with Twin Thermal Store
Regulation 20
3.4 Regulating the Solar Thermal System with Heating Functions 20
4 CONTROL 601 REGULATOR CONNECTION AND
INSTALLATION INSTRUCTIONS 21
4.1 Variation 1: Solar Thermal Regulation with Return Flow
Temperature Raising 22
4.2 Variation 2: Solar Thermal System and Heating Circuit
Regulation with Return Flow Temperature Raising 27
4.3 Variation 3: Solar Thermal System and Heating Regulation with
Boiler Buffering 32
4.4 Safety Information 37
4.5 Setting the System Variables 37
4.6 Installing 37
4.7 Electrical Connection 37
4.8 Connecting the TR-CONTROL (RE440) 39
4.9 Connecting the Insolation Sensor (RE352) 39
4.10 Installing a PC Interface (RE030) 39
4.11 Commissioning 39
4.12 CONTROL 601 Technical Data 40
5 CONTROL 701 REGULATOR CONNECTION AND
INSTALLATION INSTRUCTIONS 41
5.1 Variation 1: Solar Thermal System and Heating Regulation with
2 Heating Circuits and Return Flow Temperature Raising 41
5.2 Variation 2: Solar Thermal and Heating Regulation with 2
Heating Circuits and Boiler Buffering 48
5.3 Variation 3: Solar Thermal and Heating Regulation with 3
Heating Circuits and Boiler Buffering 53
5.4 Safety Information 57
5.5 Setting the System Variables 58
5.6 Installing 58
5.7 Electrical Connection 59
5.8 Connecting the TR- CONTROL (RE440) 60
5.9 Connecting the Insolation Sensor (RE352) 60
5.10 Installing a PC Interface (RE030) 60
5.11 Commissioning 60
6 CONTROL 701 TECHNICAL DATA 61
7 PROBLEMS AND SOLUTIONS 62
MainMenu
TR CONTROL
TDMA CONTROL 601/701:
2
Published 07/2007
1 Service and Menu Structure
1.1 Servicing
The and arrow buttons are used to move through
the main and subsidiary menus.
Press the button to return directly to the main menu.
The and buttons are used to enter values into the
data input menus. The figure will flash at each alteration.
The value is only confirmed and stored by pressing the
button. Pressing the button in response to the relevant
question also moves to the next menu level.
The chimney cleaning function (CONTROL 601: first
point in the Main Menu, CONTROL 701: panel button)
allows the boiler to be switched on for 10 minutes to allow
flue gas measuring.
When a menu output is selected the relevant light diode is
illuminated.
Oper-
ating
Status
Double row
illuminated LCD
display
Move back
through
menu
LED illuminated when
menu output is selected
Chimney cleaning
function
Return to Main
Menu
Decrease value
Increase
value
Confirm data input
Double row illumi-
nated LCD display
Move back through
menu
Move forward
through menu
LED illuminated when
menu output is selected
Return to Main
menu
Decrease value
Increase value
Confirm input data
TDMA CONTROL 601/701:
3
Published 07/2007
1.2 Menu Structure
The plan below illustrates an example (CONTROL 601,
Variation 1) of the menu structure.
NOTE
Some of the data input menus are protected by a code
(*). Inputting system parameter data should only by
undertaken by trained personel. The service menu is
used to switch from customer menu to professional
menu.
Main Menu
Subsidiary Menu
Main Menu 12:34
Tk: 70 ° TO: 60 °
Main Menu 12:34
Temperature values
Set values:
and
confirm with .
Main Menu 12:34
Performance values
*
Main Menu 12:34
System variants
Change in subsidiary
menu:
System variation
1
*
Main Menu 12:34
Solar Data Input
*
Main Menu 12:34
Water Data Input
Move forward in me-
nu:
Stratification loading functi-
on: Auto
*
Main Menu 12:34
Results Data Input
Additional function 1: Yield
Main Menu 12:34
Heating Data Input
Move back through
menu:
Additional function 2: Coo-
ling
Main Menu 12:34
Service
Additional function 3: No
function
Move forward through
menu:
Additional function 4: Circu-
lation
Optional function 1
Return flow temperature rais-
ing
Move back through
menu:
Optional function option 2
EastWest
Max solar input via: yield
sensor
Change in Main Menu:
Return to Main Menu?
TDMA CONTROL 601/701:
4
Published 07/2007
2 Functions and Settings
2.1 Indicator Values (Temperature and Perform-
ance)
Main Menu 12:34
Temperature values
Shows all measured temperatures, e.g. collector and ther-
mal store temperatures, collector and upper thermal store
min/max.
Main Menu 12:34
Performance values
Shows the different performance results values, for exam-
ple energy, yield performance, operating hours.
2.2 System Variations and Functions
Main Menu 12:34
System variations
Before changing any other settings on the CONTROL
601/701 the System variations must be set following the
procedure set out below.
System variations:
1...3
Basic functions (e.g solar regulation):
always active; pre-set.
Additional functions (e.g. yield):
optional, can be activated. The relevant temperatures or
settings are only displayed when the functions are selected.
Optional functions: It is possible to choose and activate
one from a range of optional functions.
Stratification loading function: Auto / On
/Off
Auto: Stratified loading function with automatic switch over
to winter operation
On: Stratified loading without automatic switch over to
winter operation
Off: Simple temperature difference control, e.g. for thermal
stores without stratified solar loading.
For an explanation of the stratified loading function see
„Solar Pump Operation“ on page 6.
Additional function:
Yield / No function
The yield function can be activated, but if it is not needed
the „No function“ setting must be chosen so that a sensor
fault is not reported. See also page 21 or 41 for „Regula-
tor Connection Information".
Optional function:
T-PRO/Solid fuel boiler/ no function
Only one of these function options can be chosen and ac-
tivated. The other options remain inactivated. See also
page 21 or 41 for „Regulator Connection Information“.
TDMA CONTROL 601/701:
5
Published 07/2007
CONTROL 601 – Functions***
CONTROL 701 - Functions
System
variati-
on 1
System
variati-
on 2
System
variati-
on 3
System
variati-
on 1
System
variati-
on 2
System
variati-
on 3
Solar
Solar Pump with and with-
out top loading (stratifica-
tion loading function)
East-West
Yield measurement
Insolation measurement /
Frost protection
**
Twin thermal store
*
*
*
Cooling
Hot water
Hot water back up heating
with separate output
Circulation
Circulation / bathwater but-
ton
Boiler /
Boiler regulator for hot wa-
ter and heating
Heating /
Pump regulator for boiler
and thermal store
Heating
support
Heating circuit mixer 1
Heating circuit mixer 2
Heating circuit mixer 3
Buffer control
Return flow temperature rai-
sing
T-Regulator
T-Pro
T-Pro 2
Solid fuel
boiler
Solid fuel boiler with tem-
perature difference regula-
tion
* only possible with the Cooling setting
** only possible with the Cooling, Hot water back up heating or Circulation settings
*** SOLAR PUR: The Solar Pur system variations are described in detail in the SOLAR PUR Technical Documentation
= Basic function: always active.
= Additional function: can be activated.
= Optional function 1: one function can be activated.
= Optional function 2: one function can be activated.
= Optional function 3: one function can be activated.
= Optional function 4: one function can be activated.
TDMA CONTROL 601/701:
6
Published 07/2007
Maximum Solar Input via:
Yield sensor / collector sensor
Hot water at too high a temperature should be prevented
from entering the solar heat exchanger. The maximum in-
flow temperature can be measured via two different tem-
perature sensors:
Via the collector sensor: the maximum allowable collector
water temperature (110 – 115
0
C) which can enter the so-
lar heat exchanger is calculated from the lower thermal
store temperature.
Via the yield sensor: the maximum allowable collector wa-
ter temperature which can enter the solar heat exchanger
is measured at the yield sensor (heat exchanger inflow).
Safety shut down of the solar pump will occur when the
temperature exceeds 100
0
C at the yield sensor or 140 °C
at the collector sensor.
ADVICE:
If the yield measuring sensor is not installed in the solar
circuit the maximum inflow temperature must not be
measured at the yield sensor. In this case theMaxi-
mum Solar Input via: collector sensor“ setting must be
selected and set.
Maximum Solar Input temporarily 120 °C
: Yes / No
Setting this function allows a maximum temperature of 120
°C for 5 minutes, although this temperature is only allowed
up to 50 times in a year.
ATTENTION:
This function is only suitable for systems which are de-
signed to withstand these short term high tempera-
tures. This function should not be used with low pres-
sure thermal stores (e.g. CONUS-Thermal Stores.
Only for CONUS Systems:
The following function is used to control systems in which a
hot water heat exchanger in the thermal store is used to
raise the temperature of the return flow.
Hot Water Back up Heating via the Regu-
lator: Yes / No
Hot water back up heating should be controlled using
CONTROL 601/701 „Return Flow Temperature Raising“
variation. The „Back up heating via CONTROL“ option is
set to „Yes“. While back up heating the demanded hot wa-
ter the return flow temperature raising function will be in-
terrupted in order to prevent an hydraulic short circuit.
Raising the temperature of the return flow is similarily dis-
continued during summer operation or when the heat limits
are exceeded.
2.3 Solar Thermal System Operating Functions
(Solar Input Data)
Main Menu 12:34
Solar Input Data
The microprocessor controlled CONTROL 601 and 701
regulators have been developed to enable the optimal
functioning and operational safety of the Consolar Thermal
Stores. The regulators can also be used with other solar
thermal systems. The regulators allow intelligent utilization
of differing insolation and weather conditions by automati-
cally switching between three operating levels depending
on the solar loading.
2.3.1 Solar Pump Operation
Top loading (Stratification loading function): In good
weather conditions the full volume of the solar circuit water
is only circulated without interruption once the collector
minimum temperature (top loading temperature) has been
reached. The CONTROL 601/701 automatically calculates
the top loading temperature (hot water target temperature
+ 5K). The hysteresis is set at 2 K in the factory. The hot
water is, therefore, stratified loaded at the top of the Con-
solar Thermal Store at a temperature between 2 and 5K
lower.
Intermittent operation: If the solar insolation isn’t sufficient
to heat the collector to the top loading temperature, the
regulator will switch to intermittent solar pump operation.
That is the CONTROL 601/701 regulator waits for a set
period of time while the collector warms up. After this pre-
determined period the regulator switches on the solar
pump if the top loading temperature has not already been
reached in the meantime and already caused the solar
pump to run. The intermittent pump running time is such
that the collector contents are circulated approximately
once. The pre-warmed water is stored in the stratified lay-
ers of either the middle or lower regions of the Consolar
thermal store via an automatic valve. Useful water tem-
peratures for immediate use can be achieved more quickly
with the intermittent pump operation than by pure tem-
perature difference regulation. In summer this prevents the
need for back up heating using with the boiler.
Pre-heating: In winter, spring and autumn, if the solar in-
solation is insufficient to meet the hot water demand with-
out using the boiler, the regulator switches to pre-heating
mode. The solar heated water is then used to pre-heat the
water in the heating circuit buffer region.
Switch to Winter Operation: 0...60 °C
The heating circuit temperature at which the solar regula-
tor switches to winter mode can be set here. The solar
pump will then operate using only temperature difference
regulation. The switch over to winter operation is con-
trolled in the different system variations by either the heat-
ing inflow or return flow temperature sensors.
CONTROL 601
Regulator Setting
Sensor
TDMA CONTROL 601/701:
7
Published 07/2007
System variation 1
Return flow tempe-
rature raising
No function, Solid
fuel boiler,
T-Pro
Return flow sensor
No winter switch
over
System variation 2, 3
Heating regulation
Inflow sensor
CONTROL 701
Regulator Setting
Sensor
System variation
1,2,3
Heating regulation
Inflow sensor
Solar Difference:
2...12 K
The temperature difference by which the collector sensor
temperature must be higher than the lower thermal store
temperature to enable solar loading of the thermal store is
set using the „Solar Difference“ function. A lower value
can be set if the pipe diameters are small and the insula-
tion is good. Long pipe runs, larger diameter pipework,
poor insulation or unfavourable sensor positioning require
a higher temperature difference.
Example:
With 15 mm diameter pipes, 20 m pipe run, an electri-
cally economic pump and good pipe insulation a value
of 6K can be set. Using a setting of 6K the solar pump
will switch on when the collector sensor temperature is at
least 6K higher than the lower thermal store temperature.
When the temperature difference between the collector
and the lower thermal store drops below 4K (hysteresis
of 4K set in the factory) the solar pump will switch off.
Solar pump: Inputs – Function - Output
Input
Function
Collector sensor
(in delivery package)
Top loading (Stratified
loading function)
Solar difference
Maximum solar input
Lower thermal store sensor
(in delivery package)
Solar difference
Maximum solar input
Inflow / Return flow sensor
(Art. N
o
. RE 046)
Winter switch over
Output: Solar pump
2.3.2 East-West-Valve-Regulation
A system which includes two solar collector array areas,
one oriented east and one oriented west, can be regulated
using the „East-West- Valve“ function.
Solar Difference 2:
2...12 K
The „Solar Difference 2“ function is used to set the tem-
perature difference by which the temperature registered at
the sensor on the second collector must be higher than the
temperaure at the lower thermal store sensor before solar
loading of the thermal store can begin. The „East-West-
Valve“ switches a three way valve to AB-A to divert the
warm water flow to the second collector when the second
collector is 3K warmer than the first collector.
East-West-Valve: Input - Function - Output
Input
Function
Collector sensor 2
(Art. N
o
. RE 040)
Solar difference 2
Maximum solar input
Output: East-West-Valve
2.3.3 Cooling, Twin Thermal Store and Swimming Pool
Regulating
It is possible to choose between the following functions us-
ing Optional Function 1: Cooling / Cooling via the heat-
ing circuit / Twin thermal store prioritizing / Twin thermal
store balancing / Swimming pool.
These functions prevent overheating of the collectors or al-
low a second thermal store to be loaded with hot water.
The solar pump continues to run while the thermal store
cools down, as long as the maximum collector or thermal
store temperature is not exceeded.
Cooling Optional Function:
If the upper thermal store temperature reaches the preset
value „cooling“ is activated. This function can be used for
example to control a thermal store loading pump to cool
the thermal store or to divert the heated water to another
thermal store.
Cooling temperature:
30...90 °C
The required cooling temperature can be set here.
Hysteresis:
2...10 K
The switch hysteresis for cooling can be set here.
For example, if a temperature of 85 °C and a hysteresis of
5 K is chosen, the contact will be closed at 85 °C and re-
opened at 80 °C.
Cooling via Heating Circuit Optional Function:
This function allows the thermal store to be cooled via a
heating circuit when it reaches a set temperature. The
mixer and the heating circuit pump will operate automati-
cally.
Setting the cooling temperature and hysteresis are de-
scribed under „Cooling Optional Function“.
Heating Circuit Inflow Temp: Target:
30...90 °C
The required heating circuit target inflow temperature can
be set here.
Optional Function Twin Thermal Store Prioritizing: When
the upper thermal store sensor reaches the preset tempera-
ture the „twin thermal store“ function is activated. This acti-
vates a three way valve so that the heat flow is diverted to
another thermal store, and simultaneously switches from
TDMA CONTROL 601/701:
8
Published 07/2007
the first to the second lower thermal store temperature sen-
sor.
Setting the hysteresis is described under Optional Function
Cooling.
Switch over temperature:
30...90 °C
The required switch over temperature can be set here.
Optional Function Twin Thermal Store Balancing: When
the second lower thermal store sensor temperature is lower
than that of the first, the „twin thermal store“ function is
activated. This activates a three way valve so that the heat
flow is diverted to another thermal store, and simultane-
ously switches from the first to the second lower thermal
store sensor. The hysteresis of 2K is set in the factory.
Optional Function Swimming Pool: When the upper ther-
mal store sensor registers the preset switch over tempera-
ture, the „swimming pool“ function is activated. This
switches off the solar pump and switches on the swimming
pool pump and diverts the heat flow to the swimming pool,
and simultaneously switches from the lower thermal store
sensor to the second sensor.
Setting the switch over temperature and the hysteresis is
described under Optional Function Twin Thermal Store
Prioritizing.
Swimming Pool Max:
0...50 °C
The maximum swimming pool temperature can regulated
via the second thermal store temperature sensor.
Thermal Store Maximum Temperature:
On occassions (e.g. while on holiday, to protect the system
components) it is a good idea to set the maximum allow-
able thermal store temperature to lower than 90 °C. The
cooling temperature must also be set to be lower than the
thermal store maximum allowable temperature, so that the
collector doesn’t idle.
Thermal Store Maximum:
50...90 °C
When the upper thermal store sensor reaches the preset
temperature, the solar pump will switch off.
Cooling, Twin Thermals Store and Swimming Pool Regulating: Input - Function -
Output
Input
Function
Upper thermal store sensor
(part of delivery package)
Thermal store maximum,
Cooling, Twin Thermal
Store, Swimming Pool
Second lower thermal store
sensor
(Art. N
o
. RE 046)
Twin thermal store, Swim-
ming pool
Input: Cooling, Twin Thermal Store or Swimming Pool
2.3.4 Solar Circuit Frost Protection
The „frost protection“ function allows active safeguarding
against freezing. When the frost protection sensor meas-
ures less than 5 °C the solar pump switches on, and it
switches off again when the temperature rises to 9 °C. It is
only sensible to use this frost protection function with
evacuated tube collectors using pure water (no antifreeze)
in the solar circuit. It is possible to set the pump running
time.
2.3.5 Yield Measurement (Performance Input Data)
Main Menu 12:34
Performance Inputs
The solar yield is determined from the temperature differ-
ence between the yield sensors on the heat exchanger in-
flow and outflows and the flow volume. Alternatively, the
flow volume can be input as a fixed value to avoid having
a flow volume meter. However, this can mean that the re-
sulting yield measurement can have an error of up to 50%
at any time because the viscosity of the heat carrier is
highly temperature dependent.
Antifreeze type:
Propylene / Ethylene
Antifreeze proportion
0...80 %
These two settings are used to determine the viscosity and
heat capacity of the heat carrier. These parameters are
dependent on temperature, the water/antifreeze propor-
tion and the type of antifreeze used: Propylene- Glycol:
Tyfocor L, Tyfocor LS, Antifrogen L, Reinsol Liquid P- NF;
Ethylene-Glycol: Tyfocor, Antifrogen N.
Consolar supplies Tyfocor LS (Art. N
o
. KR 130/135), and
when using this antifreeze the regulator input value for the
antifreeze proportion should be 40 %.
Flow Volume Meter:
0...1 Liter / Impulse
If a flow meter is connected, the impulse rate of the meter
must be input in order to enable automatic calculation of
the flow volume. The impulse rate to input into the regula-
tor for the Consolar supplied flow volume meter (Art.-N
o
.
RE096) is 0.026 l/Impuls.
Solar Through Flow:
0...20 l/ min
If a flow volume meter is connected the through flow must
be set at 0 l/min here.
If no flow meter is connected then the determined solar
through flow (e.g. determined using a Tacosetter) must be
input and set here.
Solar Operating Hours: Return to
0?
TDMA CONTROL 601/701:
9
Published 07/2007
E n e r g y:
Return to O?
These settings can be used to return „Solar Operating
Hours“, „Today’s Energy“ and „ Total Energy“ to zero.
P r o t o c o l:
Return to 0?
Here, the data (e.g. daily solar energy, maximum collector
yield and maximum collector temperature) which is stored
in the data logger of the PC interface can be returned to
„0“. This function is only available with a PC interface.
Yield Measurement: Input – Function – Output
Input
Function
Inflow yield sensor
(Art. N
o
. RE 046)
Temperature difference for
yield calculation
Outflow yield sensor
(Art. N
o
. RE 046)
Temperature difference for
yield calculation
Flow volume meter
(Art. N
o
. RE 096)
Flow volume measuring
No Output
2.3.6 Insolation Measurment (Performance Input Data)
Main Menu 12:34
Performance Input
The solar insolation can be measured here. An insolation
meter which must be connected to the input is also nece-
sarry.
Insolation Sensor:
100...1500 W/Vm
2
Here, the factor relating the measured voltage to the solar
insolation sensor is entered. The factor for the RE352 inso-
lation sensor is 100 W/Vm
2
.
Solar Insolation: Input - Function – Output
Input
Function
Insolation sensor
(Art. N
o
. RE 352)
Solar insolation measu-
rement
No Output
2.4 Hot Water Supply Operation Functions (Wa-
ter Input Data)
Main Menu 12:34
Water Input
2.4.1 Time Controlled Back up Heating for Hot Water De-
mand
If the temperature of the upper thermal store usable volume
falls below the minimum set value, the „hot water back up
heating“ and „boiler ON/ OFF“ functions are activated.
The minimum temperature can be raised as a one off via,
for example, a combination button in the bathroom (circu-
lation and bath button) for short term raised hot water de-
mand (bath function). Hot water back up heating can also
be overridden at particular times via an integrated timer
switch.
The „Boiler ON/OFF“ is activated by the hot water back
up heating requirement as well as by heating demand.
„Hot water back up heating“ is only activated by hot water
back up heating demand.
Hot Water Back up Heating Target
Temp: 30...80 ° C
When the upper thermal store reaches the pre-set target
temperature the hot water back up heating and boiler
on/off contact opens and stops loading the hot water de-
mand volume.
Hot Water Back up Heating Hystere-
sis: 2...10 K
The switch hysteresis for the hot water back up heating can
be set here. If, for example, a hot water target temperature
of 60
o
C and a hysteresis of 5K are chosen, the hot water
back up heating and the boiler on/off contacts will close at
55°C and reopen at 60 °C.
Hot Water Back up Heating Min
Temp: 0...80 ° C
The hot water back up heating minimum temperature can
be set here. The water temperature will not fall below this
minimum temperature, even when the time switch is off.
Hot Water Back up Heating
Running Time: 1..10 m i n
The hot water back up heating function will continue to run
for the set time period. This function allows the thermal
store to be loaded above the minimum hot water demand
volume.
Optimized Hot Water Back up Heating
Yes / No
If the optimized back up heating option „Yes“ is set, the
hot water target temperture will be calculated by the
CONTROL 601/701 independently of the lower thermal
store temperature.
Hot Water Prioritizing: Yes / No
For regulating the Heating Circuit Mixer the Hot Water
Prioritizing function can be set to „Yes“. That is, during hot
water back up heating of the thermal store the heating cir-
cuit pump is switched off and the heating circuit mixer is
closed so that the thermal store is prioritized for loading
with heated water. The space heating circuit is not sup-
plied while this function is activated.
TDMA CONTROL 601/701:
10
Published 07/2007
Hot Water Back up Heating Extra Com-
fort Temp 40...80°C
If the circulation and bath button is pressed three times
within 5 seconds the hot water back up heating target
temperature is raised to the set value for a time, thereby
acheiving a higher, comfortable, hot water temperature.
Using this function for providing hotter water only when
required allows significantly higher energy savings. This
function also operates during otherwise time switch con-
trolled back up heating shut down periods.
Hot Water Back up Heating:
Time Switch: On / Off
When the time switch is set to „On“, hot water back up
heating only occurs during the two selected time windows
/ operating periods.
Hot Water Back up Heating:
Each Day/Daily/Wkends-Wkdays
The time switch can be pre-set to accomodate individual
customer requirements. Two operating periods can be set.
Each Day: Different operating periods on different days.
The operating periods for each day are entered sepa-
rately.
Daily: The same operating periods are required each day.
The operating periods need only to be set once.
Weekends/Weekdays: The operating periods need only
be entered once for weekdays and once for weekend (Sat-
urday and Sunday) operating.
Example: Hot Water Back up Heating
Time Switch:
On
Time Switch Time:
Weekends/Weekdays
Weekday On:
08:00 (am)
Weekday Off:
16:00 (pm)
Weekend On:
09:00 (am)
Weekend Off:
17:00 (pm)
Back up heating for hot water will be activated as neces-
sary on weekdays between 08.00 and 16.00 and at
weekends between 09.00 and 17.00.
ADVICE:
In Variations 2 and 3 using CONTROL 601 and Varia-
tion 3 using CONTROL 701 hot water back up heating
can also be controlled via the boiler. The menu points
under „Water Input Data“ remain and the „Boiler
On/Off“ function is activated when hot water back up
heating is demanded.
Hot Water Back up Heating: Input - Function – Output
Input
Function
Upper thermal store sensor
(in delivery package)
Time controlled hot water
back up heating
Circulation – Bath button
One off raising of the tar-
get temperature for hot
water back up heating
Output: Hot water back up heating, Boiler On/Off
2.4.2 Time Controlled Hot Water Circulation
The time controlled hot water circulation enables large en-
ergy savings without any reduction in comfort. The circula-
tion pump can be activated via a button positioned in the
living space of the house and an integrated time switch. If
this button (circulation and bath button) is pressed once,
the circulation function is activated and the circulation
pump will run for the set time period.
See Advice on page 8.
Circulation running time: 1...20 M i n.
The running time of the circulation pump can be set here.
The running time should be such that the hot water tap
which is furthest from the thermal store will provide hot
water.
After the pump switches off there follows an interval of 15
minutes during which the pump will not operate, even if
the button is pressed again.
Circuulation Time Switch: On / Off
If the circulation time switch is set to „On“, the circulation
pump will be activated during the set operating time peri-
ods for the set running time (circulation running time / in-
terval). Three operating periods can be set.
Setting the time clock is carried out as described in para-
graph 2.4.1.
Example: Hot Water Circulation
Circulation running time:
2 minutes
Circulation Time Switch:
On
Time Switch Time:
Weekend/Weekday
Weekday On:
08:00
Weekday Off:
16:00
Weekend On:
09:00
Weekend Off:
17:00
The circulation pump can be activated on weekdays be-
tween 08.00 and 16.00 and at weekends between
09.00 and 17.00 with a pump operating period of 2
minutes and an interval between operation of 15 min-
utes. Outside these time periods the pump will only run
if activated by pressing the circulation – bath button.
2.5 Heating, Heating Circuit and Heating Support
Operating Functions (Heating Input Data)
2.5.1 Heating
Main Menu 12:34
Heating Input
The heating system settings are entered at the following
menu points.
Heat limit: Daytime external
temp: 0..40°C
TDMA CONTROL 601/701:
11
Published 07/2007
Heat limit:
Night external temp:0..40 °C
If, during the day or night, the external temperature sen-
sor registers a temperature which exceeds the set tempera-
ture, the heating will switch off (heating circuit pump and
boiler are switched off). At 2K lower than the set tempera-
ture limit the heating will switch back on.
Frost Protection. External Temp Limit: -
10...+10 °C
When the external temperature falls below the set tem-
perature, the heating will be switched on, irrespective of
which operating mode is active. If the heating mode is off,
the pre-set inflow temperature (10
o
C) will be regulated.
Separate Heating Circuit Settings? Yes/No
ADVICE
This function is not available with the CONTROL 601,
since it can only regulate one heating circuit. The fol-
lowing input settings are found there under „Heating
Input“.
With the CONTROL 701 the separate heating circuits set-
tings can be entered under „Yes“ in the „Heating Circuit
Input 1 ...3“ menu point behind „Required room tempera-
ture“.
Daytime temperature drop
Night temperature drop
Override (Party Switch)
Operating mode
Heating off at 0..20 K
*
Temperature raising
*
Temperature lowering
*
Airing
*
*only with the setting „Room thermostat = Yes“
Daytime temperature drop:
On / Off
Night temperature drop
On / Off
The room temperature can be allowed to drop to a pre-set
temperature. The time period that after which the daytime
or night time temperature drop is allowed, and how long
for, are settable. The required room temperature is
achieved during the set time periods.
Night temp. Drop:
Each day/Daily/Wkends-Wkdays
Setting the time clock is carried out as described in para-
graph 2.4.1.
Example: Night Temp. Drop
Night Temp. Drop:
On
Time switch time:
Weekend/Weekdays
Weekdays On:
20:00
Weekdays Off:
06:00
Weekends On:
22:00
Weekends Off:
09:00
Required night time
room temperature:
16 °C
The night time temperature drop to 16
0
C, as set, is en-
abled between 20.00 and 06.00 on weekdays and be-
tween 22.00 and 09.00 at weekends.
Night Temp. Drop Override:
On / Off
If the override is switched to „On“ during the night time
temperature drop period, the night time temperature drop
period will be postponed until the override is switched
back to „Off“
The override can also be activated via the TR-CONTROL. If
the override is not switched back to off here, the night time
temperature drop will be reactivated the following night.
See also the TR-CONTROL Technical Documentation
Operating Mode:
Summer / Holiday / Winter
Summer Operation: Heating circuit pump and boiler are
switched off. Hot water back up heating is operational.
Heating circuit frost protection remains active.
Winter Operation: Heating circuit pump, boiler and hot
water back up heating are operational. Heating circuit
frost protection is active.
Holiday Operation: Heating circuit pump, boiler and hot
water back up heating are switched off. Heating circuit
frost protection remains active.
Room Thermostat Active
Yes / No
If a TR-CONTROL is connected to the CONTROL 601/70,
the integrated room thermostat can be activated via this
menu point.
Regulate the Heating Circuit via the TR-
CONTROL
The TR-CONTROL can be set to regulate the CONTROL
601/701 here. See the TR-CONTROL Technical Documen-
tation.
The following menu points are accessed after „Required
Room Temperature“ in the „Heating Circuit Input“ menu.
TDMA CONTROL 601/701:
12
Published 07/2007
Heating off at 0...20 K via
Room target
Temperature raising at:
0...40 K
Temperature raising for:
0.5...12 h
Temperature dropping at:
0...40 K
Temperature dropping for:
0.5...12 h
Airing TR target:
0...30 °C
ADVICE:
The menu points and functions are described in detail
in the TR-CONTROL Technical Documentation.
TR-CONTROL: Connection
Input
Function
TR-CONTROL Art.-N
o
.
RE440
Remote Control and Room
Thermostat
2.5.2 Heating Circuit
Main Menu 12:34
Heating Circuits Inputs 1..3
The inflow temperature for the heating circuit is regulated
in relation to the external temperature. The slope of the
heating graph can be set as appropriate for the building
and heating system type. The heating circuit mixer regu-
lates the inflow temperature to the inflow target tempera-
ture calculated by the CONTROL 601/701 in that the
heating circuit mixer is switched either on or off. The indi-
vidual heating circuit parameters can be entered in the
Heating Circuit menu points.
Required Room Temperature: 15...30 °C
Room temperature is pre-set at 20 °C. If a higher of lower
room temperature is required, it can be re-set here.
Heating curve slope : 0,3...4,4
Input the correct heating curve slope for the building and
heating system type; see diagram on page 14.
Heating curve curvature: 1,0...1,6
The curvature of the graph is dependent on the type of
heating system or radiators.
Example: Heating Curve Curvature
Under floor heating:
1.1
Radiators made from cast iron or steel
With normal connection:
1.3
Convectors, following the suppliers details:
1,3...1,6
Maximum Inflow Temperature:
0...120 °C
The maximum inflow temperature (for example for under-
floor heating) is entered here for regulating the mixer
valve.
TDMA CONTROL 601/701:
13
Published 07/2007
Minimum Inflow Temperature:
0...120 °C
The minimum inflow temperature (for example with defined
boiler temperature) is entered here.
Mixer Regulating Parameter: 1...200
The mixer parameter is pre-ser at 100 (setting for the Con-
solar-Heating Circuit Mixer). A higher or lower setting
must be entered as appropriate to the installed mixer.
ADVICE:
The higher the entered regulating parameter the
quicker a deviation from the target temperature will be
corrected. However, using a parameter setting which is
too high can lead to the correct target temperature not
being achieved.
Safety Function in case of Mixer or Heating Circuit Pump
sticking: The regulator operates the heating circuit pump
for one minute a day and opens and closes the mixer
valve once. The safety function is activated if the heating
circuit pump has been switched off for longer than 24
hours.
Heating Circuit Regulating: Input - Function - Output
Input
Function
External temperature
sensor (Art. N
o
. RE
046)
Heating circuit inflow tempera-
ture
Heat limits
Frost protection limit
Inflow temperature
sensor (Art. N
o
. RE
046)
Heating circuit inflow tempera-
ture switchover to winter op-
eration
Output: Heating Circuit Pump and Haeting Circuit Mixer
TDMA CONTROL 601/701:
14
Published 07/2007
Heating Curves
Inflow Temperature in °C
Slope
Example:
(1.) Place: Trier
(according to chart: -10°C)
(2.) Temp. Of the heating system:
Inflow 70°C/ Return flow 50°C
(3.) From the diagram, the slope
of the heating curve is 1,6, and
this should be input to the regu-
lator.
External Temperature in °C
German Meteorological Data for the Heating Season (a selection)
Station
t10
Station
t10
Station
t10
Station
t10
Baden- Württemberg
Rosenheim
-16
Braunschweig
-14
Worms
-12
Aulendorf
-16
Rothenburg o. d. T.
-14
Bremen-Flughafen
-12
Baden-Baden
-12
Weiden
-16
Bremerhaven
-10
Saarland
Badenweiler
-14
Würzburg
-12
Cuxhaven
-10
Saarbr.-St.Arnual
-12
Donaueschingen
-16
Ernden
-10
Saarbr.-Ensheim
-12
Freiburg im Brsg.
-12
Brandenburg and Berlin
Göttingen
-16
Freudenstadt
-16
Berlin- Dahlem
-12
Hameln
-12
Sachsen
Heidelberg
-10
Berlin- Ostkreuz
-14
Hannover- Flughafen
-14
Chemnitz
-16
Herrenalb, Bad
-14
Cottbus
-16
Lingen
-10
Dresden- Wahns-
dorf
-14
Karlsruhe
-12
Frankfurt/ Oder
-16
Norderney
-10
Görlitz
-16
Mannheim
-12
Neuruppin
-14
Oldenburg
-10
Leipzig
-14
Pforzheim
-12
Potsdam
-14
Plauen
-16
Ravensburg
-14
Nordrhein- Westfalen
Torgau
-16
St. Blasien
-16
Hessen
Aachen
-12
Stuttgart (Stadt)
-12
Darmstadt
-12
Brilon
-14
Sachsen- Anhalt
Trochtelfingen
-18
Dillenburg
-12
Bonn-Firesdorf
-10
Gardelegen
-14
Tübingen
-16
Frankfurt (Stadt)
-12
Dortmund
-12
Halle- Kroellwitz
-14
Ulm
-14
Geisenheim
-10
Düsseldorf
-10
Magdeburg
-14
Villingen
-16
Gelnhausen
-12
Duisburg
-10
Salzwedel
-14
Wertheim
-14
Gießen
-12
Essen
-10
Wernigerode
-16
Hersfeld, Bad
-14
Iserlohn
-12
Wittenberg
-14
Bayern (Bavaria)
Kassel
-12
Kleve
-10
Augsburg
-14
Nauheim, Bad
-14
Köln
-10
Schleswig- Holstein u.
Hamburg
Bamberg
-16
Weilburg
-12
Münster
-12
Hbg.-Fulsbüttel
-12
Bayreuth
-16
Wiesbaden
-10
Wuppertal
-12
Hbg.- Wandsbek
-12
Berchtesgaden
-16
Witzenhausen
-14
Husum
-10
Coburg
-14
Rheinland-Pfalz
Kiel
-10
Erlangen
-16
Mecklenburg- Vorpommern
Alzey
-12
List auf Sylt
-10
Garm.Partenk.
-18
Greifswald- Wieck
-12
Bergzabern
-12
Lübeck
-10
Kissingen, Bad
-14
Neustrelitz
-14
Bernkastel
-10
Schleswig
-10
Mittelberg
-18
Putbus
-10
Birkenfeld
-14
St. Peter
-10
Mittenwald
-16
Schwerin
-12
Blankenrath
-14
Travemünde
-12
München-Riem
-16
Waren
-12
Ems, Bad
-12
Nördlingen
-16
Warnemünde
-10
Kreuznach, Bad
-12
Thüringen
Nürnberg-Buchenb.
-16
Neustadt/ Weinstr.
-10
Artern
-14
Oberstdorf
-20
Niedersachsen und Bremen
Neuwied-Oberbieber
-12
Erfurt Binbersleben
-14
Passau
-14
Borkum
-10
Nürburg
-14
Gera- Leumnitz
-14
Regensburg
-16
Braunlage
-16
Trier (Stadt)
-10
Jena
-14
t10 comprehensive two day average of the ten lowest air temperaures in 20 years (calculation basis DIN 4701)
TDMA CONTROL 601/701:
15
Published 07/2007
2.5.3 Return Flow Temperature Raising
Main Menu 12:34
Heating Input
Both the CONTROL 601 and the CONTROL 701 have a
programmable temperature difference regulating function
which can be used to control the hydraulic system’s return
flow temperature raising.
Return Flow Temp. Raising Difference:
2...24 K
The temperature difference by which the temperature of
the return flow temperature raising sensor of the thermal
store must be higher than that at the return flow sensor can
be set here. This activates the „Return Flow Temperature
Raising“ function (the switch over valve is switched to AB-
A). The hysteresis is set at 2K in the factory.
ADVICE:
Attention must also be paid to the „Back up heating via
CONTROL“ function on page 6 with the „Return flow
temperature raising“ function.
Temperature difference switch:
Input – Function – Output
Sensor description
Function
Return flow temperature
raising thermal store sen-
sor
(Art. N
o
. RE 046)
Return flow temperature rai-
sing
Return flow temperature
sensor
(Art. N
o
. RE 046)
Return flow temperature rais-
ing
Winter switch over
Output: Return flow temperature raising (Switch over valve)
2.6 Boiler Operating Functions (Boiler Input
Data)
Main Menu 12:34
Boiler Inputs
All settings for the boiler (e.g. oil or solid fuel) , the boiler
pump and the thermal store loading pump are entered
here.
2.6.1 Boiler (Oil, Gas, Pellets)
The hydraulic system switch controls the operation of either
the boiler pump or the thermal store loading pump. The
relationship is as follows:
Regulator setting
automatic switching to
Buffer logic
Boiler pump
Return flow tempera-
ture raising
Thermal store loading pump
No setting
Thermal store loading pump
Boiler Temperature
minimum : 0...70 °C
The minimum temperature at which the boiler or thermal
store loading functions are activated is set here.
Boiler temperature
maximum : 50...90 °C
The maximum boiler temperature at which the boiler
(burner) will be switched off via the zero voltage contact or
the 0 – 10V interface is set here.
Boiler difference
maximum: 0....60 K
Heating Operation: The temperature difference between
the calculated heating target temperature and the buffer
logic difference (when the Buffer logic function is activated)
and the actual boiler temperature is entered. When the
actual boiler temperature is higher than the target tem-
perature by this set temperature difference the burner will
switch off.
Hot Water Back up Heating Operation: The temperature
difference between the hot water target temperature and
the actual boiler temperature is set here. When the actual
boiler temperature is higher than the target temperature by
this set temperature difference the burner will switch off.
Example: Boiler heating
Heating circuit target temperature:
50 °C
Hot water back up heating target
temperature:
55 °C
Boiler Difference Maximum:
15 K
If during hot water back up heating operation the boiler
reaches a temperature of 70 °C, the boiler will switch
off. During heating operation the boiler will switch off at
65 °C. However, when the Buffer logic function is acti-
vated (e.g. Buffer logic difference : 6 K), the boiler will
switch off at 71 °C.
Boiler Input: Single stage / modulated op-
eration
This function enables single stage or modulated operation
of the boiler.
Single Stage Operation: The boiler is switched on and off
via the zero voltage contact.
Modulated Operation: The boiler is controlled via a volt-
age of between 0 to 10V. The voltage depends ofn the
temperature difference between the target and actual
boiler temperature.
The following 6 menu points are only to be found in the
professional menu for modulated boiler operation.
Minimum : 2...50 k W
Boiler Capacity
The minimum boiler capacity for modulated boiler regula-
tion is set here.
TDMA CONTROL 601/701:
16
Published 07/2007
Maximum: 2...50 k W
Boiler Capacity
The maximum boiler capacity for modulated boiler regula-
tion is set here.
0 V : 0...50 k W
Boiler Capacity
The boiler capacity at 0V can be set at this point.
10 V : 2...50 k W
Boiler Capacity
The boiler capacity at 10V can be set at this point.
P - P A R A : 0...50.0
Regulator Parameter
T n : 0...500.0 S e c
Regulator Parameter
The „P“ and „I“ parameters of the 0 to 10 volt output can
be set here.
Example: The thermal capacity of the Firma Giersch Giega
Star „Therme“ Boiler
(1) Boiler capacity max:
30 kW
(2) Boiler capacity min:
10 kW
(3) 0V:
0 kW
(4) 10V:
30 kW
P-Parameter:
10
I-Parameter:
15s
If the boiler target temperature is either exceeded or not
achieved the capacity of the „Therme“ will be decreased or
increased until the target temperature is reached.
ATTENTION:
Modulated boiler operation is only suitable for boilers
which set their operational capacity above 0 – 10V and
are not automonously modulated.
Pump Revolutions
minimum : 100 %
The minimum pump speed is set here. The boiler or ther-
mal store loading pump is controlled so that the target
boiler temperature is achieved. For modulated boiler op-
eration the pump speed of the loading pump is always
100 %.
Minimum running time
Boiler : 0...30 min.
The minimum boiler running time is set here, although the
maximum allowable boiler temperature will still activate
the safety shutdown.
Back up running time
Boiler pump: 0...20 MIN
The extended running time of the boiler pump is set here.
Extended running time
Thermal store pump: 0...20MIN
The extended running time of the thermal store loading
pump is set here.
ADVICE:
It is imperative to follow the operating instructions of
the boiler manufacturer when using the boiler regulat-
ing functions.
Boiler regulating: Input - Function – Output
Input
Function
Boiler temperature sensor
(Art. N
o
. RE 046)
Maximum temperature
Minimum temperature Boiler
pump
Thermal store loading pump
Output: Boiler on/off, Boiler or Thermal store loading pump
2.6.2 Solid Fuel Boiler Pump
Solid Fuel Boiler
Minimum Temperature:30...80°C
When the solid fuel boiler temperature sensor records the
minimum temperature the „solid fuel boiler“ function is ac-
tivated. The solid fuel boiler will run until the minimum
temperature is exceeded by 2K (the 2K hysteresis is set in
the factory).
Solid Fuel Boiler:
Difference: 2...24 K
This function is used to set the temperature difference by
which the solid fuel boiler temperature sensor must be
higher than the „solid fuel boiler thermal store temperature
sensor“ so that the „Solid Fuel Boiler“ function is activated.
The 2K hysteresis is set in the factory.
Boiler OFF when Solid Fuel Boiler ON?
Yes / No
If this function is set to „Yes“, then the boiler (e.g. oil or
gas) will switch off when the thermal store is being loaded
via the solid fuel boiler.
Solid Fuel Boiler Regulating: Input - Function – Output
Input
Function
TDMA CONTROL 601/701:
17
Published 07/2007
Solid Fuel Boiler Tempera-
ture Sensor
(Art. N
o
. RE 046)
Minimum temperature
Solid Fuel Boiler Differ-
ence
Thermal Store Tempera-
ture Sensor –Solid Fuel
Boiler
(Art. N
o
. RE 046)
Solid Fuel Boiler Differen-
ce
Output: Solid Fuel Boiler (Pump)
2.6.3 Buffer Logic
This function enables the boiler to be switched off when the
buffer region of the thermal store has reached the heating
target temperature, whether this has been achieved from
solar energy or by using the boiler.
The buffer logic controls the boiler operation in relation to
the external temperature. The additional „lower buffer
temperature sensor“ which is situated below the „upper
buffer temperature sensor“ enables the boiler to run longer
in order to load the buffer region between these two tem-
perature sensors.
Buffer Logic
Difference : 2...24 K
This function enables the temperature difference to be set
by which the temperature in the heating buffer region
(„lower buffer sensor“ and „upper buffer sensor “) must be
higher than the heating target temperature before the
„boiler on/off“ function is activated.
Buffer Logic
Hysteresis : 1...10 K
The switch hysteresis for the buffer logic can be set here.
Function: Buffer Logic
The Input activates the output de-
pendant on
Boiler on/off out-
put
„lower buffer sensor“ and „upper
buffer sensor“ temperature
heating circuit inflow target tem-
perature 1 plus Buffer logic differ-
ence minus Hysteresis
Boiler On („Boiler
= on/off“ contact
= closed)
Hot Water Back up Heating acti-
vated
Frost protection active
„lower buffer sensor“ and „upper
buffer sensor“ temperature
Heating circuit inflow target tem-
perature 1 plus Buffer Logic Dif-
ference
Boiler Off („Boiler
= on/off“ contact=
open)
Heat limits exceeded
Example: Buffer Logic
Heatin Circuit Target Temperature:
50 °C
Upper Buffer Sensor:
48 °C
Lower Buffer Sensor:
42 °C
Buffer Logic Difference:
8K
Buffer Logic Hysteresis:
5K
When the upper buffer sensor and lower buffer sensor
reach a temperature of 58
o
C the „boiler on/off“ contact
is opened and the boiler is switched off. When the lower
buffer sensor and upper buffer sensor record a tempera-
ture of below 53 °C, the „boiler on/off“ contact is
closed and the boiler is switched on.
2.7 T-PRO
Main Menu 12:34
T PRO Input
The CONTROL 601/701 regulators have all-purpose tem-
perature difference regulating capabilities which enable
control of hydraulic switches of different types.
Temperature Sensor 2
Yes / No
If the „Temperature Sensor 2: No“ option is set then the T-
PRO will function as one temperature switch.
T- P R O Difference:
0...30 K
This function is used to set the temperature difference by
which the temperature at Sensor 1 (source) must be higher
than the temperature at Sensor 2 (sink) so that the „T-PRO
function is activated.
T P R O H y s t e r e s i s:
0...30 K
To prevent the contact switching continually on and off, the
switch hysteresis is set here.
T e m p e r a t u r e
m i n: 0...100 °C
T e m p e r a t u r e
m a x : 0...140 °C
Minimum or maximum values can be set for both tempera-
ture sensors (T-PRO Sensor 1 and 2) here.
T-PRO Extended Running:
0...60 Min.
The „T-PRO“ function will only be deactivated once the
pre-set extended running time has expired.
Use the T - P R O Time Switch:
Yes / No
If the time switch option „Yes“ is set the T-PRO will only be
active during the two set time periods.
T - P R O :
Each Day/Every Day/Weekend-
Weekdays
The time switch is set as described in paragraph 2.4.1.
Example: Temperature Difference Regulator
Temperature sensor T2:
Yes
T-PRO difference:
4K
T-PRO hysteresis:
2K
TDMA CONTROL 601/701:
18
Published 07/2007
Example: Temperature Switch
Temperature sensor T2: No
Temperature T1 min: 55 °C
Temperature T1 max: 60 °C
T-PRO extended running: 2 minutes
If the temperature at temperature sensor T1 is lower than
the preset temperature of 55
o
C, the contact will close.
When the temperature rises to 60 °C at sensor T1, the
contact will reopen after the set extended running time of
2 minutes.
2.8 T-PRO 2
ADVICE
This function is not available with the CONTROL 601
Main Menu 12:34
T PRO 2 Input
A simpler temperature switch can be achieved using the
CONTROL 701.
T e m p e r a t u r e
MIN: 0…100°C
T e m p e r a t u r e
MAX: 0…140°C
The minimum and maximum values at which the „T-PRO
2“ should switch over are entered here. When the maxi-
mum set temperature is exceeded at the temperature sen-
sor the contact is opened. If the temperature falls below the
set minimum temperature the contact is closed. See the
Temperature Switch Example under paragraph 2.7.
T P R O 2 Extended Running Time:
0..6 0 M I N.
The „T-PRO 2“ function will only be deactivated once the
extended running time has expired.
Use T P R O 2 Time Switch:
Yes / No
If the time switch option „Yes“ is set the T-PRO 2 will only
be active during the two set time periods.
T P R O 2:
Each Day/Every Day/Weekend-
Weekdays
The time switch is set as described in paragraph 2.4.1.
2.9 Service Menu
Main Menu 12:34
S e r v i c e
Time 12:34
O k : hours/ minutes + / -
The time can be set here. Using the „-" and „+" keys the
hour can be set first, and once confirmed and entered by
pressing „OK“, the minutes can be set.
M o n d a y
Todays’s day - +
On first commissioning the actual day is entered here.
Set Factory Settings?
If „Set Factory Settings“ is confrimed with OK the regulator
will be set to it’s original factory settings and will operate
using its factor set base values (Variation 1).
Save Programme?
Load Saved Programme?
Settings particular to the customer can be saved and re-
loaded here.
Manual Operation?
All functions can be activated manually here.
Manually operated settings have priority. That is, pump,
valve or mixer functions can be switched on when that
particular function is switched off under another menu
point or even if that function is disrupted.
Example: Solar Pump Manual Operation
On: The solar pump is switched on permanently.
Off: The solar pump is switched off.
Auto: The regulator controls the solar hot water loading
to the thermal store following the settings.
NOTE:
If the hot water back up heating and the boiler func-
tions are activated manually by „on“ they switch back
to „Auto“ operation after 10 minutes automatically.
ATTENTION:
Any part of the system should only be switched on
manually for short periods and for test purposes. Con-
tinual running will lead to damage to the system or it’s
components because the safety functions are being
over ridden.
Block the Professional Menu?
After confirming this option with OK entry to some of the
input menus will be blocked and only accessible with a
TDMA CONTROL 601/701:
19
Published 07/2007
code(3003) The input of system parameters should only be
carried out by trained personnel.
2.10 PC- Interface
The CONTROL 601/701 can be connected to a PC via a
serial interface. The solar thermal heating system can be
monitored and the settings made via the PC. „On-line Op-
eration“ allows records of temperature, yield and energy
to be made and for this information to be presented as
graphs and printed out. The data can be imported into an
MS-Excel database. Diagram 1 is a view of the PC-
software window.
„Off-line Operation“ allows the following data to be saved
and read out later:
Daily insolation
Daily maximum collector yield
Daily maximum collector temperature
Daily maximum upper thermal store temperature
Total insolation
The interface is installed by fitting the circuit board into the
module slot in the upper housing of the regulator. (see „In-
stallation“ on page 37 or page 58). The PC-Interface is
available as a package suitable for Window 95, 98 and
NT. For Windows version XP with USB connection a USB-
RS323 converter (e.g. Digitus DA-70119) is necessary.
3 Disruption and Function
Control
If a temperature sensor detects and reports a malfunction
(short circuit or interruption), the regulator will react ac-
cording to the relationships listed in the following tables.
Any disruption will cause the LCD indicator to flash and
the fault will be shown in the display panel. An interrup-
tion will be shown as:
Interruption in Sensor
N
o
. ...
And a short circuit as:
Short Circuit in Sensor
N
o
. ...
A disruption notice and a response to it will only occur for
a function which is activated. That is, if a function (e.g.
yield or frost protection) is not activated and no sensor is
connected, no disruption will be detected or notified, and
there will therefore be no response to a disruption in the
sensor.
3.1 Regulating the Solar Thermal System without
Extra Functions
Sensor Disruption:
Response
Collector Sensor
Solar pump = Off
Cooling = Normal operation
Hot Water Back up Heating = Normal Op-
eration
Upper Thermal Store Sensor
Solar pump = Off
Cooling = Off
Hot Water Back up Heating = Off
Lower Thermal Store Sensor
Solar pump = Off
Cooling = Normal operation
Hot Water Back up Heating = Normal opera-
tion
3.2 Regulating the Solar Thermal System with
Activated Frost Protection
Sensor Disruption
Response
Collector Sensor
Solar pump = Off
Cooling = Normal operation
Hot Water Back up Heating = Normal Opera-
tion
Upper Thermal Store Sen-
sor
Solar pump = Off
Cooling = Off
Hot Water Back up Heating = Off
Lower Thermal Store Sen-
sor
Solar pump = Off
Cooling = Normal operation
Hot Water Back up Heating = Normal Opera-
tion
Frost Protection Sensor
Solar pump = Normal operation and when the
collector temperature is < 20
o
C = On and if
the collector temperature > 22
o
C then Solar
pump = Off
Cooling = Normal operation
Hot Water Back up Heating = Off
Frost Protection Sensor
and Collector Sensor (short
circuit)
or
Frost Protection Sensor
and Collector Sensor (short
circuit) and Lower Thermal
Store Sensor
Solar pump = On and
If the upper thermal store temperature is >
90°C,
then solar pump = Off
Cooling = Normal operation
Hot Water Back up Heating = Off
TDMA CONTROL 601/701:
20
Published 07/2007
Frost Ptotection Sensor and
Collector Sensor (interrup-
tion)
or
Frost Protection Sensor
and Collector Sensor (in-
terruption) and Lower
Thermal Store Sensor
Solar pump = Off
Cooling = Normal operation
Hot Water Back up Heating = Off
Frost Ptotection Sensor and
Upper Thermal Store Sen-
sor
or
Frost Ptotection Sensor and
Lower Thermal Store Sen-
sor
Solar pump = Off, but if the collector tempera-
ture < 20
o
C then Solar pump = On and if the
collector temperature > 22
o
C, then solar pump
=Off
Cooling = Off
Hot Water Back up Heating = Off
Frost Ptotection Sensor and
Collector Sensor and Upper
Thermal Store Sensor
Solar pump = Off
Cooling = Off
Hot Water Back up Heating = Off
3.3 Regulating the Solar Thermal System with
Twin Thermal Store Regulation
Sensor Disruption
Response
Collector Sensor
Solar pump = Off
Cooling = Normal operation
Hot Water Back up Heating = Normal Opera-
tion
Upper Thermal Store Sen-
sor
Solar pump = Off
Cooling = Off
Hot Water Back up Heating = Off
Lower Thermal Store Sen-
sor
Solar pump = Off
Cooling = Normal operation
Hot Water Back up Heating = Normal Opera-
tion
Lower Thermal Store Sen-
sor 2
Solar pump = Normal operation
Cooling = Off, switch to Lower thermal store
sensor
Hot Water Back up Heating = Normal Opera-
tion
Lower Thermal Store Sen-
sor 2 and Collector Sensor
Solar pump = Off
Cooling = Off
Hot Water Back up Heating = Normal opera-
tion
Lower Thermal Store Sen-
sor 2 and
Upper Thermal Store Sen-
sor
Solar pump = Off
Cooling = Off
Hot Water Back up Heating = Off
Lower Thermal Store Sen-
sor 2 and Lower Thermal
Store Sensor
Solar pump = Off
Cooling = Off
Hot Water Back up Heating = Normal Opera-
tion
3.4 Regulating the Solar Thermal System with
Heating Functions
Sensor Disruption
Response
Collector Sensor
Solar pump = Off
Cooling = Normal operation
Hot Water Back up Heating = Normal Opera-
tion
Upper Thermal Store Sen-
sor
Solar pump = Off
Cooling = Off
Hot Water Back up Heating = Off
Boiler = Off
Boiler pump = Off
Lower Thermal Store Sen-
sor
Solar pump = Off
Cooling = Normal operation
Hot Water Back up Heating = Normal Opera-
tion
Return Flow Temperature
Raising Thermal Store
Sensor RLA (Return flow
temperature raising)
Solar pump = Normal operation
Cooling = Normal operation
Hot Water Back up Heating = Normal Opera-
tion Switch over valve = no flow (AB-B)
Return Flow Sensor (Re-
turn flow temperature
raising)
Solar pump = Normal operation
Cooling = Normal operation
Hot Water Back up Heating = Normal Opera-
tion
Switch over valve = no flow (AB-B)
Solid Fuel Boiler Sensor
(solid fuel boiler)
Solar pump = Normal operation
Cooling = Normal operation
Hot Water Back up Heating = Normal Opera-
tion
Solid fuel boiler pump = On
Solid Fuel Boiler Thermal
Store Sensor (Solid fuel
boiler)
Solar pump = Normal operation
Cooling = Normal operation
Hot Water Back up Heating = Normal Opera-
tion
Solid fuel boiler pump is controlled via the solid
fuel boiler sensor
Upper and Lower Buffer
Sensors
Solar pump = Normal operation
Cooling = Normal operation
Hot Water Back up Heating = Normal Opera-
tion
Heating circuit pump = Normal operation
Boiler = Off (including with not water back up
heating)
Boiler pump = Off
Boiler Sensor
Solar pump = Normal operation
Cooling = Normal operation
Hot Water Back up Heating = Off
Heating circuit pump = Normal operation
Boiler = Off
Boiler pump = Off
External Temperature
Sensor
Solar pump = Normal operation
Cooling = Normal operation
Hot Water Back up Heating = Normal Opera-
tion
Heating circuit pump = Off
Boiler = Off
Heating Circuit Inflow
Sensor
Solar pump = Normal operation
Cooling = Normal operation
Hot Water Back up Heating = Normal Opera-
tion
Heating circuit pump = Off
Boiler = Normal operation
TDMA CONTROL 601/701:
21
Published 07/2007
4 CONTROL 601 Regulator
Connection and Installation
Instructions
The following pages present the three CONTROL 601
variations. The hydraulic circuits are illustrated simply with
examples, some of which are also valid for other varia-
tions.
For designing the hydraulic circuits the diagrams in the
Technical Documentation for COAX, CONUS and the
SOLUS series should be used.
ADVICE:
The details and diagrams given in the Technical Docu-
mentation do not claim to be comprehensive and are
not a replacement for professional design. Subject to
changes and errors.
ADVICE:
The preprinted brightly-coloured labelling on the
CONTROL 601 applies to the most commonly installed
system - Variation 3. The accompanying stickers can
be used for other variations.
ATTENTION:
It is imperative that the boiler manufacturer’s instruc-
tions are followed.
TDMA CONTROL 601/701:
22
Published 07/2007
CONTROL 601
4.1 Variation 1:
Solar Thermal Regulation with Return Flow
Temperature Raising
4.1.1 OVERVIEW OF FUNCTIONS:
Optimized solar thermal regulation for heating support
Yield measurement
Cooling
Hot water back up heating
Circulation
East- West regulating, insolation measurement, active
frost protection, twin thermal store prioritizing, twin
thermal store balancing, swimming pool
Return flow temperature raising, solid fuel boiler, multi-
functional temperature difference regulating (T-PRO)
Optional PC-interface
Out-
put
Menu Setting
Function
Output volta-
ge
Output choice
A1
Basic Function
Solar pump
230 V
A2
Additional Func-
tion 4
Circulation
230 V
A3
Optional Function
2
East-West
230 V
A4
Optional Function
1
Rerurn flow tempera-
ture raising
Solid fuel boiler
T-PRO
230 V
A5
Additional Func-
tion 2
Optional Function
2
Cooling
Twin thermal store
prioritizing
Twin thermal store
balancing
Swimming pool
Frost protection
230 V
A6
Additional Func-
tion 3
Hot water back up
heating
0 V
Input
Menu Setting
Sensor Connection
Necessary
Function
Location and Sensor Identification
F1
Basic Function
Yes
Solar thermal re-
gulating
Absorber outflow: collector sensor
F2
Basic Function
Yes
Solar thermal re-
gulating
Sensor housing F: lower thermal store sensor
F3
Basic Function
Yes
Limiting the ther-
mal store tempera-
ture, back up heat-
ing, cooling
Sensor housing or
Sensor housing B :
upper thermal store sensor
F4
Additional Functi-
on 1
dependant
on function
option
Yield measurement
CON-SOLARSTATION sensor housing
Yield sensor (Heat exchanger outflow)
F5
Additional Functi-
on 1
dependant
on function
option
Yield measurement
CON-SOLARSTATION sensor housing
Yield sensor (Heat exchanger inflow)
F6
Optional Function
1
dependant
on function
option
Return temperature
raising
Solid fuel boiler
T-PRO
Heating return flow: Return flow sensor
Solid fuel boiler: solid fuel boiler sensor
T-PRO sensor 1: Position dependant on use
F7
Optional Function
1
dependant
on function
option
Return temperature
raising
Solid fuel boiler
T-PRO
Sensor housing: Return flow temperature raising thermal store
sensor
Sensor housing E: Solid fuel boiler thermal store sensor
T-PRO sensor 2: Position dependant on use
F8
Optional Function
2
dependant
on function
option
East-West
Insolation meas-
urement
Frost protection
Twin thermal stores
Swimming pool
Absorber outflow: Collector sensor 2
close to the collector with the same orientation: Solar insola-
tion sensor
Collector pipework (at the coldest point): Frost protection sen-
sor
Thermal store buffer zone - lower: second lower thermal store
sensor
Swimming pool: Swimming pool sensor
D1
Additional Functi-
on 3
No
Circulation and
bath function
Bathroom: Button
11)12)
D2
Additional Funci-
on 1
No
Flow volume mea-
suring
Solar return flow pipework: flow volume meter
Key
Basic function: always activated
Optional Function / Additional Function:can be activated as required.
Dependant on function option: depending on the set function
the relevant sensor must be connected. If no function is chosen there is
no connection.
Sensor / Output choice: Enter the system dependant connection.
TDMA CONTROL 601/701:
23
Published 07/2007
TDMA CONTROL 601/701:
24
Published 07/2007
4.1.2 Hydraulic Circuit Example CONTROL 601 Variation 1
Back flow preventer
Mixer
Switch over valve
Safety valve
Under floor
heating
Heating circuit
station
Boiler .
Flow volume meter
Pump
Analogue Thermometer
Temperature sensor e.g. F3
(FHB) Sensor 3 in sensor housing
B
Flushing tap
Key
Hot water Out
Flushing tap
Cold water In
Cold water
Hot water
SOLUS II
Externe heat source
Oil fired boiler
Or gas fired boiler
RL = boiler return flow
VL = boiler inflow
Fuel:
x Oil
x Gas
o Pellets
R1 = return
flow 1
R2 = return
flow 2
Collector 1
CON-SOLARSTATION
Variation 1
Hydraulic connections
x Return flow temperature raising
o Boiler buffering
KV = boiler inflow
HV = heating inflow
Collector 2
Hydraulic Circuit
Example
Thermal Store
x SOLUS
o CONUS
o CUBUS
o COAX
Lightning pro-
tector
MAG
CONTROL 601:
Regulator
o CONTROL 300
x CONTROL 601
o CONTROL 701
TDMA CONTROL 601/701:
25
Published 07/2007
System variation
Recommended value:
Setting:
System variation
1
Stratified loading function
Auto
Additional Function 1
Yield
Additional Function 2
System dependant
Additional Function 3
System dependant
Additional Function 4
System dependant
Optional Function 1
System dependant
Optional Function 2
System dependant
Solar input max via
Yield sensor
Solar input max 120°C tempo-
rarily
System dependant
Hot water back up heating via
CONTROL
10)
System dependant
Solar input:
Recommended value:
Setting:
Solar difference
6...12K
Solar difference 2
14)
6...12K
Switch to winter operation
1)
25 °C
Thermal store max
90 °C
Cooling temperature
2)4)
85 °C
Cooling hysteresis
2)4)
5K
Switch over temperature
3)5)6)
85°C
Switch hysteresis
3)5)6)
5 K
Swimming pool
6)
25 °C
Extended running frost protec-
tion
System dependant
Water input
11)
:
Recommended va-
lues:
Setting:
Hot water back up heating
target temperature
55 °C
Hot water back up heating
hysteresis
5K
Hot water back up heating
minimum temperature
System dependant
Hot water back up heating
extended running time
4 minutes
Optimized hot water back up
heating:
User dependant
Hot water back up heating
extra comfort
65 °C
Hot water back up heating
time switch
On
To Professional Menu?
Hot water back up heating
User dependant
Hot water back up heating On
1
User dependant
Hot water back up heating Off
1
User dependant
Hot water back up heating On
2
User dependant
Hot water back up heating Off
2
User dependant
Water Input
12)
:
Recommended value:
Setting:
Circulation
User dependant
Circulation On 1
User dependant
Circulation Off 1
User dependant
Circulation On 2
User dependant
Circulation Off 2
User dependant
Circulation On 3
User dependant
Circulation Off 3
User dependant
Move back through menu
Water Input
Circulation running time
1…3 minutes
Circulation Time Switch
On
To Professional Menu?
Results Input:
Recommended value:
Setting:
Antifreeze type
13)
Propylene
Antifreeze proportion
13)
System dependant
Solar through flow
13)18)
System dependant
Volume meter
13)
System dependant
Insolation sensor
7)
System dependant
Return solar operating hours to
zero?
No
Return energy record to zero?
No
Return records to zero ?
19)
No
Heating Input:
Recommended value:
Setting:
Return flow temperature raising
difference
10)
2K
Boiler Input:
Recommended value:
Setting:
Solid fuel boiler temperature
minimum
9)
50 °C
Solid fuel boiler temperature
difference
9)
4 K
T-PRO Input
8)
:
Recommended value:
Setting:
Temperature sensor 2
System dependant
T-PRO difference
System dependant
T-PRO hysteresis
System dependant
Temperature T1 minimum
System dependant
Temperature T1 maximum
System dependant
Temperature T2 minimum
System dependant
Temperature T2 maximum
System dependant
T-PRO extended running
System dependant
T-PRO time switch
System dependant
To Professional Menu ?
Time switch clock
User dependant
T-PRO On 1
User dependant
T-PRO Off 1
User dependant
T-PRO On 2
User dependant
T-PRO Off 2
User dependant
Move back through menu T-
PRO?
Service:
Recommended value:
Setting:
App/Sys
Time
actual time
Todays Day
actual day
Set factory settings?
No
Confirm factory settings?
No
Save programme ?
User dependant
TDMA CONTROL 601/701:
26
Published 07/2007
Load saved programme?
User dependant
--> Manual operation?
Solar pump
Auto
Pump Circulation
Auto
Cooling
2)
Auto
Twin thermal store
3)5)
Auto
Swimming pool
6)
Auto
East-West
Auto
Hot water back up heating
Auto
T-PRO
8)
Auto
Solid fuel boiler
9)
Auto
Return flow temperature rai-
sing
10)
Auto
Return to Service Menu?
Look at module slots?
Block professional menu?
User dependant
Only for the setting:
1) Stratified loading function = Auto
2) Cooling
3) Twin thermal store prioritizing
4) Cooling using the heating circuit 1
5) Twin thermal store balancing
6) Swimming pool
7) Insolation measuring
8) T-PRO
9) Solid fuel boiler
10) Return flow temperature raising
11) Hot water back up heating
12) Circulation
13) Yield
14) East-West
Notes:
18) When a flow volume meter is used the solar through flow
must be set to 0 l/mim
19) The „Return records to zero" function erases the data saver –
only possible using the PC interface
20) Only with TR-CONTROL connection. See TR-CONTROL
Technical Documentation.
21) The parameters only need to be set for modulated boiler op-
eration.
22) When Optional Function2 „Boiler Regulator“ or „East-West
is set the „Solar insolation measuring“ and „Frost protection“
functions are not available.
TDMA CONTROL 601/701:
27
Published 07/2007
CONTROL 601
4.2 Variation 2:
Solar Thermal System and Heating Circuit
Regulation with Return Flow Temperature
Raising
4.2.1 OVERVIEW OF FUNCTIONS:
Optimized solar thermal regulation for heating support
Heating circuit mixer regulating
Yield measurement, return flow temperature raising,
solid fuel boiler or multifunctional temperature difference
regulating (T- PRO)
Cooling or cooling using the heating circuit, hot water
back up heating, circulation or boiler regulator (single
stage or modulated)
Twin thermal store prioritizing, twin thermal store bal-
ancing, swimming pool, insolation measuring or active
frost protection
Optional PC interface
Output
Menu Setting
Function
Output
Voltage
Output
Choice
A1
Basic function
Solar pump
230 V
A2
Optional Functi-
on 1
Return flow temperature
raising
Solid fuel boiler
T-PRO
230 V
A3
Basic function
Heating pump
230 V
A4
Basic function
Mixer On
230 V
A5
Basic function
Mixer Off
230 V
A6
Optional function
2
Optional function
3
Boiler On/Off
East-West
Cooling
Hot water back up hea-
ting
Circulation
Twin thermal store pri-
oritizing*
Twin thermal store
balancing*
Swimming pool*
0 V
* Only for the setting Cooling (Optional function 2)
Input
Menu Setting
Necessary Sensor
Connection
Function
Location and Sensor Description
Sensor
Choice
F1
Basic function
yes
Solar regulating
Absorber outflow: Collector sensor
F2
Basic function
yes
Solar regulating
Sensor casing F (FHF): Lower thermal store sensor
F3
Basic function
yes
Limiting the thermal
store temperature, back
up heating, cooling
Sensor casing A (FHA) or B (FHB): Upper thermal store
sensor
F4
Optional function
1
dependant on
function choice
Yield measurement
Return flow temperature
raising
Solid fuel boiler
T-PRO
Sensor casing in CON-SOLARSTATION:
Yield sensor (Heat exchanger outflow)
Heating return flow: Return flow sensor
Solid fuel boiler: Solid fuel boiler sensor
T-PRO Sensor 1: Position dependant on use
F5
Optional function
1
dependant on
function choice
Yield measurement
Return flow temperature
raising
Solid fuel boiler
T-PRO
Sensor casing in CON-SOLARSTATION:
Yield sensor (Heat exchanger inflow)
Sensor casing C (FHC): Return flow temperature raising
thermal store sensor
Sensor casing E (FHE): Solid fuel boiler thermal store
sensor
T-PRO Sensor 2: Position dependant on use
F6
Additional func-
tion 5
dependant on
function choice
Heating regulating
Heating inflow: Inflow temperature sensor
F7
Additional func-
tion 5
dependant on
function choice
Heating regulating
House North Wall: External temperature sensor
F8
Optional function
2
Optional functi-
on3
dependant on
function choice
East-West Regulating
Boiler regulator
Frost protection
Insolation measuring
Twin thermal store
Swimming pool
Absorber outflow: Collector sensor 2
Boiler: Boiler sensor
Collector pipework (at coldest point): Frost protection
sensor
Near the collector: Solar insolation meter
Lower buffer store: second lower thermal store sensor
Swimming pool: Swimming pool sensor
D1
Additional func-
tion 5
No
Circulation and bath
function1
1)12)17)
Bathroom: Button
D2
Optional function
1
No
Flow volume measuring
Solar return flow: Flow volume meter
Key
Basic function: always activated
Optional Function / Additional Function:can be activated as
required.
Dependant on function option: depending on the set function the relevant
sensor must be connected. If no function is chosen there is no connection.
Sensor / Output choice: Enter the system dependant connection.
TDMA CONTROL 601/701:
28
Published 07/2007
4.2.2 Hydraulic Circuit Example CONTROL 601 Variation 2
Return flow retarder
Mixer
Switch over valve
Safety valve
Under Floor Hea-
ting
Heating Circuit-
Station
F7 (External tempera-
ture)
Boiler
Flow volume meter
Pump
Analogue Thermometer
Temperature sensor e.g. F3 (FH
B)
Sensor 3 in Sensor casing B
Flushing tap
Key
Hot water Off
Taps
Cold water ON
Cold water
Hotwater
SOLUS II
Hydraulic circuit:
Oil Boiler
or Gas Boiler
KV = Boiler Inflow
HV = Heating Circuit Inflow
Fuel type:
x Oil
x Gas
o Pellets
CON-SOLARSTATION
Variation 2
hydraulic circuit:
x Return flow temperature
raising
o Boiler buffering
RL = Return flow
VL = Inflow
Collector 1
Hydraulic Circuit E-
xample
Thermal Store:
x SOLUS
o CONUS
o CUBUS
o COAX
Lightening
protection
MAG
CONTROL 601:
Regulator:
o CONTROL 300
x CONTROL 601
o CONTROL 701
TDMA CONTROL 601/701:
29
Published 07/2007
System Variations:
Recommended value:
Setting:
System Variation
2
Stratified loading function
Auto
Additional function 5
Heating Circuit
Regulating
Optional function 1
System dependant
Optional function 2
System dependant
Optional function 3
System dependant
Solar Input maximum above
System dependant
Solar Input max temporarily
120 °C
System dependant
Hot water back up heating via
CONTROL
10)
System dependant
Solar Input:
Recommended va-
lue:
Setting:
Solar difference
6...12K
Solar difference 2
14)
6...12K
Switch over to Winter
1)
25 °C
Thermal Store max
90 °C
Cooling temperature
2)4)
85 °C
Cooling hysteresis
2)4)
5K
Switch over temperature
3)5)6)
85°C
Switch over hysteresis
3)5)6)
5 K
Heating Circuit Target Inflow
Temp.
4)
40 °C
Swimming pool Max
6)
25 °C
Frost protection extended run-
ning
22)
System dependant
Water Input
11)17)
:
Recommended va-
lue:
Setting:
Hot water back up heating
Target temperature
55 °C
Hot water back up heating
hysteresis
5K
Hot water back up heating Min
Temp.
System dependant
Hot water back up heating
extended running
4 Minutes
Optimized hot water back up
heating:
User dependant
Hotwater Prioritizing
System dependant
Extra comfort hot water back
up heating
65 °C
Hot water back up heating
Time Switch
On
To Professional Menu?
Hot water back up heating
User dependant
Hot water back up heating On
1
User dependant
Hot water back up heating
Off 1
User dependant
Hot water back up heating On
2
User dependant
Hot water back up heating
Off 2
User dependant
Water Input
12)
:
Recommended va-
lue:
Setting:
Circulation running time
1…3 Minutes
Circulation Time Switch
On
To Professional Menu?
Circulation
User dependant
Circulation On 1
User dependant
Circulation Off 1
User dependant
Circulation On 2
User dependant
Circulation Off 2
User dependant
Circulation On 3
User dependant
Circulation Off 3
User dependant
Move back through menu
Water Input
Results Input:
Recommended va-
lue:
Setting:
Antifreeze type
13)
Propylene
Antifreeze proportion
13)
System dependant
Solar through flow
13)
System dependant
Volume meter
13)
System dependant
Insolation sensor
7)22 )
System dependant
Return solar operating hours to
zero?
No
Return energy record to zero?
No
Return records to zero
19)
?
No
Heating Input:
Recommended value
Setting:
Daytime external temperature
heating limit
16)
22 °C
Night time external tempera-
ture heating limit
16)
18 °C
External temperature frost pro-
tection limit
16)
4 °C
Day time temperature drop
16)
On
To Professional Menu ?
16)
Required daytime temperatu-
re
16)
18 °C
Day time temperature drop
16)
User dependant
Day time temperature drop
On
16)
User dependant
Day time temperature drop
Off
16)
User dependant
Night time temperature drop
16)
On
To Professional Menu ?
16)
Required night time temperatu-
re
16)
16 °C
Night time temperature drop
16)
User dependant
Night time temperature drop
On
16)
User dependant
Night time temperature drop
Off
16)
User dependant
Override/Party switch
16)
User dependant
Operation mode
16)
Seasonally depen-
dant
Return flow temperature rais-
ing difference
10)
2K
Room thermostat active?
16)20)
System dependant
Regulate heating circuit with
TR CONTROL?
20)
System dependant
Heating Circuit Input
16)
:
Recommended va-
lue:
Setting:
Required heating temperature
20 °C
TDMA CONTROL 601/701:
30
Published 07/2007
Heating curve gradient
See Tech. Doc.
Heating curve curvature
System dependant
Maximum inflow temperature
System dependant
Minimum inflow temperature
System dependant
Mixer regulator parameters
System dependant
Boiler Input
17)
:
Recommended va-
lue:
Setting:
Minimum boiler temperature
Boiler dependant
Maximum boiler temperature
Boiler dependant
Boiler difference max
10 K
Single stage/ modulated
System dependant
Minimum boiler capacity
21)
Boiler dependant
Maximum boiler capacity
21)
Boiler dependant
Boiler capacity at 0 volts
21)
Boiler dependant
Boiler capacity at 10 volts
21)
Boiler dependant
Para regulator parameter
21)
System dependant
Tn regulator parameter
21)
System dependant
Boiler minimum running time
2 Minutes
Solid fuel boiler temperature
minimum
9)
50 °C
Solid fuel boiler temperature
difference
9)
4 K
Boiler off when solid fuel boiler
on?
9)
System dependant
T-PRO Input
8)
:
Recommended va-
lue:
Setting:
Temperature sensor 2
System dependant
T-PRO difference
System dependant
T-PRO hysteresis
System dependant
Temperature T1 minimum
System dependant
Temperature T1 maximum
System dependant
Temperature T2 minimum
System dependant
Temperature T2 maximum
System dependant
T-PRO extended running
System dependant
T-PRO time switch
On
To Professional Menu ?
T-PRO time switch
User dependant
T-PRO On 1
User dependant
T-PRO Off 1
User dependant
T-PRO On 2
User dependant
T-PRO Off 2
User dependant
Move back through T-PRO
menu?
Service:
Recommended va-
lue:
Setting:
App/Sys
Time
actual time
Todays Day
actual day
Set factory settings?
No
Confirm factory settings?
No
Save programme ?
User dependant
Load saved programme?
User dependant
Manual operation?
Solar pump
Auto
Pump circulation
12)
Auto
Cooling
2)
Auto
Twin thermal store
3)5)
Auto
Swimming pool
6)
Auto
Heating pump
Auto
Heating circuit mixer
Boiler
17)
Auto
East-West
14)
Auto
Hot water back up heating
11)
Auto
T-PRO
8)
Auto
Solid fuel boiler
9)
Auto
Return flow temperature rai-
sing
10)
Auto
Return to Service Menu?
Look at module slots?
Block professional menu?
User dependant
Only for the setting:
1) Stratified loading function = Auto
2) Cooling
3) Twin thermal store prioritizing
4) Cooling using the heating circuit 1
5) Twin thermal store balancing
6) Swimming pool
7) Insolation measuring
8) T-PRO
9) Solid fuel boiler
10) Return flow temperature raising
11) Hot water back up heating
12) Circulation
13) Yield
14) East-West
16) Heating Circuit
17) Boiler regulator
Notes:
18) When a flow volume meter is used the solar through flow
must be set to 0 l/mim
19) The „Return records to zero" function erases the data saver
only possible via the PC interface
20) Only when using a TR-CONTROL msut the room thermostat
active = yes function be set. See also the TR-CONTROL Technical
Documentation
21) The parameters only need to be set for modulated boiler op-
eration.
22) When Optional Function 2 „Boiler Regulator“ or „East-West
is set the „Solar insolation measuring“ and „Frost protection“ func-
tions are not available. 21) The parameters only need to be set for
modulated boiler operation.
22) When Optional Function2 „Boiler Regulator“ is set the „Solar
insolation measuring“ and „Frost protection“ functions are not
available.
TDMA CONTROL 601/701:
31
Published 07/2007
TDMA CONTROL 601/701:
32
Published 07/2007
CONTROL 601
4.3 Variation 3:
Solar Thermal System and Heating Regula-
tion with Boiler Buffering
4.3.1 OVERVIEW OF FUNCTIONS:
Optimized solar thermal regulation for heating support,
return flow temperature raising, solid fuel boiler or mul-
tifunctional temperature difference regulating (T- Pro)
Heating circuit mixer regulation
Boiler regulation (single stage or modulated), twin ther-
mal store prioritizing, twin thermal store balancing,
swimming pool, insolation measuring or active frost pro-
tection
Yield measurement or Buffer logic
Cooling or cooling using the heating circuit, hot water
back up heating, circulation or pump regulator for
boiler and thermal store
Optional PC interface
Out-
put
Menu Setting
Function
Output
Voltage
Output
Choice
A1
Optional function
3
Cooling
Hot water back
up heating
Circulation
Boiler or thermal
store pump
230 V
Optional function
2
Twin thermal
store prioritizing
Twin thermal
store balancing
Swimming pool
A2
Optional function
1
Solar pump
Return flow tem-
perature raising
Solid fuel boiler
T-PRO
230 V
A3
Basic function
Heating pump
230 V
A4
Basic function
Mixer On
230 V
A5
Basic function
Mixer Off
230 V
A6
Optional function
2
Boiler On/Off
0V
.
Input
Menu Setting
Necessary Sensor
Connection
Function
Location and Sensor Descriptiong
Sensor
Choice
TDMA CONTROL 601/701:
33
Published 07/2007
F1
Optional functi-
on 1
dependant on
function choice
Solar regulating
Return flow temperature
raising
Solid fuel boiler
T-PRO
Absorber outflow: Collector sensor
Heating return flow: Return flow sensor
Solid fuel boiler: Solid fuel boiler sensor
T-PRO Sensor 1: Position dependant on use
F2
Optional functi-
on 1
dependant on
function choice
Solar regulating
Return flow temperature
raising
Solid fuel boiler
T-PRO
Sensor casing F (FHF): Lower thermal store sen-
sor
Sensor casing C (FHC): Return flow temperature
raising thermal store sensor
Sensor casing E (FHE): Solid fuel boiler thermal
store sensor
T-PRO Sensor 2: Position dependant on use
F3
Basic function
yes
Limiting thermal store
temperature,
Back up heating, cool-
ing
Sensor casing A (FHA) or B (FHB): Upper ther-
mal store sensor
F4
Optional functi-
on 4
dependant on
function choice
Yield measurement
Buffer logic
Sensor casing in CON-SOLARSTATION:
Yield sensor (Heat exchanger outflow)
Sensor casing C (FHC): Upper buffer region sen-
sor
F5
Optional functi-
on 4
dependant on
function choice
Yield measurement
Buffer logic
Sensor casing in CON-SOLARSTATION:
Yield sensor (Heat exchanger inflow)
Sensor casing C (FHD): Lower buffer region sen-
sor
F6
Additional func-
tion 5
dependant on
function choice
Heating regulating
Heating inflow: Inflow temperature sensor
F7
Additional func-
tion 5
dependant on
function choice
Heating regulating
House North Wall: External temperature sensor
F8
Optional functi-
on 2
dependant on
function choice
Boiler regulator
Frost protection
Insolation measuring
Twin thermal store
Swimming pool
Boiler: Boiler sensor
Collector pipework (at the coldest point): Frost
protection sensor
Near the collector: Solar insolation meter Lower
buffer store: second lower thermal store sensor
Swimming pool: Swimming pool sensor
D1
Optional functi-
on 3
No
Circulation and bath
function
11)12)17)
Bathroom: Button
D2
Optional functi-
on 1
No
Flow volume measu-
ring
13)
Solar return flow: Flow volume meter
Key
Basic function: always activated
Optional Function / Additional Function:can be activated as required.
Dependant on function option: depending on the set function
the relevant sensor must be connected. If no function is chosen there is
no connection.
Sensor / Output choice: Enter the system dependant connection.
TDMA CONTROL 601/701:
34
Published 07/2007
4.3.2 Hydraulic Circuit Example CONTROL 601 Variation 3
Return flow retarder
Mixer
Switch over valve
Safety valve
Radiators
Heating
Circuit
Station
F7 ((External Temperatu-
re)
Boiler .
Flow volume meter
Pump
Analogue Thermometer
Temperature sensor e.g. F3 (FH B)
Sensor 3 in Sensor Housing B
Flushing tap
Key
Cold water
Hotwater
External Heat Source:
Oil Boiler
or Gas Boiler
or PelletsBoiler
Hot water Off
Taps
Cold water
ON
SOLUS II
Fuel type:
x Oil
x Gas
x Pellets
CON-
SOLARSTATION
hydraulische Verschaltung:
o Return flow temperature raising
x Boiler buffering
RL = Return flow
VL = Inflow
Thermal Store:
x SOLUS
o CONUS
o CUBUS
o COAX
Collector 1
Lightening
protection
MAG
CONTROL 601 Hydraulic Circuit Example: Variation 3
Regulator:
o CONTROL 300
x CONTROL 601
o CONTROL 701
TDMA CONTROL 601/701:
35
Published 07/2007
System Variations:
Recommended value:
Setting:
System Variation
3
Stratified loading function
Auto
Additional function 5
Heating Circuit
Regulating
Optional function 1
System dependant
Optional function 2
System dependant
Optional function 3
System dependant
Optional function 4
System dependant
Solar Input maximum above
System dependant
Solar Input temporary max 120
°C
System dependant
Hot water back up heating via
CONTROL
10)
System dependant
Solar Input:
Recommended va-
lue:
Setting:
Solar difference
14)
6...12K
Switch over to Winter
1)14 )
25 °C
Thermal Store max
90 °C
Cooling temperature
2)4)
85 °C
Cooling hysteresis
2)4)
5 K
Switch over temperature
3)5)6)
85°C
Switch over hysteresis
3)5)6)
5 K
Heating Circuit Target Inflow
Temp.
4)
40 °C
Swimming pool Max
6)
25 °C
Frost protection extended run-
ning
System dependant
Water Input
11)17):
Recommended va-
lue:
Setting:
Hot water back up heating
Target temperature
55 °C
Hot water back up heating hys-
teresis
5 K
Hot water back up heating Min
Temp.
System dependant
Hot water back up heating ex-
tended running
4 Minutes
Optimized hot water back up
heating:
User dependant
Hotwater Prioritizing
System dependant
Extra comfort hot water back
up heating
65 °C
Hot water back up heating
Time Switch
On
-> To Professional Menu?
Hot water back up heating
User dependant
Hot water back up heating On
1
User dependant
Hot water back up heating Off
1
User dependant
Hot water back up heating On
2
User dependant
Hot water back up heating Off
2
User dependant
Water Input
12)
:
Recommended va-
lue:
Setting:
Circulation running time
1…3 Minutes
Circulation Time Switch
On
To Professional Menu?
Circulation
User dependant
Circulation On 1
User dependant
Circulation Off 1
User dependant
Circulation On 2
User dependant
Circulation Off 2
User dependant
Circulation On 3
User dependant
Circulation Off 3
User dependant
Move back through water
input menu
Results Input:
Recommended va-
lue:
Setting:
Antifreeze type
13)
Propylene
Antifreeze proportion
13)
System dependant
Solar through flow
13)
System dependant
Volume meter
13)
System dependant
Insolation sensor
7)
System dependant
Return solar operating hours to
zero?
No
Return energy record to zero?
No
Return records to zero
19)
?
No
Heating Input:
Recommended va-
lue:
Setting:
Daytime external temperature
heating limit
16)
22 °C
Night time external temperature
heating limit
16)
18 °C
External temperature frost pro-
tection limit
16)
4 °C
Day time temperature drop
16)
On
To Professional Menu ?
16)
Required daytime temperatu-
re
16)
18 °C
Day time temperature drop
16)
User dependant
Day time temperature drop
On
16)
User dependant
Day time temperature drop
Off
16)
User dependant
Night time temperature drop
16)
On
To Professional Menu ?
16)
Required night time temperatu-
re
16)
16 °C
Night time temperature drop
16)
User dependant
Night time temperature drop
On
16)
User dependant
Night time temperature drop
Off
16)
User dependant
Override/Party switch
16)
User dependant
Operation mode
16)
Seasonally depen-
dant
Return flow temperature raising
difference
10)
2K
Room thermostat active?
16)20)
System dependant
Heating Circuit Input
16)
:
Recommended va-
lue:
Setting:
Required heating temperature
20 °C
Heating curve gradient
See Tech. Doc.
TDMA CONTROL 601/701:
36
Published 07/2007
Heating curve curvature
System dependant
Maximum inflow temperature
System dependant
Minimum inflow temperature
System dependant
Mixer regulator parameters
System dependant
Boiler Input
17)
:
Recommended va-
lue:
Setting:
Minimum boiler temperature
Boiler dependant
Maximum boiler temperature
Boiler dependant
Boiler difference max
10 K
Single stage/ modulated
System dependant
Minimum boiler capacity
21)
Boiler dependant
Maximum boiler capacity
21)
Boiler dependant
Boiler capacity at 0 volts
21)
Boiler dependant
Boiler capacity at 10 volts
21)
Boiler dependant
Regulator parameter P
21)
System dependant
Tn regulator parameter
21)
System dependant
Pump revolutions min
System dependant
Boiler minimum running time
2 Minutes
Boiler pump extended running
time
System dependant
Buffer Logic difference
15)
System dependant
Buffer Logic hysteresis
15)
System dependant
Solid fuel boiler temperature
min
9)
50 °C
Solid fuel boiler temperature
difference
9)
4 K
Boiler off when solid fuel boiler
on?
9)
System dependant
T-PRO Input
8)
:
Recommended va-
lue:
Setting:
Temperature sensor 2
System dependant
T-PRO difference
System dependant
T-PRO hysteresis
System dependant
Temperature T1 minimum
System dependant
Temperature T1 maximum
System dependant
Temperature T2 minimum
System dependant
Temperature T2 maximum
System dependant
T-PRO extended running
System dependant
T-PRO time switch
System dependant
To Professional Menu ?
T-PRO time switch
User dependant
T-PRO On 1
User dependant
T-PRO Off 1
User dependant
T-PRO On 2
User dependant
T-PRO Off 2
User dependant
Move back through menu
T-PRO?
Service:
Recommended va-
lue:
Setting:
App/Sys
Time
actual time
Todays Day
actual day
Set factory settings?
No
Confirm factory settings?
No
Save programme?
User dependant
Load saved programme?
User dependant
Manual operation?
Boiler pump
17)
Auto
Solar pump
14)
Auto
Pump circulation
12)
Auto
Cooling
2)
Auto
Twin thermal store
3)5)
Auto
Swimming pool
6)
Auto
Heating pump
Auto
Heating circuit mixer
Boiler
17)
Auto
Hot water back up heating
11)
Auto
T-PRO
8)
Auto
Solid fuel boiler
9)
Auto
Return flow temperature rai-
sing
10)
Auto
Return to Service Menu?
Look at module slots?
Block professional menu?
User dependant
TDMA CONTROL 601/701:
37
Published 07/2007
Only with the settings:
1) Stratified loading function =
Auto
2) Cooling
3) Twin thermal store prioritizing
4) Cooling using the heating
circuit 1
5) Twin thermal store balancing
6) Swimming pool
7) Insolation measuring
8) T-PRO
9) Solid fuel boiler
10) Return flow temperature
raising
13) Buffer logic
11) Hot water back up heat-
ing
12) Circulation
13) Yield
14) Solar
15) Buffer logic
16) Heating Circuit
17) Boiler regulator
Notes:
18) When a flow volume meter is used the solar through flow
must be set to 0 l/mim
19) The „Return records to zero" function erases the data saver
only possible with the PC interface
20) Only when using a TR-CONTROL must „room thermostat ac-
tive = yes“ be set. See also theTR-CONTROL Technical Documen-
tation.
21) The parameters only need to be set for modulated boiler op-
eration.
4.4 Safety Information
Make sure that you have read this installation and com-
missioning information carefully before you operate your
system. By doing so you will prevent damage to your sys-
tem which can occur due to incorrect operation. All work
must be carried out to comply with national and profes-
sional electrical guidelines, by competent, trained person-
nel.
4.5 Setting the System Variables
To prevent faulty circuits occuring when commissioning the
system, all connections should be made in the following
order:
1. Plug in the sensor and mains connections
2. Set the required system variations
3. Disconnect the mains voltage and connect the
outputs
Not following this order can lead to faulty circuits develop-
ing on commissioning the system because the „Factory set-
tings“ Variation 1 which are set when the system is deliv-
ered may not correspond with the required output circuit.
4.6 Installing
All installation work should be
carried out under cover. Shut
off the mains electricity supply.
After undoing the screws (1)
the housing upper casing (2)
can be lifted off towards the
front (see Figure 1). Using a
drill to make the holes, attach
back plate (3) of the housing
casing to an inside wall. Now
the electrical connections can
be made.
ATTENTION:
Never lift the casing lid when the mains electricity sup-
ply is connected!
4.7 Electrical Connection
The CONTROL 601 must be connected to an external
mains electricity supply at 230 V ± 10 % (50-60 Hz). The
connection is made at the L/ N/ PE clamps (see connec-
tion circuit board diagram 2).
Outputs 1 – 5 are each 230 Volt outputs. Their users are
connected to clamps A1 to A5.
Output 6 is a no voltage output. The output sould be con-
nected to clamps (6A + 6M).
When Output 6 is activate, contact M-A is closed.
Should the voltage free output have a 230 V output, the
operating voltage for the A6 output can be achieved using
a bridge from clamp LS to 6M.
If a modulated input signal boiler is connected, it should
be connected to clamps U (0 – 10V and GND.
The temperature sensors are connected to clamps F1 to F8.
The polarity of the temperature sensor connections is open
to choice. To prevent damage to the collector sensor from
being struck by lightening, a high voltage protection for
the installation is recommended (Art.-N
o
. RE500).
Clamps D1 and D2 are where the digital inputs are to be
connected.
ADVICE ON ELECTRICAL INSTALLATION GUIDELINES:
The relevant electrical installation guidelines must be
followed. The temperature sensor cables carry a low
voltage and must not be laid in the same channels as
other cables carrying voltages higher than 50V.
NOTE ON CONNECTION LAYING:
The connections should be made following the Regula-
tor Connection Information given in paragraph 4.
ADVICE ON SENSOR FAULTS:
If there is a faulty sensor and the flashing display pre-
vents setting the regulator, the sensor fault notification
can be overridden for 5 minutes by pressing "+" and "-
".
ADVICE ON POSITIONING THE COLLECTOR SENSOR:
The collector sensor should be fitted to the furthest pos-
sible absorber plate, so that it is also exposed to the in-
solation. Incorrect positioning of the collector sensor
can lead to inexact temperature measuring in the col-
lector and to a malfunction of the regulator.
If an immersion casing is used a good contact between
the sensor and the casing must be ensured. In must
cases using heat conducting paste is recommended. On
no account should the collector sensor be fitted outside
the collector.
An example of maximum cable lengths:
Sensor /
Interface
Cable
Length up
to
PT 1000
2 X 0.75 mm
25 m
PC-Interface
With standard serial
50 m
TDMA CONTROL 601/701:
38
Published 07/2007
cable
230 V
50/60 Hz
L1 Phase (black)
Mains switch
2 phase
N Neutral wire
(blue)
Solar pump
PE earth wire
(yellow-
green)
Fuses
Digital inputs
D1..D2
Remote
control
Extension modules
Modula-
ted
output
Insolation
sensor
PE Earth connection
(yellow/green)
N - Neutral wire connection
(blue)
Temperature sensors F1 - F8
Diagram 2: Connection circuit board of the CONTROL 601 with solar pump connection example
TDMA CONTROL 601/701:
39
Published 07/2007
4.8 Connecting the TR-CONTROL (RE440)
The TR- CONTROL is a remote control unit with an inte-
grated room thermostat. The heating circuit of the
CONTROL 601 can be controlled by a TR-CONTROL.
ADVICE:
Connection procedures and functions are described in
detail in the Technical Documentation of the TR-
CONTROL.
4.9 Connecting the Insolation Sensor (RE352)
For measurement purposes an insolation sensor can be
connected to the CONTROL 601. The clamp layout is
shown in diagram 3 below.
ES 24V GND
Diagram 3: Clamp layout for the Insolation Sensor ES3
ADVICE:
The insolation sensor functions are described in para-
graph 2.3.6, page 9.
4.10 Installing a PC Interface (RE030)
The CONTROL 601 can be connected to a PC using a se-
rial interface. This can be used to monitor the solar thermal
and heating system. In addition, different temperature and
results values can be redorded and presented as graphs.
The interface is available as an accessory and can be con-
nected to the regulator at a later date. Before installing the
interface, first disconnect the mains supply from the regula-
tor and remove the regulator casing lid.
The circuit board (1) can be inserted into the module slot in
the upper part of the casing of the regulator. The accom-
panying connection cable with a RS 232 plug is connected
to clamps A, B, C, and D of the „module1“ clamp row.
(See also the Interface Technical Documentation).
Diagram 4: Installing the PC interface
ADVICE:
The programme functions are described in the Online
help for the PC software.
4.11 Commissioning
When the instrument is connected to the mains electricity
supply, the chosen temperatures will be shown in the dis-
play panel. Using the Manual Operation point in the Serv-
ice Menu, set each output to ON (dependant on the oper-
ating system variation), to test that the connected outputs
are working without problem. The green control lamps
must light up and the pumps, valves and the mixer must
run.
After running the test set the swiitches to AUTO.
ATTENTION:
Manual operation must only be used for short periods
and only for system testing purposes. Continual switch-
ing on and off will lead to damage to the system or its
components, because the safety functions are overrid-
den.
TDMA CONTROL 601/701:
40
Published 07/2007
4.12 CONTROL 601 Technical Data
Basic Instrument:
Plastic casing, 200 x 120 x 90 mm
Fuse type:
IP 65
Operational voltage:
230 V ±10%, 50... 60 Hz, AC
Uptake:
max. 8 VA
Interference following:
EMI guidelines
Electricity guidelines:
DIN EN: 61010-1; 55022; 50082-1; 61326; 61000-4-2; 61000-4-3; 61000-4-4;
61000-4-5; 61000-4-6; 61000-4-11
Switch contact / Relay:
A1: 230 V / 2A Triac
A2..A5: 230 V / 2 A Relais
Output fuses:
Outputs 1 - 2 are protected jointly by a 3.15 A fuse.
Outputs 3-5 are protected jointly by a 6.3 A fuse.
Output 6 is protected by a 2.5 A fuse.
Control:
menu lead
Service Menu:
Every output can be operated manually.
Measurement register:
Dependant on sensor type
± 1K (in the range 0 ... 100°C)
Temperature sensor PT
1000
(RE040):
-30 °C ... 180 °C Continuous temperature, 250 °C temporarily
Temperature sensor PT
1000 (RE046):
-30 °C ... 80 °C Continuous temperature
Temp. in °C
-10
0
10
20
30
40
50
60
70
80
90
100
110
R in Ohm
961,5
1000
1038,5
1077
1115,5
1154
1192,5
1231
1269,5
1308
1346,5
1385
1423,5
Operating temperature regu-
lator:
0°C…40°C
TDMA CONTROL 601/701:
41
Published 07/2007
5 CONTROL 701 Regulator
Connection and Installation
Instructions
The following pages present the three CONTROL 701
variations. The hydraulic circuits are illustrated simply with
examples, some of which are also valid for other varia-
tions.
For designing the hydraulic circuits for a Consolar System
the circuit sugestions in the Technical Documentation for
COAX, CONUS and the SOLUS series should be used.
ADVICE:
The details and diagrams given in the Technical Docu-
mentation do not claim to be comprehensive and are
not a replacement for professional design. Subject to
changes and errors.
ATTENTION:
The instructions of the boiler manufacturer must be ad-
hered to.
CONTROL 701
5.1 Variation 1:
Solar Thermal System and Heating Regula-
tion with 2 Heating Circuits and Return Flow
Temperature Raising
5.1.1 OVERVIEW OF FUNCTIONS:
Optimized solar thermal regulation for heating support
East-West regulating
Yield measurement
Cooling, cooling using the heating circuit, twin thermal
store prioritizing, twin thermal store balancing, swim-
ming pool
Hot water back up heating
Circulation
Two heating circuits mixer regulating
Boiler regulation ( single stage or modulated)
Return flow temperature raising
Solid fuel boiler or multifunctional temperature differ-
ence regulater (T- PRO)
Insolation measuring, active frost protection or multifunc-
tional temperature switch (T- PRO 2)
Optional PC interface
Output
Menu Setting
Function
Output Vol-
tage
Output
Choice
TDMA CONTROL 601/701:
42
Published 07/2007
A1
Basic function
Thermal store pump
230 V
A2
Basic function
Solar pump
230 V
A3
Basic function
Circulation
230 V
A4
Optional function
1
Cooling
Twin thermal store
prioritizing
Twin thermal store
balancing
Swimming pool
230 V
A5
Basic function
Heating pump 1
230 V
A6
Basic function
Mixer 1 On
230 V
A7
Basic function
Mixer 1 Off
230 V
A8
Additional func-
tion 4
Heating pump 2
230 V
A9
Additional func-
tion 4
Mixer 2 On
230 V
A10
Additional func-
tion 4
Mixer 2 Off
230 V
A11
Additional func-
tion 5
Return flow tempe-
rature raising
230 V
A12
Additional func-
tion 1
East-West
230 V
A13
Optional function
2
Solid fuel boiler
T- PRO
230V
A14
Optional function
3
T- PRO 2
230 V
A15
Basic function
Hot water backup
heating
0V
A16
Additional func-
tion 6
Boiler On/Off
0 V
TDMA CONTROL 601/701:
43
Published 07/2007
5.1.2 Hydraulic Circuit Example CONTROL 701 Variation 1
Under floor heating
Return flow retarder
Mixer
Switch over valve
Safety valve
Heating
Circuit-
Station
Radiators
Heating Circuit-
Station
or Oil Boiler .
Flow volume meter
Pump
Analogue Thermometer
Temperature sensor e.g. F3 (FH B)
Sensor 3 in Sensor casing B
Flushing tap
Gas-
Key
F16 (External
temperature)
Cold water
Hotwater
External Heat Source:
Oil Boiler
or Gas Boiler
Taps .
SOLUS II
Pufferspeicher
Fuel type:
x Oil
x Gas
o Pellets
Hot water Off
Collector 1 Cold wa-
ter ON
CON-
SOLARSTATION
Hydraulic Circuit:
x Return flow temperature raising
o Boiler buffering
Thermal Store:
x SOLUS
o CONUS
o CUBUS
o COAX
Collector 2
Lightening
protection
MAG
CONTROL 701: Hydraulic Circuit Example Variation 1
Regulator:
o CONTROL 300
o CONTROL 601
x CONTROL 701
TDMA CONTROL 601/701:
44
Published 07/2007
Input
Menu Setting
Necessary Sensor
Connection
Function
Location and Sensor Description
Sensor
Choice
F1
Basic function
yes
Solar regulating
Absorber outflow: Collector sensor
F2
Additional func-
tion 1
dependant on
function choi-
ce
East-West regulating
Absorber outflow: Collector sensor 2
F3
Basic function
yes
Limiting the thermal
store temperature,
back up heating,
Cooling
Sensor casing A (FHA) or Sensor casing B (FHB):
Upper thermal store sensor
F4
Basic function
yes
Solar regulating
Sensor casing F (FHF): Lower thermal store sensor
F5
Basic function
yes
Heating regulating 1
Heating inflow: Inflow temperature sensor 1
F6
Additional func-
tion 4
dependant on
function choi-
ce
Heating regulating 2
Heating inflow: Inflow temperature sensor 2
F7
Additional func-
tion 2
dependant on
function choi-
ce
Yield measurement
(Solar input limiting)
Sensor casing in CON-SOLAR STATION
Yield sensor (Heat exchanger inflow)
F8
Additional func-
tion 2
dependant on
function choi-
ce
Yield measurement
Sensor casing in CON-SOLARSTATION
Yield sensor (Heat exchanger outflow)
F9
Optional functi-
on 1
dependant on
function choi-
ce
Twin thermal store
Swimming pool
Lower buffer store: second lower thermal store sen-
sor
Swimming pool: Swimming pool sensor
F10
Optional functi-
on 2
dependant on
function choi-
ce
Solid fuel boiler
T-PRO
Solid fuel boiler: Solid fuel boiler sensor
T-PRO Sensor 1: Position dependant on use
F11
Optional functi-
on 2
dependant on
function choi-
ce
Solid fuel boiler
T-PRO
Sensor casing E (FHE): Solid fuel boiler thermal
store sensor
T-PRO Sensor 2: Position dependant on use
F12
Additional func-
tion 6
dependant on
function choi-
ce
Boiler regulator
Boiler: Boiler sensor
F13
Additional func-
tion 5
dependant on
function choi-
ce
Return flow tempera-
ture raising
Heating return flow: Return flow sensor
F14
Additional func-
tion 5
dependant on
function choi-
ce
Return flow tempera-
ture raising
Sensor casing C(FHC): Return flow temperature
raising thermal store sensor
F15
Optional functi-
on 3
dependant on
function choi-
ce
Frost protection
Insolation measuring
T- PRO 2
Collector pipework (at the coldest point): Frost pro-
tection sensor
Near the collector, with the same orientation: Solar
insolation meter
Position dependant on use
F16
Basic function
yes
Heating regulating
House North Wall: External temperature sensor
D1
Additional func-
tion 2
No
Flow volume measu-
ring
Solar return flow: Flow volume meter
D2
Basic function
No
Override/Party switch
Heating circuit 1
Living area: Override/Party switch
D3
Additional func-
tion 4
No
Override/Party switch
Heating circuit 2
Living area: Override/Party switch
13)
D4
no function
D5
no function
D6
Basic function
No
Circulation and bath
function
Bathroom: Button
Key
Basic function: always activated
Optional Function / Additional Function:can be activated as
required.
Dependant on function option: depending on the set
function the relevant sensor must be connected. If no function
is chosen there is no connection.
Sensor / Output choice: Enter the system dependant con-
nection.
TDMA CONTROL 601/701:
45
Published 07/2007
TDMA CONTROL 601/701:
46
Published 07/2007
System Variations
Recommended value:
Setting:
System Variation
1
Stratified loading function
Auto
Additional function 1
System dependant
Additional function 2
Yield
Additional function 4
System dependant
Additional function 5
System dependant
Additional function 6
Boiler
Optional function 1
System dependant
Optional function 2
System dependant
Optional function 3
System dependant
Solar Input maximum above
Yield sensor
Hot water back up heating via
CONTROL
System dependant
Solar Input:
Recommended va-
lue:
Setting:
Solar difference
6...12K
Solar difference 2
6...12K
Switch over to Winter
1)
25 °C
Thermal Store max
90 °C
Cooling temperature
2)4)
85 °C
Hysterese
Cooling
2)4)
5K
Switch over temperature
3)5)6)
85°C
Switch over hysteresis
3)5)6)
5 K
Heating circuit inflow target
temperature
4)
40°C
Swimming pool Max
6)
25 °C
Frost protection extended run-
ning
System dependant
Water Input:
Recommended va-
lue:
Setting:
Hot water back up heating
Target temperature
55 °C
Hot water back up heating
hysteresis
5K
Hot water back up heating
Min Temp.
System dependant
Hot water back up heating
extended running
4 Minutes
Optimized hot water back up
heating:
User dependant
Hotwater Prioritizing
System dependant
Extra comfort hot water back
up heating
65 °C
Hot water back up heating
Time Switch
On
To Professional Menu?
Hot water back up heating
User dependant
Hot water back up heating On
1
User dependant
Hot water back up heating Off
1
User dependant
Hot water back up heating On
2
User dependant
Hot water back up heating Off
2
User dependant
Water Input:
Recommended va-
Setting:
lue:
Circulation running time
1…3 Minutes
Circulation Time Switch
On
To Professional Menu?
Circulation
User dependant
Circulation On 1
User dependant
Circulation Off 1
User dependant
Circulation On 2
User dependant
Circulation Off 2
User dependant
Circulation On 3
User dependant
Circulation Off 3
User dependant
Move back through menu
Water Input
Results Input:
Recommended va-
lue:
Setting:
Antifreeze type
Propylene
Antifreeze proportion
System dependant
Solar through flow
15)
System dependant
Volume meter
System dependant
Insolation sensor
7)
System dependant
Return solar operating hours
to zero?
No
Return energy record to zero?
No
Return records to zero?
16)
No
Heating Input:
Recommended va-
lue:
Setting:
Daytime external temperature
heating limit
22°C
External night time tempera-
ture limit
18°C
External frost protectiontempe-
rature limit
4°C
Individual heating circuit set-
tings
User dependant
Return flow temperature rais-
ing difference
14)
2K
Room thermostat active ?
17)
System dependant
Heating Circuit Input 1/2:
Recommended va-
lue:
Setting:
Required heating temperature
20 °C
Day time temperature drop
8)
On
To Professional Menu?
Required daytime temperatu-
re
8)
18°C
Day time temperature drop
8)
User dependant
Day time temperature drop
On
8)
User dependant
Day time temperature drop
Off
8)
User dependant
Night time temperature drop
8)
On
To Professional Menu?
Required night time tempera-
ture
8)
16°C
Night time temperature drop
8)
Night time temperature drop
On
8)
Night time temperature drop
Off
8)
TDMA CONTROL 601/701:
47
Published 07/2007
Override/Party switch
8)
Operation mode
8)
Heating curve gradient
See Tech. Doc
Heating curve curvature
System dependant
Maximum inflow temperature
System dependant
Minimum inflow temperature
System dependant
Mixer regulator parameters
System dependant
Boiler Input
Recommended value
Setting
Minimum boiler temperature
Boiler dependant
Maximum boiler temperature
Boiler dependant
Boiler difference max
System dependant
single stage / modulated
System dependant
Minimum boiler capacity
9)
Boiler dependant
Maximum boiler capacity
9)
Boiler dependant
Boiler capacity at 0 volts
9)
Boiler dependant
Boiler capacity at 10 volts
9)
Boiler dependant
Regulator parameter P
9)
System dependant
Tn regulator parameter
9)
System dependant
Pump revolutions min
System dependant
Boiler minimum running time
2 min
Thermal store pump extended
running time
System dependant
Solid fuel boiler temperature
minimum
10)
50°C
Solid fuel boiler temperature
differencel
10)
4K
Boiler off when solid fuel
boiler on?
10)
System dependant
T-PRO Input
11)
:
Recommended va-
lue:
Setting:
Temperature sensor 2
System dependant
T-PRO difference
System dependant
T-PRO hysteresis
System dependant
Temperature T1 minimum
System dependant
Temperature T1 maximum
System dependant
Temperature T2 minimum
System dependant
Temperature T2 maximum
System dependant
T-PRO extended running
System dependant
T-PRO time switch
System dependant
To Professional Menu ?
Time switch clock
User dependant
T-PRO On 1
User dependant
T-PRO Off 1
User dependant
T-PRO On 2
User dependant
T-PRO Off 2
User dependant
Move back through T-PRO
menu?
T- PRO 2
12)
:
Recommended va-
lue:
Setting:
Temperature T1 minimum
System dependant
Temperature T1 maximum
System dependant
T- PRO extended running
System dependant
T- PRO time switch
System dependant
To Professional Menu ?
Time switch clock
User dependant
T- PRO On 1
User dependant
T- PRO Off 1
User dependant
T- PRO On 2
User dependant
T- PRO Off 2
User dependant
Move back through T-PRO
menu?
Service:
Recommended va-
lue:
Setting:
App/Sys
Time
actual time
Todays Day
actual day
Set factory settings?
No
Confirm factory settings?
No
Save programme ?
User dependant
Load saved programme?
User dependant
--> Manual operation?
Thermal store pump
Auto
Solar pump
Auto
Pump circulation
Auto
Cooling
2)
Auto
Twin thermal store
3)5)
Auto
Swimming pool
6)
Auto
Heating pump 1
Auto
Heating circuit mixer 1
Heating pump 2
Auto
Heating circuit mixer2
Boiler
Auto
East-West
Auto
Hot water back up heating
Auto
T-PRO
11)
Auto
T-PRO 2
12)
Auto
Solid fuel boiler
10)
Auto
Return flow temperature rai-
sing
14)
Auto
Return to Service Menu?
Block professional menu?
User dependant
Only for the setting:
1) Stratified loading function = Auto
2) Cooling
3) Twin thermal store prioritizing
4) Cooling using the heating circuit 1
5) Twin thermal store balancing
6) Swimming pool
7) Insolation meter
8) Individual heating circuit settings = Yes (If = No, the menu
points are available under Heating Input)
9) Modulated boiler operation
10) Solid fuel boiler
11) T-PRO
12) T-PRO 2
13) Individual heating circuit settings = Yes (If = No, the heat cir-
cuits will be operated via D2)
14) Return flow temperature raising
Notes:
15) When a flow volume meter is used the solar through flow
must be set to 0 l/mim
16) The „Return records to zero" function erases the data saver
only possible via the PC interface
17) Only with TR-CONTROL connection. See also TR-CONTROL
Technical Documentation!
TDMA CONTROL 601/701:
48
Published 07/2007
CONTROL 701
5.2 Variation 2:
Solar Thermal and Heating Regulation with 2
Heating Circuits and Boiler Buffering
5.2.1 OVERVIEW OF FUNCTIONS:
Optimized solar thermal regulation for heating support
East-West regulating
Yield measurement
Cooling, cooling using the heating circuit, twin thermal
store prioritizing, twin thermal store balancing, swim-
ming pool
Hot water back up heating
Circulation
Two heating circuits mixer regulating
Boiler regulation ( single stage or modulated)
Buffer logic
Solid fuel boiler or multifunctional temperature differ-
ence regulator (T- PRO)
Insolation measuring, active frost protection or multifunc-
tional temperature switch (T- PRO 2)
Optional PC interface
Output
Menu Setting
Function
Output Vol-
tage
Output
Choice
A1
Basic function
Boiler pump
230 V
A2
Basic function
Solar pump
230 V
A3
Basic function
Circulation
230 V
A4
Optional function
1
Cooling
Twin thermal store
prioritizing
Twin thermal store
balancing
Swimming pool
230 V
A5
Basic function
Heating pump 1
230 V
A6
Basic function
Mixer 1 On
230 V
A7
Basic function
Mixer 1 Off
230 V
A8
Additional functi-
on 4
Heating pump 2
230 V
A9
Additional functi-
on 4
Mixer 2 On
230 V
A10
Additional functi-
on 4
Mixer 2 Off
230 V
A11
no function
A12
Additional functi-
on 1
East-West
230 V
A13
Optional function
2
Solid fuel boiler
T- PRO
230 V
A14
Optional function
3
T- PRO 2
230 V
A15
Basic function
Hot water back up
heating
0 V*
A16
Additional functi-
on 6
Boiler On/Off
0 V*
*voltage free or 230V output (see 5.7)
TDMA CONTROL 601/701:
49
Published 07/2007
5.2.2 Hydraulic Circuit Example CONTROL 701 Variation 2
Under floor heatingg
Heating Circuit-
Station
Return flow retarder
Mixer
Switch over valve
Safety valve
Radiators
Heating Circuit-
Station
Flow volume meter
Pump
Analogue Thermometer
Temperature sensor e.g. F3 (FH
B)
Sensor 3 in Sensor casing B
Flushing tap
Boiler
Key
F16 (External
Temperature)
Cold water
Hotwater
Solid fuel boiler
Depending on the boiler capacity and energy that can be car-
ried in the thermal store, the solid fuel boiler can also be con-
nected to R2
External Heat Source:
Oil Boiler
or Gas Boiler
or PelletsBoiler
Solid fuel boiler
Hot water Off
Taps
Cold water
ON
SOLUS II
Buffer thermal
store
Fuel type:
x Oil
x Gas
x Pellets
.
Collector 1
CON-
SOLARSTATION
Variation 2
hydraulic circuit:
o Return flow temperature raising
x Boiler buffering
Collector 2
Hydraulic Circuit
Example
Thermal Store:
x SOLUS
o CONUS
o CUBUS
o COAX
Lightening
protection
MAG
CONTROL 701:
Regulator:
o CONTROL 300
o CONTROL 601
x CONTROL 701
A13
TDMA CONTROL 601/701:
50
Published 07/2007
Input
Menu Setting
Necessary Sensor Con-
nection
Function
Location and Sensor Description
Sensor
Choice
F1
Basic function
yes
Solar regulating
Absorber outflow: Collector sensor
F2
Additional func-
tion 1
dependant on
function choice
East-West regulating
Absorber outflow: Collector sensor 2
F3
Basic function
yes
Limiting the thermal
store temperature,
back up heating
Cooling
Sensor casing A (FHA) or
B (FHB):
Upper thermal store sensor
F4
Basic function
yes
Solar regulating
Sensor casing F (FHF): Lower thermal store sensor
F5
Basic function
yes
Heating regulating 1
Heating inflow: Inflow temperature sensor 1
F6
Additional func-
tion 4
dependant on
function choice
Heating regulating 2
Heating inflow: Inflow temperature sensor 2
F7
Additional func-
tion 2
dependant on
function choice
Yield measurement
(Solar ein- Begren-
zung)
Sensor casing in CON-SOLAR STATION
Yield sensor (Heat exchanger inflow)
F8
Additional func-
tion 2
dependant on
function choice
Yield measurement
Sensor casing in CON-SOLAR STATION
Yield sensor (Heat exchanger outflow)
F9
Optional functi-
on 1
dependant on
function choice
Twin thermal store
Swimming pool
Lower buffer store: second lower thermal store sensor
Swimming pool: Swimming pool sensor
F10
Optional functi-
on 2
dependant on
function choice
Solid fuel boiler
T-PRO
Solid fuel boiler: Solid fuel boiler sensor
T-PRO Sensor 1: Position dependant on use
F11
Optional functi-
on 2
dependant on
function choice
Solid fuel boiler
T-PRO
Sensor casing E (FHE): Solid fuel boiler thermal store
sensor
T-PRO Sensor 2: Position dependant on use
F12
Additional func-
tion 6
dependant on
function choice
Boiler regulator
Boiler: Boiler sensor
F13
Additional func-
tion 3
dependant on
function choice
Buffer logic
Sensor casing C (FHC): Upper buffer region sensor
F14
Additional func-
tion 3
dependant on
function choice
Buffer logic
Sensor casing D (FHD): Lower buffer region sensor
F15
Optional functi-
on 3
dependant on
function choice
Frost protection
Insolation measuring
T- PRO 2
Collector pipework (at the coldest point): Frost protec-
tion sensor
Near the collector, with the same orientation: Solar in-
solation meter
Position dependant on use
F16
Basic function
yes
Heating regulating
House North Wall: External temperature sensor
D1
Additional func-
tion 2
No
Flow volume measu-
ring
Solar return flow: Flow volume meter
D2
Basic function
No
Override/Party switch
Heating circuit 1
Living area: Override/Party switch
D3
Additional func-
tion 4
No
Override/Party switch
Heating circuit 2
Living area: Override/Party switch
D4
no function
D5
no function
D6
Basic function
No
Circulation and bath
function
13)
Bathroom: Button
Key
Basic function: always activated
Optional Function / Additional Function:can be activated as
required.
Dependant on function option: depending on the set
function the relevant sensor must be connected. If no function
is chosen there is no connection.
Sensor / Output choice: Enter the system dependant con-
nection.
TDMA CONTROL 601/701:
51
Published 07/2007
System Variations
Recommended value:
Setting:
System Variation
2
Stratified loading function
Auto
Additional function 1
System dependant
Additional function 2
Yield
Additional function 3
System dependant
Additional function 4
System dependant
Additional function 6
Boiler
Optional function 1
System dependant
Optional function 2
System dependant
Optional function 3
System dependant
Solar Input maximum above
Yield sensor
Solar ein max kurz 120°C
System dependant
Solar Input:
Recommended value:
Setting:
Solar difference
6...12K
Solar difference 2
6...12K
Switch over to Winter
1)
25 °C
Thermal Store max
90 °C
Cooling temperature
2)4)
85 °C
Cooling hysteresis
2)4)
5K
Switch over temperature
3)5)6)
85°C
Switch over hysteresis
3)5)6)
5 K
Heating circuit inflow target
temperature
4)
40°C
Swimming pool Max
6)
25 °C
Frost protection extended
running
System dependant
Water Input:
Recommended value:
Setting:
Hot water back up heating
target temperature
55 °C
Hot water back up heating
hysteresis
5K
Hot water back up heating
minimum temperature
System dependant
Hot water back up heating
extended running
4 Minutes
Optimized hot water back
up heating:
User dependant
Hotwater Prioritizing
System dependant
Extra comfort hot water back
up heating
65 °C
Hot water back up time
switch
On
To Professional Menu?
Hot water back up heating
User dependant
Hot water back up heating
On 1
User dependant
Hot water back up heating
Off 1
User dependant
Hot water back up heating
On 2
User dependant
Hot water back up heating
Off 2
User dependant
Water Input:
Recommended value:
Setting:
Circulation running time
1…3 Minutes
Circulation Time Switch
On
To Professional Menu?
Circulation
User dependant
Circulation On 1
User dependant
Circulation Off 1
User dependant
Circulation On 2
User dependant
Circulation Off 2
User dependant
Circulation On 3
User dependant
Circulation Off 3
User dependant
Move back through menu
Water Input
Results Input:
Recommended value:
Setting:
Antifreeze type
Propylene
Antifreeze proportion
System dependant
Solar through flow
15)
System dependant
Volume meter
System dependant
Insolation sensor
7)
System dependant
Return solar operating hours
to zero?
No
Return energy record to
zero?
No
Return records to zero ?
16)
No
Heating Input:
Recommended value:
Setting:
Daytime external tempera-
ture heating limit
22°C
Night time external tempera-
ture heating limit
18°C
Frost protection external
temperature limit
4°C
Individual heating circuit
settings
User dependant
Room thermostat active
17)
System dependant
Heating Circuit Input 1/2:
Recommended value:
Setting:
Required heating temperatu-
re
20 °C
Day time temperature drop
8)
On
To Professional Menu?
Required daytime temperatu-
re
8)
18°C
Day time temperature drop
8)
User dependant
Day time temperature drop
On
8)
User dependant
Day time temperature drop
Off
8)
User dependant
Night time temperature drop
8)
On
To Professional Menu?
Required night time room
temperature
8)
16°C
Night time temperature drop
On
8)
User dependant
Night time temperature drop
Off
8)
User dependant
Override/Party switch
8)
User dependant
Operation mode
8)
Seasonally depen-
dant
Heating curve gradient
See Tech. Doc
Heating curve curvature
System dependant
TDMA CONTROL 601/701:
52
Published 07/2007
Maximum inflow temperatu-
re
System dependant
Minimum inflow temperature
System dependant
Mixer regulator parameters
System dependant
Boiler Input
Recommended value
Setting
Minimum boiler temperature
Boiler dependant
Maximum boiler temperature
Boiler dependant
Boiler difference max
10K
Single stage / modulated
System dependant
Minimum boiler capacity
9)
Boiler dependant
Maximum boiler capacity
9)
Boiler dependant
Boiler capacity at 0 volts
9)
Boiler dependant
Boiler capacity at 10 volts
9)
Boiler dependant
Regulator parameter P
9)
System dependant
Tn regulator parameter
9)
System dependant
Pump revolutions min
System dependant
Boiler minimum running time
2 min
Boiler pump extended run-
ning time
System dependant
Buffer Logic difference
System dependant
Buffer Logic hysteresis
System dependant
Solid fuel boiler temperature
minimum
10)
50°C
Solid fuel boiler temperature
differencel
10)
4K
Boiler off when solid fuel
boiler on?
10)
System dependant
T-PRO Input
11)
:
Recommended value:
Setting:
Temperature sensor 2
System dependant
T-PRO difference
System dependant
T-PRO hysteresis
System dependant
Temperature T1 minimum
System dependant
Temperature T1 maximum
System dependant
Temperature T2 minimum
System dependant
Temperature T2 maximum
System dependant
T-PRO extended running
System dependant
T-PRO time switch
System dependant
To Professional Menu ?
T-PRO time switch
User dependant
T-PRO On 1
User dependant
T-PRO Off 1
User dependant
T-PRO On 2
User dependant
T-PRO Off 2
User dependant
Move back through T-
PRO menu?
T- PRO 2
12)
:
Recommended value:
Setting:
Temperature T1 minimum
System dependant
Temperature T1 maximum
System dependant
T- PRO extended running
System dependant
T- PRO time switch
System dependant
To Professional Menu ?
Time switch clock
T- PRO2 On 1
User dependant
T- PRO2 Off 1
User dependant
T- PRO2 On 2
User dependant
T- PRO2 Off 2
User dependant
Move back through T-
PRO menu?
Service:
Recommended value:
Setting:
App/Sys
Time
actual time
Todays Day
actual day
Set factory settings?
No
Confirm factory settings?
No
Save programme ?
User dependant
Load saved programme ?
User dependant
--> Manual operation?
Solar pump
Auto
Pump circulation
Auto
Cooling
2)
Auto
Twin thermal store
3)5)
Auto
Swimming pool
6)
Auto
Heating pump 1
Auto
Heating circuit mixer 1
Heating pump 2
Auto
Heating circuit mixer2
Boiler
Auto
East-West
Auto
Hot water back up heating
Auto
T-PRO
11)
Auto
T-PRO 2
12)
Auto
Feststoffkesse
10)
Auto
Boiler pump
14)
Auto
Return to Service Menu?
Block professional menu?
User dependant
Only for the setting:
1) Stratified loading function = Auto
2) Cooling
3) Twin thermal store prioritizing
4) Cooling using the heating circuit 1
5) Twin thermal store balancing
6) Swimming pool
7) Insolation meter
8) Individual heating circuit settings = Yes (If = No, the menu
points are available under Heating Input
9) Modulated boiler operation
10) Solid fuel boiler
11) T-PRO
12) T-PRO 2
13) Individual heating circuit settings = Yes (If = No, the heat cir-
cuits will be operated via D2)
14) Buffer logic
Notes:
15) When a flow volume meter is used the solar through flow
must be set to 0 l/mim
16) The „Return records to zero" function erases the data saver
only possible via the PC interface
17) Only with TR-CONTROL connection. See also TR-CONTROL
Technical Documentation!
TDMA CONTROL 601/701:
53
Published 07/2007
CONTROL 701
5.3 Variation 3:
Solar Thermal and Heating Regulation with 3
Heating Circuits and Boiler Buffering
5.3.1 OVERVIEW OF FUNCTIONS:
Optimized solar thermal regulation for heating support
Yield measurement
Cooling, cooling using the heating circuit, twin thermal
store prioritizing, twin thermal store balancing, swim-
ming pool or hot water back up heating
Circulation
Three heating circuits mixer regulating
Boiler regulation (single stage or modulated)
Buffer logic
Solid fuel boiler or multifunctional temperature differ-
ence regulator (T- PRO)
Insolation measuring, active frost protection or multifunc-
tional temperature switch (T- PRO 2)
Optional PC interface
Output
Menu Setting
Function
Output
Voltage
Output
Choice
A1
Basic function
Boiler pump
230 V
A2
Basic function
Solar pump
230 V
A3
Basic function
Circulation
230 V
A4
Optional function
2
Solid fuel boiler
T- PRO
230 V
A5
Basic function
Heating pump 1
230 V
A6
Basic function
Mixer 1 On
230 V
A7
Basic function
Mixer 1 Off
230 V
A8
Additional functi-
on 4
Heating pump 2
230 V
A9
Additional functi-
on 4
Mixer 2 On
230 V
A10
Additional functi-
on 4
Mixer 2 Off
230 V
A11
Additional functi-
on 5
Heating pump 3
A12
Additional functi-
on 5
Mixer 3 On
230 V
A13
Additional functi-
on 5
Mixer 3 Off
230 V
A14
Optional function
3
T- PRO 2
230 V
A15
Optional function
1
Cooling
Twin thermal store
prioritizing
Twin thermal store
balancing
Swimming pool
Hot water back up
heating
0 V
A16
Additional functi-
on 6
Boiler On/Off
0 V
TDMA CONTROL 601/701:
54
Published 07/2007
5.3.2 Hydraulic Circuit Example CONTROL 701 Variation 3
Under floor heating
Heating Circuit-
Station
Return flow retarder
Mixer
Switch over valve
Safety valve
Radiators
Heating Circuit-
Station
.
Flow volume meter
Pump
Analogue Thermometer
Temperature sensor e.g. F3
(FH B) Sensor 3 in Sensor
casing B
Flushing tap
Key
Radiators
Kessel
Heating
Circuit-
Station
Solid fuel boiler
Depending on the boiler capacity and energy that can be carried in
the thermal store, the solid fule boiler can also be connected to R2.
External Heat Source:
Oil Boiler
or Gas Boiler
or PelletsBoiler
Solid fuel boiler
Hot water Off
Taps
Cold water ON
SOLUS II
Buffer thermal store
Fuel type:
x Oil
x Gas
x Pellets
F16
(External Temperature)
CON-
SOLARSTATION
hydraulische Verschaltung:
o Return flow temperature raising
x Boiler buffering
Collector 1
Thermal Store:
x SOLUS
o CONUS
o CUBUS
o COAX
Lightening
protection
MAG
CONTROL 701: Hydraulic Circuit Example Variation 3
Regulator:
o CONTROL 300
o CONTROL 601
x CONTROL 701
Return flow temperatu re raising
A4
A15
TDMA CONTROL 601/701:
55
Published 07/2007
Input
Menu Setting
Necessary Sensor
Connection
Function
Location and Sensor Description
Sensor
Choice
F1
Basic function
yes
Solar regulating
Absorber outflow: Collector sensor
F2
Additional func-
tion 5
dependant on
function choice
Heating Circuit Regula-
ting 3
Heating inflow: Inflow temperature sensor 3
F3
Basic function
yes
Limiting the thermal
store temperature,
back up heating, cool-
ing
Sensor casing A (FHA) or
Sensor casing B (FHB):
Upper thermal store sensor
F4
Basic function
yes
Solar regulating
Sensor casing F (FHF): Lower thermal store sensor
F5
Basic function
yes
Heating regulating 1
Heating inflow: Inflow temperature sensor 1
F6
Additional func-
tion 4
dependant on
function choice
Heating regulating 2
Heating inflow: Inflow temperature sensor 2
F7
Additional func-
tion 2
dependant on
function choice
Yield measurement
(Solar Input limiting)
Sensor casing in CON-SOLARSTATION
Yield sensor (Heat exchanger inflow)
F8
Additional func-
tion 2
dependant on
function choice
Yield measurement
Sensor casing in CON-SOLARSTATION
Yield sensor (Heat exchanger outflow)
F9
Optional functi-
on 1
dependant on
function choice
Twin thermal store
Swimming pool
Lower buffer store: second lower thermal store sensor
Swimming pool: Swimming pool sensor
F10
Optional functi-
on 2
dependant on
function choice
Solid fuel boiler
T-PRO
Solid fuel boiler: Solid fuel boiler sensor
T-PRO Sensor 1: Position dependant on use
F11
Optional functi-
on 2
dependant on
function choice
Solid fuel boiler
T-PRO
Sensor casing E (FHE): Solid fuel boiler thermal store
sensor
T-PRO Sensor 2: Position dependant on use
F12
Additional func-
tion 6
dependant on
function choice
Boiler regulator
Boiler: Boiler sensor
F13
Additional func-
tion 3
dependant on
function choice
Buffer logic
Sensor casing C (FHC): Upper buffer region sensor
F14
Additional func-
tion 3
dependant on
function choice
Buffer logic
Sensor casing D (FHD): Lower buffer region sensor
F15
Optional functi-
on 3
dependant on
function choice
Frost protection
Insolation measuring
T- PRO 2
Collector pipework (at the coldest point): Frost protec-
tion sensor
Near the collector, with the same orientation: Solar
insolation meter
Position dependant on use
F16
Basic function
yes
Heating regulating
House North Wall: External temperature sensor
D1
Additional func-
tion 2
No
Flow volume measu-
ring
Solar return flow: Flow volume meter
D2
no function
D3
no function
D4
no function
D5
Basic function
No
Heating circuits Over-
ride/Party switch
Living area: Override/Party switch
D6
Basic function
No
Circulation and bath
function
Bathroom: Button
Key
Basic function: always activated
Optional Function / Additional Function:can be activated as
required.
Dependant on function option: depending on the set
function the relevant sensor must be connected. If no function
is chosen there is no connection.
Sensor / Output choice: Enter the system dependant con-
nection.
TDMA CONTROL 601/701:
56
Published 07/2007
System Variations
Recommended value:
Setting:
System Variation
3
Stratified loading function
Auto
Additional function 2
Yield
Additional function 3
System dependant
Additional function 4
System dependant
Additional function 5
System dependant
Additional function 6
Boiler
Optional function 1
System dependant
Optional function 2
System dependant
Optional function 3
System dependant
Solar Input maximum above
Yield sensor
Solar ein max kurz 120°C
System dependant
Solar Input:
Recommended value:
Setting:
Solar difference
6...12K
Switch over to Winter
1)
25 °C
Thermal Store max
90 °C
Cooling temperature
2)4)
85 °C
Cooling hysteresis
2)4)
5K
Switch over temperature
3)5)6)
85°C
Switch over hysteresis
3)5)6)
5 K
Heating circuit inflow target
temperature
4)
40°C
Swimming pool Max
6)
25 °C
Frost protection extended run-
ning
System dependant
Water Input:
Recommended value:
Setting:
Hot water back up heating tar-
get temperature
55 °C
Hot water back up heating hys-
teresis
5K
Hot water back up heating
minimum temperature
System dependant
Hot water back up heating ex-
tended running
4 Minutes
Optimized hot water back up
heating:
User dependant
Hotwater Prioritizing
System dependant
Extra comfort hot water back up
heating
65 °C
Hot water back up heating time
switch
On
To Professional Menu?
Hot water back up heating
User dependant
Hot water back up heating On
1
User dependant
Hot water back up heating Off
1
User dependant
Hot water back up heating On
2
User dependant
Hot water back up heating Off
2
User dependant
Water Input:
Recommended value:
Setting:
Circulation running time
1…3 Minutes
Circulation Time Switch
On
To Professional Menu?
Circulation
User dependant
Circulation On 1
User dependant
Circulation Off 1
User dependant
Circulation On 2
User dependant
Circulation Off 2
User dependant
Circulation On 3
User dependant
Circulation Off 3
User dependant
Move back through menu
Water Input
Results Input:
Recommended value:
Setting:
Antifreeze type
Propylene
Antifreeze proportion
System dependant
Solar through flow
15)
System dependant
Volume meter
System dependant
Insolation sensor
7)
System dependant
Return solar operating hours to
zero?
No
Return energy record to zero?
No
Return records to zero?
16)
No
Heating Input:
Recommended value:
Setting:
Daytime external temperature
heating limit
22°C
Night time external temperature
heating limit
18°C
Frost protection external tem-
perature limit
4°C
Individual heating circuit set-
tings
User dependant
Room thermostat active
17)
System dependant
Heating Circuit Input 1/2
13)
/3
13)
:
Recommended value:
Setting:
Required heating temperature
20 °C
Day time temperature drop
8)
On
To Professional Menu?
Required daytime temperature
8)
18°C
Day time temperature drop
8)
User dependant
Day time temperature drop On
8)
User dependant
Day time temperature drop
Off
8)
User dependant
Night time temperature drop
8)
On
To Professional Menu?
Required night time temperatu-
re
8)
16°C
Night time temperature drop
Night time temperature drop
On
8)
User dependant
Night time temperature drop
Off
8)
User dependant
Override/Party switch
8)
User dependant
Operation mode
8)
Seasonally depen-
dant
Heating curve gradient
See Tech. Doc
Heating curve curvature
System dependant
Maximum inflow temperature
System dependant
Minimum inflow temperature
System dependant
Mixer regulator parameters
System dependant
TDMA CONTROL 601/701:
57
Published 07/2007
Boiler Input:
Recommended value:
Setting:
Minimum boiler temperature
Boiler dependant
Maximum boiler temperature
Boiler dependant
Boiler difference max
10K
single stage / modulated
System dependant
Minimum boiler capacity
9)
Boiler dependant
Maximum boiler capacity
9)
Boiler dependant
Boiler capacity at 0 volts
9)
Boiler dependant
Boiler capacity at 10 volts
9)
Boiler dependant
Regulator parameter P
9)
System dependant
Tn regulator parameter
9)
System dependant
Pump revolutions min
System dependant
Boiler minimum running time
2 min
Boiler pump extended running
time
System dependant
Buffer Logic difference
14)
System dependant
Buffer Logic hysteresis
14)
System dependant
Solid fuel boiler temp. Min
10)
50 °C
Solid fuel boiler temperature
difference
4 K
Boiler off when solid fuel boiler
on?
10)
System dependant
T-PRO Input
11)
:
Recommended value:
Setting:
Temperature sensor 2
System dependant
T-PRO difference
System dependant
T-PRO hysteresis
System dependant
Temperature T1 minimum
System dependant
Temperature T1 maximum
System dependant
Temperature T2 minimum
System dependant
Temperature T2 maximum
System dependant
T-PRO extended running
System dependant
T-PRO time switch
System dependant
To Professional Menu ?
T-PRO time switch
User dependant
T-PRO On 1
User dependant
T-PRO Off 1
User dependant
T-PRO On 2
User dependant
T-PRO Off 2
User dependant
Move back through T-PRO
menu?
T- PRO 2
12)
:
Recommended value:
Setting:
Temperature T1 minimum
System dependant
Temperature T1 maximum
System dependant
T- PRO extended running
System dependant
T- PRO time switch
System dependant
To Professional Menu ?
Time switch clock
T- PRO2 On 1
User dependant
T- PRO2 Off 1
User dependant
T- PRO2 On 2
User dependant
T- PRO2 Off 2
User dependant
Move back through T-PRO
menu?
Service:
Recommended value:
Setting:
App/Sys
Time
actual time
Todays Day
actual day
Set factory settings?
No
Confirm factory settings?
No
Save programme ?
User dependant
Load saved programme?
User dependant
--> Manual operation?
Boiler pump
14)
Auto
Solar pump
Auto
Pump circulation
Auto
Cooling
2)
Auto
Twin thermal store
3)5)
Auto
Swimming pool
6)
Auto
Heating pump 1
Auto
Heating circuit mixer 1
Heating pump 2
Auto
Heating circuit mixer2
Heating pump 3
Auto
Heating circuit mixer3
Boiler
Auto
Hot water back up heating
Auto
T-PRO
11)
Auto
T-PRO 2
12)
Auto
Solid fuel boiler
l0)
Auto
Return to Service Menu?
Block professional menu?
User dependant
Only for the setting:
1) Stratified loading function = Auto
2) Cooling
3) Twin thermal store prioritizing
4) Cooling using the heating circuit 1
5) Twin thermal store balancing
6) Swimming pool
7) Insolation meter
8) Individual heating circuit settings = Yes (If = No, the menu
points are available under Heating Input)
9) Modulated boiler operation
10) Solid fuel boiler
11) T-PRO
12) T-PRO 2
13) Heating Circuit 2/3
14) Buffer logic
Notes:
15) When a flow volume meter is used the solar through flow
must be set to 0 l/mim
16) The „Return records to zero"function erases the data saver –
only possible via the PC interface
17) Only with TR-CONTROL connection. See also TR-CONTROL
Technical Documentation!
5.4 Safety Information
Make sure that you have read this installation and com-
missioning information carefully before you operate your
system. By doing so you will prevent damage to your sys-
tem which can occur due to incorrect operation. All work
must be carried out to comply with national and profes-
sional electrical guidelines, by competent, trained person-
nel.
TDMA CONTROL 601/701:
58
Published 07/2007
5.5 Setting the System Variables
To prevent faulty circuits occuring when commissioning the
system, all connections should be made in the following
order:
1. Plug in the sensor and mains connections
2. Set the required system variations (see Functions
Overview on page 5)
3. Disconnect the mains voltage and connect the
outputs
Not following this order can lead to faulty circuits develop-
ing on commissioning the system because the „Factory set-
tings“ Variation 1 which are set when the system is deliv-
ered may not correspond with the required output circuit.
5.6 Installing
All installation work should be carried out indoors. Shut off
the mains electricity supply. After undoing the screws (1)
the housing upper casing (2) can be lifted off towards the
front (see Figure 1). When closing the casing it is impor-
tant to make sure that the delicate circuit board on the lid
fits into the grooves (4) on the lower casing. Using a drill
to make the holes, attach back plate (3) of the housing cas-
ing to an inside wall. Now the electrical connections can
be made.
ATTENTION:
Never remove the casing lid if the mains electricity
supply is connected!
Diagram 1:CONTROL 701 Casing
TDMA CONTROL 601/701:
59
Published 07/2007
5.7 Electrical Connection
The CONTROL 701 must be connected to an external
mains electricity supply at 230 V ± 10 % (50-60 Hz). The
connection is made at the L/ N/ PE clamps (see connec-
tion circuit board diagram 2).
Outputs 1 – 14 are each 230 Volt outputs. Their users are
connected to clamps A1 to A14.
Outputs 15 and 16 are voltage free outputs. Output 15
should be connected to clamps U1A/ U1M/ U1B. U2A/
U2M / U2B are where the user of output 16 is connected.
When outputs 15 an 16 are not activated, contact M-A is
open and contact M-B is closed.
Should the voltage free output have a 230 V output, the
operating voltage for outputs A15 and A16 can be a-
chieved using a bridge from clamp LS to U1M or U2M.
If a modulated input signal boiler is connected, it should
be connected to clamps U (0 – 10V) and GND.
The temperature sensors are connected to clamps F1 to
F16. The polarity of the temperature sensor connections is
open to choice. To prevent damage to the collector sensor
from being struck by lightening, a high voltage protection
for the installation is recommended (Art.-N
o
. RE500).
Clamps D1 and D6 are where the digital inputs are to be
connected.
ADVICE ON ELECTRICAL INSTALLATION GUIDELINES:
The relevant electrical installation guidelines must be
followed. The temperature sensor cables carry a low
voltage and must not be laid in the same channels as
other cables carrying voltages higher than 50V.
NOTE ON CONNECTION LAYING:
The connections should be made following the Regula-
tor Connection Information given in paragraph 4.
ADVICE ON SENSOR FAULTS:
If there is a faulty sensor and the flashing display pre-
vents setting the regulator, the sensor fault notification
can be overridden for 5 minutes by pressing "+" and "-
".
ADVICE ON POSITIONING THE COLLECTOR SENSOR:
The collector sensor should be fitted to the furthest pos-
sible absorber plate, so that it is also exposed to the in-
solation. Incorrect positioning of the collector sensor
can lead to inexact temperature measuring in the col-
lector and to a malfunction of the regulator.
If an immersion casing is used a good contact between
the sensor and the casing must be ensured. In must
cases using heat conducting paste is recommended. On
no account should the collector sensor be fitted outside
the collector.
Example of maximum cable lengths:
Sensor/Interface
Cable
Length up to
PT 1000
2 X 0.75 mm
25 m
PC-Interface
With standard
serial cable
50 m
Fuses
L1 Phase (black)
PE earth wire (yellow-green)
Solar pump
N Nullleiter (blue)
Output 1…14 (230V)
Digital inputs
3 and 4
Temperature sensor F1…F8
Module 1
Insolation sensor
Remote
Control
Module.
Output
Output 16
2,5AT
Output 1-4/LS
Temperature sensor F9…F16
Digital /inputs
5 and 6
Module 2
Output 15
2,5AT
Output 5-9/LS
2,5AT Output 10-
1-4/LS
Digital inputs
1 and 2
Diagram 2: Connection circuit board of the CONTROL 701 with solar pump connection example
CONTROL 701
TDMA CONTROL 601/701:
60
Published 07/2007
5.8 Connecting the TR- CONTROL (RE440)
The TR- CONTROL is a remote control unit with an inte-
grated thermostat. Each of the CONTROL 701 heating cir-
cuits can be controlled by a TR-CONTROL.
ADVICE:
The connection procedures and functions are described
in detail in the Technical Documentation for the TR-
CONTROL.
5.9 Connecting the Insolation Sensor (RE352)
For measurement purposes an insolation sensor can be
connected to the CONTROL 701. The clamp layout is
shown in diagram 3 below.
ES 24V GND
Diagram 3: Clamp layout for the insolation sensor ES3
ADVICE:
The insolation sensor functions are described in para-
graph 2.3.6, page 9.
5.10 Installing a PC Interface (RE030)
The CONTROL 701 can be connected to a PC using a se-
rial interface. This can be used to monitor the solar thermal
and heating system. In addition, different temperature and
results values can be redorded and presented as graphs.
The interface is available as an accessory and can be con-
nected to the regulator at a later date. Before installing the
interface, first disconnect the mains supply from the regula-
tor and remove the regulator casing lid.
By loosening the screws (1) the plastic lid can be lifted up-
wards. The circuit board can be inserted into the module
slot in the upper part of the casing of the regulator. The
accompanying connection cable with a RS 232 plug is
connected to clamps A, B, C, and D of the „module1“
clamp row.
Diagram 4:Installing the PC interface
ADVICE
The programme functions are described in the online
help for the PC software.
5.11 Commissioning
When the instrument is connected to the mains electricity
supply, the chosen temperatures will be shown in the dis-
play panel. Using the Manual Operation point in the Serv-
ice Menu, set each output to ON (dependant on the oper-
ating system variation), to test that the connected outputs
are working without problem. The green control lamps
must light up and the pumps, valves and the mixer must
run.
After running the test set the swiitches to AUTO.
ATTENTION:
Manual operation must only be used for short periods
and only for system testing purposes. Continual switch-
ing on and off will lead to damage to the system or its
components, because the safety functions are overrid-
den.
2
3 1
TDMA CONTROL 601/701:
61
Published 07/2007
6 CONTROL 701 Technical Data
Basic Instrument:
Plastic casing, 300 x 160 x 120 mm
Fuse type:
IP 65
Operational voltage:
230 V ±10%, 50... 60 Hz, AC
Uptake:
max. 10 VA
Interference following:
EMI guidelines
Electricity guidelines:
DIN EN: 61010-1; 55022; 50082-1; 61326; 61000-4-2; 61000-4-3; 61000-4-
4; 61000-4-5; 61000-4-6; 61000-4-11
Switch contact / Relay:
A1-A14: 230 V / 2A Triac
A15-A16: potentialfreies Umschaltrelais 230 V / 2 A
Output fuses:
A1 - A4 sind gemeinsam mit 2,5 A abgesichert.
A5 - A9 sind gemeinsam mit 2,5 A abgesichert.
A10 - A14 sind gemeinsam mit 2,5 A abgesichert.
Control
menu lead
Service Menu:
Every output can be operated manually.
Measurement register:
Dependant on sensor type
Accuracy
± 1K (in the range 0 ... 100°C)
Temperature sensor PT 1000
(RE040):
-30 °C ... 180 °C Continuous temperature, 250 °C temporarily
Temperature sensor PT
1000(RE0
(RE046):
-30 °C ... 80 °C Continuous temperature
Temp. in °C
-10
0
10
20
30
40
50
60
70
80
90
100
110
R in Ohm
961,5
1000
1038,5
1077
1115,5
1154
1192,5
1231
1269,5
1308
1346,5
1385
1423,5
Operating temperature regu-
lator:
0°C…40°C
CONTROL 701 Operational Status Indicators
Symbol:
Description
Symbol:
Description
Operation
Holiday operation
Top loading
(Stratified loading function)
Override/Party switch acti-
ve
Night time temperature
drop active
Circulation active
Winter operation (Heating
+ Hotwater)
Sensor fault
Summer operation (only
Hotwater)
TDMA CONTROL 601/701:
62
Published 07/2007
7 Problems and Solutions
Problem:
Cause:
Remedy:
Indicator
.. flashing and sensor fault indi-
cated.
Sensor is interrupted or short circuited.
Check sensor fitting and replace sensor if
necessary.
Regulator is not set correctly.
Check whether a function is activated even
though there is no sensor connected. Deac-
tivate the function.
Solar pump
. ... doesn’t run.
The regulator doesn’t switch the solar
pump on, even though there is sufficient
solar energy to store.
This may not be a fault! The regulator has
paused the solar pump operation as pro-
grammed. See the Technical Documentati-
on under „Solar Pump Operation“.
The solar pump is defective or is incor-
rectly installed.
Test the connection and replace the pump
if necessary.
... switches off because the tempera-
ture in the collector is too high, al-
though the upper thermal store tem-
perature has not reached 90 °C.
The flow volume has been incorrectly
set resulting in too high a difference
between the collector inflow and out-
flow temperatures.
Check the flow volume reading on the Ta-
cosetter or CONTROL601/ 701 (only if
using flow volume measuring to measure
yield). The flow volume must be set at 25
litres per hour and square meter.
Incorrect collector sensor securing. The
absorber temperature is incorrectly
measured.
The sensor should be fitted to the furthest
possible absorber plate, close to the ab-
sorber pipework, so that it receives the
same insolation levels. See also the instal-
lation instructions.
No hotwater
The regulator is incorrectly set.
Check the hot water temperature and time
programme and reset as necesssary.
Temperature sensor or thermal store
loading pump is defective.
Replace sensor or pump.
Heating system:
... Room temperature is too high
when the external temperature is
low or to low when the external
temperature is high.
Heating graph gradient or curvature is
incorrectly set.
Check the regulator settings and reset as
necessary.
...Rooms are cold even though the
boiler is running.
Heating pump is not functioning.
Check the connection and replace the
pump if necessary.
Regulator is incorrectly set.
See the Technical Documentation under
„Operating the Heating and Boiler“ Func-
tions.
If hot water demand has been priori-
tized, the thermal store is loaded as the
priority function and the heating circuit
mixer is switched off.
Deactivate the priority setting if not re-
quired.
Individual menu points or function
options do not show in the display.
The relevant function has not been cho-
sen.
If necessary, activate the function in the
System Variations menu.
TDMA CONTROL 601/701:
63
Published 07/2007
NOTE:
The details and advice in the Technical Documentation
do not claim to be comprehensive and are not a re-
placement for professional planning. Subject to chan-
ges and errors.
Technical Hotline:
0700-Consolar
(0700-26676527)
Normal Telecom rates
Consolar Solare
Energiesysteme GmbH
Unternehmensbereich
Solare Heizungssysteme
Strubbergstraße 70
D - 60489 Frankfurt
Fon: 069-7409328-0
Fax: 069-7409328-50
info@consolar.com
www.consolar.com
Consolar Products and Advice available from:
Published 07/2007 , Subject to changes and errors.
46

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U ontvangt de handleiding per email binnen enkele minuten. Als u geen email heeft ontvangen, dan heeft u waarschijnlijk een verkeerd emailadres ingevuld of is uw mailbox te vol. Daarnaast kan het zijn dat uw internetprovider een maximum heeft aan de grootte per email. Omdat hier een handleiding wordt meegestuurd, kan het voorkomen dat de email groter is dan toegestaan bij uw provider.

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Uw handleiding is per email verstuurd. Controleer uw email

Als u niet binnen een kwartier uw email met handleiding ontvangen heeft, kan het zijn dat u een verkeerd emailadres heeft ingevuld of dat uw emailprovider een maximum grootte per email heeft ingesteld die kleiner is dan de grootte van de handleiding.

Er is een email naar u verstuurd om uw inschrijving definitief te maken.

Controleer uw email en volg de aanwijzingen op om uw inschrijving definitief te maken

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Als u de handleiding per email wilt ontvangen, vul dan een geldig emailadres in.

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Wilt u een email ontvangen bij een antwoord en/of nieuwe vragen? Vul dan hier uw emailadres in.



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