Daikin EGSAH06DA9W, EGSAH10DA9W, EGSAX06DA9W, EGSAX10DA9W, EGSAX06DA9WG Installer reference guide

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Installer reference guide
Daikin Altherma 3 GEO
EGSAH06DA9W EGSAH10DA9W
EGSAX06DA9W(G) EGSAX10DA9W(G)
Installer reference guide
Daikin Altherma 3 GEO
English

Table of contents

Table of contents
1 General safety precautions 3
1.1 About the documentation .......................................................... 3
1.1.1 Meaning of warnings and symbols.............................. 3
1.2 For the installer.......................................................................... 4
1.2.1 General ....................................................................... 4
1.2.2 Installation site ............................................................ 4
1.2.3 Refrigerant .................................................................. 4
1.2.4 Brine............................................................................ 5
1.2.5 Water .......................................................................... 5
1.2.6 Electrical ..................................................................... 5
2 About the documentation 6
2.1 About this document.................................................................. 6
2.2 Installer reference guide at a glance ......................................... 7
3 About the box 7
3.1 Overview: About the box ........................................................... 7
3.2 Indoor unit ................................................................................. 7
3.2.1 To unpack the indoor unit ........................................... 7
3.2.2 To remove the accessories from the indoor unit......... 7
3.2.3 To handle the indoor unit ............................................ 8
4 About the units and options 8
4.1 Overview: About the units and options...................................... 8
4.2 Identification .............................................................................. 8
4.2.1 Identification label: Indoor unit .................................... 8
4.3 Components .............................................................................. 9
4.4 Possible options for the indoor unit ........................................... 10
5 Application guidelines 10
5.1 Overview: Application guidelines............................................... 10
5.2 Setting up the space heating/cooling system ............................ 10
5.2.1 Single room................................................................. 11
5.2.2 Multiple rooms – OneLWT zone ................................ 13
5.2.3 Multiple rooms – TwoLWT zones............................... 15
5.3 Setting up an auxiliary heat source for space heating............... 16
5.4 Setting up the domestic hot water tank ..................................... 17
5.4.1 System layout – Integrated DHW tank........................ 17
5.4.2 Selecting the volume and desired temperature for
the DHW tank.............................................................. 17
5.4.3 Setup and configuration – DHW tank.......................... 18
5.4.4 DHW pump for instant hot water................................. 18
5.4.5 DHW pump for disinfection ......................................... 18
5.5 Setting up the energy metering ................................................. 19
5.5.1 Produced heat............................................................. 19
5.5.2 Consumed energy....................................................... 19
5.6 Setting up the power consumption control ................................ 20
5.6.1 Permanent power limitation ........................................ 20
5.6.2 Power limitation activated by digital inputs ................. 21
5.6.3 Power limitation process ............................................. 21
5.6.4 Current limitation by current sensors .......................... 21
5.6.5 BBR16 power limitation............................................... 22
5.7 Setting up an external temperature sensor ............................... 22
5.8 Setting up passive cooling......................................................... 22
5.9 Setting up the brine low pressure switch................................... 23
6 Unit installation 23
6.1 Preparing the installation site .................................................... 23
6.1.1 Installation site requirements of the indoor unit .......... 23
6.2 Opening and closing the unit..................................................... 24
6.2.1 About opening the unit................................................ 24
6.2.2 To open the indoor unit............................................... 24
6.2.3 To remove the hydro module from the unit ................. 25
6.2.4 To close the indoor unit............................................... 27
6.3 Mounting the indoor unit............................................................ 27
6.3.1 About mounting the indoor unit................................... 27
6.3.2 Precautions when mounting the indoor unit................. 27
6.3.3 To install the indoor unit............................................... 27
6.3.4 To connect the drain hose to the drain ........................ 27
7 Piping installation 27
7.1 Preparing piping ......................................................................... 27
7.1.1 Circuit requirements..................................................... 27
7.1.2 Formula to calculate the expansion vessel pre-
pressure ....................................................................... 29
7.1.3 To check the water volume and flow rate of the
space heating circuit and brine circuit.......................... 29
7.1.4 Changing the pre-pressure of the expansion vessel.... 29
7.2 Connecting the brine piping........................................................ 30
7.2.1 About connecting the brine piping................................ 30
7.2.2 Precautions when connecting the brine piping ............ 30
7.2.3 To connect the brine piping.......................................... 30
7.2.4 To connect the brine level vessel................................. 30
7.2.5 To connect the brine filling kit ...................................... 30
7.2.6 To fill the brine circuit ................................................... 30
7.2.7 To insulate the brine piping.......................................... 31
7.3 Connecting the water piping....................................................... 31
7.3.1 About connecting the water piping............................... 31
7.3.2 Precautions when connecting the water piping............ 31
7.3.3 To connect the water piping......................................... 31
7.3.4 To connect the recirculation piping .............................. 32
7.3.5 To fill the space heating circuit..................................... 32
7.3.6 To fill the domestic hot water tank ............................... 32
7.3.7 To insulate the water piping ......................................... 32
8 Electrical installation 32
8.1 About connecting the electrical wiring ........................................ 32
8.1.1 Precautions when connecting the electrical wiring ...... 32
8.1.2 Guidelines when connecting the electrical wiring ........ 32
8.1.3 About electrical compliance ......................................... 33
8.2 Overview of electrical connections for external and internal
actuators..................................................................................... 33
8.2.1 To connect the main power supply .............................. 34
8.2.2 To connect the remote outdoor sensor ........................ 37
8.2.3 To connect the shut-off valve....................................... 37
8.2.4 To connect the electricity meters ................................. 38
8.2.5 To connect the domestic hot water pump .................... 38
8.2.6 To connect the alarm output ........................................ 39
8.2.7 To connect the space cooling/heating ON/OFF
output ........................................................................... 39
8.2.8 To connect the changeover to external heat source.... 40
8.2.9 To connect the power consumption digital inputs ........ 41
8.2.10 To connect the safety thermostat (normally closed
contact) ........................................................................ 41
8.2.11 To connect the brine low pressure switch .................... 42
8.2.12 To connect the thermostat for passive cooling ............ 42
9 LAN adapter 43
9.1 About the LAN adapter............................................................... 43
9.1.1 System layout .............................................................. 44
9.1.2 System requirements ................................................... 44
9.1.3 On-site installation requirements ................................. 44
9.2 Connecting the electrical wiring.................................................. 45
9.2.1 Overview of electrical connections............................... 45
9.2.2 Router .......................................................................... 46
9.2.3 Electricity meter ........................................................... 46
9.2.4 Solar inverter/energy management system ................. 47
9.3 Starting up the system................................................................ 48
9.4 Configuration – LAN adapter...................................................... 48
9.4.1 Overview: Configuration............................................... 48
9.4.2 Configuring the LAN adapter for app control ............... 48
9.4.3 Configuring the LAN adapter for the Smart Grid
application.................................................................... 49
9.4.4 Updating software ........................................................ 49
9.4.5 Configuration web interface ......................................... 49
9.4.6 System information ...................................................... 50
9.4.7 Factory reset ................................................................ 50
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4P569820-1A – 2019.09

1 General safety precautions

9.4.8 Network settings ......................................................... 51
9.5 Smart Grid application............................................................... 51
9.5.1 Smart Grid settings ..................................................... 52
9.5.2 Operation modes ........................................................ 53
9.5.3 System requirements .................................................. 54
9.6 Troubleshooting – LAN adapter ................................................ 54
9.6.1 Overview: Troubleshooting ......................................... 54
9.6.2 Solving problems based on symptoms – LAN
adapter........................................................................ 54
9.6.3 Solving problems based on error codes – LAN
adapter........................................................................ 54
10 Configuration 55
10.1 Overview: Configuration ............................................................ 55
10.1.1 To access the most used commands ......................... 55
10.2 Configuration wizard.................................................................. 56
10.3 Possible screens ....................................................................... 56
10.3.1 Possible screens: Overview ........................................ 56
10.3.2 Home screen............................................................... 57
10.3.3 Main menu screen ...................................................... 58
10.3.4 Menu screen ............................................................... 58
10.3.5 Setpoint screen ........................................................... 58
10.3.6 Detailed screen with values ........................................ 59
10.3.7 Schedule screen: Example ......................................... 59
10.4 Weather-dependent curve ......................................................... 60
10.4.1 What is a weather-dependent curve? ......................... 60
10.4.2 2-points curve ............................................................. 61
10.4.3 Slope-offset curve ....................................................... 61
10.4.4 Using weather-dependent curves ............................... 62
10.5 Settings menu ........................................................................... 62
10.5.1 Malfunction.................................................................. 62
10.5.2 Room .......................................................................... 62
10.5.3 Main zone ................................................................... 64
10.5.4 Additional zone ........................................................... 68
10.5.5 Space heating/cooling................................................. 70
10.5.6 Tank ............................................................................ 73
10.5.7 User settings ............................................................... 76
10.5.8 Information .................................................................. 77
10.5.9 Installer settings .......................................................... 78
10.5.10 Operation .................................................................... 84
10.6 Menu structure: Overview user settings .................................... 85
10.7 Menu structure: Overview installer settings............................... 86
14.3.3 Symptom: The pump is making noise (cavitation) ....... 94
14.3.4 Symptom: The pressure relief valve opens.................. 94
14.3.5 Symptom: The pressure relief valve leaks ................... 94
14.3.6 Symptom: The space is NOT sufficiently heated at
low outdoor temperatures ............................................ 95
14.3.7 Symptom: The pressure at the tapping point is
temporarily unusually high ........................................... 95
14.3.8 Symptom: Tank disinfection function is NOT
completed correctly (AH-error)..................................... 95
14.4 Solving problems based on error codes ..................................... 95
14.4.1 To display the help text in case of a malfunction ......... 95
14.4.2 Error codes: Overview ................................................. 95
15 Disposal 97
16 Technical data 98
16.1 Piping diagram: Indoor unit ........................................................ 98
16.2 Wiring diagram: Indoor unit ........................................................ 99
16.3 ESP curve: Indoor unit ............................................................... 102
17 Glossary 103
18 Field settings table 105
1 General safety precautions

1.1 About the documentation

▪ The original documentation is written in English. All other
languages are translations.
▪ The precautions described in this document cover very important
topics, follow them carefully.
▪ The installation of the system, and all activities described in the
installation manual and in the installer reference guide MUST be performed by an authorised installer.

1.1.1 Meaning of warnings and symbols

DANGER
Indicates a situation that results in death or serious injury.
11 Commissioning 87
11.1 Overview: Commissioning ......................................................... 87
11.2 Precautions when commissioning ............................................. 87
11.3 Checklist before commissioning ................................................ 87
11.4 Checklist during commissioning ................................................ 87
11.4.1 Air purge function on the water circuit......................... 88
11.4.2 Air purge function on the brine circuit ......................... 88
11.4.3 To perform an operation test run ................................ 89
11.4.4 To perform an actuator test run .................................. 89
11.4.5 Underfloor heating screed dryout................................ 90
11.4.6 To start or stop 10-day brine pump operation ............. 91
12 Hand-over to the user 91
13 Maintenance and service 91
13.1 Maintenance safety precautions................................................ 91
13.2 Yearly maintenance................................................................... 92
13.2.1 Yearly maintenance: overview .................................... 92
13.2.2 Yearly maintenance: instructions ................................ 92
13.3 To drain the domestic hot water tank ........................................ 93
14 Troubleshooting 93
14.1 Overview: Troubleshooting........................................................ 93
14.2 Precautions when troubleshooting ............................................ 93
14.3 Solving problems based on symptoms...................................... 93
14.3.1 Symptom: The unit is NOT heating as expected ........ 93
14.3.2 Symptom: The compressor does NOT start (space
heating or domestic water heating)............................. 94
DANGER: RISK OF ELECTROCUTION
Indicates a situation that could result in electrocution.
DANGER: RISK OF BURNING
Indicates a situation that could result in burning because of extreme hot or cold temperatures.
DANGER: RISK OF EXPLOSION
Indicates a situation that could result in explosion.
WARNING
Indicates a situation that could result in death or serious injury.
WARNING: FLAMMABLE MATERIAL
CAUTION
Indicates a situation that could result in minor or moderate injury.
NOTICE
Indicates a situation that could result in equipment or property damage.
INFORMATION
Indicates useful tips or additional information.
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1 General safety precautions
Symbol Explanation
Before installation, read the installation and operation manual, and the wiring instruction sheet.
Before performing maintenance and service tasks, read the service manual.
For more information, see the installer and user reference guide.

1.2 For the installer

1.2.1 General

If you are NOT sure how to install or operate the unit, contact your dealer.
NOTICE
Improper installation or attachment of equipment or accessories could result in electric shock, short-circuit, leaks, fire or other damage to the equipment. Only use accessories, optional equipment and spare parts made or approved by Daikin.
WARNING
Make sure installation, testing and applied materials comply with applicable legislation (on top of the instructions described in the Daikin documentation).
CAUTION
Wear adequate personal protective equipment (protective gloves, safety glasses,…) when installing, maintaining or servicing the system.
WARNING
Tear apart and throw away plastic packaging bags so that nobody, especially children, can play with them. Possible risk: suffocation.
DANGER: RISK OF BURNING
▪ Do NOT touch the refrigerant piping, water piping or
internal parts during and immediately after operation. It could be too hot or too cold. Give it time to return to normal temperature. If you must touch it, wear protective gloves.
▪ Do NOT touch any accidental leaking refrigerant.
WARNING
Provide adequate measures to prevent that the unit can be used as a shelter by small animals. Small animals that make contact with electrical parts can cause malfunctions, smoke or fire.
NOTICE
▪ Do NOT place any objects or equipment on top of the
unit.
▪ Do NOT sit, climb or stand on the unit.
In accordance with the applicable legislation, it might be necessary to provide a logbook with the product containing at least: information on maintenance, repair work, results of tests, stand-by periods,…
Also, at least, following information MUST be provided at an accessible place at the product:
▪ Instructions for shutting down the system in case of an emergency
▪ Name and address of fire department, police and hospital
▪ Name, address and day and night telephone numbers for
obtaining service
In Europe, EN378 provides the necessary guidance for this logbook.

1.2.2 Installation site

▪ Provide sufficient space around the unit for servicing and air
circulation.
▪ Make sure the installation site withstands the weight and vibration
of the unit.
▪ Make sure the area is well ventilated. Do NOT block any
ventilation openings.
▪ Make sure the unit is level.
Do NOT install the unit in the following places:
▪ In potentially explosive atmospheres.
▪ In places where there is machinery that emits electromagnetic
waves. Electromagnetic waves may disturb the control system, and cause malfunction of the equipment.
▪ In places where there is a risk of fire due to the leakage of
flammable gases (example: thinner or gasoline), carbon fibre, ignitable dust.
▪ In places where corrosive gas (example: sulphurous acid gas) is
produced. Corrosion of copper pipes or soldered parts may cause the refrigerant to leak.

1.2.3 Refrigerant

If applicable. See the installation manual or installer reference guide of your application for more information.
NOTICE
Make sure refrigerant piping installation complies with applicable legislation. In Europe, EN378 is the applicable standard.
NOTICE
Make sure the field piping and connections are NOT subjected to stress.
WARNING
During tests, NEVER pressurize the product with a pressure higher than the maximum allowable pressure (as indicated on the nameplate of the unit).
WARNING
Take sufficient precautions in case of refrigerant leakage. If refrigerant gas leaks, ventilate the area immediately. Possible risks:
▪ Excessive refrigerant concentrations in a closed room
can lead to oxygen deficiency.
▪ Toxic gas may be produced if refrigerant gas comes
into contact with fire.
DANGER: RISK OF EXPLOSION
Pump down – Refrigerant leakage. If you want to pump
down the system, and there is a leak in the refrigerant circuit:
▪ Do NOT use the unit's automatic pump down function,
with which you can collect all refrigerant from the system into the outdoor unit. Possible consequence: Self-combustion and explosion of the compressor because of air going into the operating compressor.
▪ Use a separate recovery system so that the unit's
compressor does NOT have to operate.
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1 General safety precautions
WARNING
ALWAYS recover the refrigerant. Do NOT release them directly into the environment. Use a vacuum pump to evacuate the installation.
NOTICE
After all the piping has been connected, make sure there is no gas leak. Use nitrogen to perform a gas leak detection.
NOTICE
▪ To avoid compressor breakdown, do NOT charge more
than the specified amount of refrigerant.
▪ When the refrigerant system is to be opened,
refrigerant MUST be treated according to the applicable legislation.
WARNING
Make sure there is no oxygen in the system. Refrigerant may only be charged after performing the leak test and the vacuum drying.
▪ In case recharge is required, see the nameplate of the unit. It
states the type of refrigerant and necessary amount.
▪ The unit is factory charged with refrigerant and depending on pipe
sizes and pipe lengths some systems require additional charging of refrigerant.
▪ Only use tools exclusively for the refrigerant type used in the
system, this to ensure pressure resistance and prevent foreign materials from entering into the system.
▪ Charge the liquid refrigerant as follows:
If Then
A siphon tube is present
(i.e., the cylinder is marked with "Liquid filling siphon attached")
A siphon tube is NOT present Charge with the cylinder upside
Charge with the cylinder upright.
down.
WARNING
Take sufficient precautions in case of brine leakage. If brine leaks, ventilate the area immediately and contact your local dealer.
WARNING
The ambient temperature inside the unit can get much higher than that of the room, e.g. 70°C. In case of a brine leak, hot parts inside the unit can create a hazardous situation.
WARNING
The use and installation of the application MUST comply with the safety and environmental precautions specified in the applicable legislation.

1.2.5 Water

If applicable. See the installation manual or installer reference guide of your application for more information.
NOTICE
Make sure water quality complies with EU directive 98/83EC.

1.2.6 Electrical

DANGER: RISK OF ELECTROCUTION
▪ Turn OFF all power supply before removing the
switch box cover, connecting electrical wiring or touching electrical parts.
▪ Disconnect the power supply for more than 1 minute,
and measure the voltage at the terminals of main circuit capacitors or electrical components before servicing. The voltage MUST be less than 50 V DC before you can touch electrical components. For the location of the terminals, see the wiring diagram.
▪ Do NOT touch electrical components with wet hands.
▪ Do NOT leave the unit unattended when the service
cover is removed.
▪ Open refrigerant cylinders slowly.
▪ Charge the refrigerant in liquid form. Adding it in gas form may
prevent normal operation.
CAUTION
When the refrigerant charging procedure is done or when pausing, close the valve of the refrigerant tank immediately. If the valve is NOT closed immediately, remaining pressure might charge additional refrigerant.
Possible consequence: Incorrect refrigerant amount.

1.2.4 Brine

If applicable. See the installation manual or installer reference guide of your application for more information.
WARNING
The selection of the brine MUST be in accordance with the applicable legislation.
WARNING
If NOT factory installed, a main switch or other means for disconnection, having a contact separation in all poles providing full disconnection under overvoltage categoryIII condition, MUST be installed in the fixed wiring.
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2 About the documentation

WARNING
▪ ONLY use copper wires.
▪ Make sure the field wiring complies with the applicable
legislation.
▪ All field wiring MUST be performed in accordance with
the wiring diagram supplied with the product.
▪ NEVER squeeze bundled cables and make sure they
do NOT come in contact with the piping and sharp edges. Make sure no external pressure is applied to the terminal connections.
▪ Make sure to install earth wiring. Do NOT earth the unit
to a utility pipe, surge absorber, or telephone earth. Incomplete earth may cause electrical shock.
▪ Make sure to use a dedicated power circuit. NEVER
use a power supply shared by another appliance.
▪ Make sure to install the required fuses or circuit
breakers.
▪ Make sure to install an earth leakage protector. Failure
to do so may cause electric shock or fire.
▪ When installing the earth leakage protector, make sure
it is compatible with the inverter (resistant to high frequency electric noise) to avoid unnecessary opening of the earth leakage protector.
CAUTION
When connecting the power supply, the earth connection must be made before the current-carrying connections are established. When disconnecting the power supply, the current-carrying connections must be separated before the earth connection is. The length of the conductors between the power supply stress relief and the terminal block itself must be as such that the current-carrying wires are tautened before the earth wire is in case the power supply is pulled loose from the stress relief.
NOTICE
Precautions when laying power wiring:
▪ Do NOT connect wiring of different thicknesses to the
power terminal block (slack in the power wiring may cause abnormal heat).
▪ When connecting wiring which is the same thickness,
do as shown in the figure above.
▪ For wiring, use the designated power wire and connect
firmly, then secure to prevent outside pressure being exerted on the terminal board.
▪ Use an appropriate screwdriver for tightening the
terminal screws. A screwdriver with a small head will damage the head and make proper tightening impossible.
▪ Over-tightening the terminal screws may break them.
WARNING
▪ After finishing the electrical work, confirm that each
electrical component and terminal inside the electrical components box is connected securely.
▪ Make sure all covers are closed before starting up the
unit.
NOTICE
Only applicable if the power supply is three‑phase, and the compressor has an ON/OFF starting method.
If there exists the possibility of reversed phase after a momentary black out and the power goes on and off while the product is operating, attach a reversed phase protection circuit locally. Running the product in reversed phase can break the compressor and other parts.
2 About the documentation

2.1 About this document

Target audience
Authorised installers
Documentation set
This document is part of a documentation set. The complete set consists of:
General safety precautions:
▪ Safety instructions that you must read before installing
▪ Format: Paper (in the box of the unit)
Operation manual:
▪ Quick guide for basic usage
▪ Format: Paper (in the box of the unit)
User reference guide:
▪ Detailed step-by-step instructions and background information
for basic and advanced usage
▪ Format: Digital files on http://www.daikineurope.com/support-
and-manuals/product-information/
Installation manual:
▪ Installation instructions
▪ Format: Paper (in the box of the unit)
Installer reference guide:
▪ Preparation of the installation, good practices, reference
data,…
▪ Format: Digital files on http://www.daikineurope.com/support-
and-manuals/product-information/
Addendum book for optional equipment:
▪ Additional info about how to install optional equipment
▪ Format: Paper (in the box of the unit) + Digital files on http://
www.daikineurope.com/support-and-manuals/product­information/
Latest revisions of the supplied documentation may be available on the regional Daikin website or via your dealer.
The original documentation is written in English. All other languages are translations.
Technical engineering data
▪ A subset of the latest technical data is available on the regional
Daikin website (publicly accessible).
▪ The full set of latest technical data is available on the Daikin
Business Portal (authentication required).
Online tools
In addition to the documentation set, some online tools are available for installers.
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4P569820-1A – 2019.09

3 About the box

a
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i
j
k
e
b
f
ENERG
IJAY
IAIE
ENERG
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g
Heating Solutions Navigator
▪ Digital toolbox that offers a variety of tools to facilitate the
installation and configuration of heating systems.
▪ To access Heating Solutions Navigator, registration to the
Stand By Me platform is required. For more information, see
https://professional.standbyme.daikin.eu/.
Daikin e-Care
▪ Mobile app for installers and service technicians that allows you
to register, configure and troubleshoot heating systems.
▪ The mobile app can be downloaded for iOS and Android
devices using the QR codes below. Registration to the Stand By Me platform is required to access the app.
App Store Google Play

2.2 Installer reference guide at a glance

Chapter Description
General safety precautions
About the documentation What documentation exists for the
About the box How to unpack the units and remove
About the units and options
Application guidelines Various installation setups of the system
Unit installation What to do and know to install the
Piping installation What to do and know to install the
Electrical installation What to do and know to install the
LAN adapter What to do and know to integrate the
Configuration What to do and know to configure the
Commissioning What to do and know to commission the
Hand‑over to the user What to give and explain to the user
Maintenance and service How to maintain and service the units
Troubleshooting What to do in case of problems
Disposal How to dispose of the system
Technical data Specifications of the system
Glossary Definition of terms
Safety instructions that you must read before installing
installer
their accessories
▪ How to identify the units
▪ Possible combinations of units and
options
system, including information on how to prepare for an installation
piping of the system, including information on how to prepare for an installation
electrical components of the system, including information on how to prepare for an installation
unit (with integrated LAN adapter) into one of the following applications:
▪ App control (only)
▪ Smart Grid application (only)
▪ App control + Smart Grid application
system after it is installed
system after it is configured
Chapter Description
Field settings table Table to be filled in by the installer, and
kept for future reference
Note: There is also an installer settings table in the user reference guide. This table has to be filled in by the installer and handed over to the user.
3 About the box

3.1 Overview: About the box

This chapter describes what you have to do after the box with the indoor unit is delivered on-site.
Keep the following in mind:
▪ At delivery, the unit MUST be checked for damage. Any damage
MUST be reported immediately to the claims agent of the carrier.
▪ Bring the packed unit as close as possible to its final installation
position to prevent damage during transport.
▪ Prepare the path along which you want to bring the unit inside in
advance.

3.2 Indoor unit

3.2.1 To unpack the indoor unit

3.2.2 To remove the accessories from the indoor unit

a Shut-off valve with integrated filter
EGSAH/X06+10DA9W(G) Daikin Altherma 3 GEO 4P569820-1A – 2019.09
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4 About the units and options

>200
kg
b Safety valve (connection parts for mounting on top of brine
level vessel included)
c Brine level vessel d Remote outdoor sensor (with installation manual) e Cable for remote outdoor sensor (40m)
f O-rings (spares for hydro module shut-off valves) g Energy label h General safety precautions
i Addendum book for optional equipment j Installation manual
k Operation manual

3.2.3 To handle the indoor unit

Mind the following guidelines when handling the unit:
▪ The unit is heavy. At least 2 persons are needed to handle it.
▪ Use a trolley to transport the unit. Make sure to use a trolley with a
sufficiently long horizontal ledge, suitable for transportation of heavy appliances.
▪ When transporting the unit, keep the unit upright.
▪ Use the handles at the back to carry the unit.

4.2.1 Identification label: Indoor unit

Location
Model identification
Example: EGSAX10DA9WG
Code Description
E European model
GS Ground source heat pump
A Refrigerant R32
X H=Heating only
X=Heating/cooling
10 Capacity class
DA Model series
9W Backup heater model
G G=Grey model
[—]=White model
▪ Remove the hydro module when you want to carry the unit up or
down staircases. See "6.2.3To remove the hydro module from the
unit"[425] for more information.
▪ It is recommended to use lifting straps to carry the unit up or down
staircases.
4 About the units and options

4.1 Overview: About the units and options

This chapter contains information about:
▪ Identifying the indoor unit
▪ Combining the indoor unit with options

4.2 Identification

NOTICE
When installing or servicing several units at the same time, make sure NOT to switch the service panels between different models.
INFORMATION
Active cooling is available for reversible units only. Passive cooling is only available for heating only models. In this document, active cooling is referred to as “cooling”.
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Daikin Altherma 3 GEO
4P569820-1A – 2019.09
4 About the units and options
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k
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m
l
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n n
i1
i
i2
h d
f
M3S
a1 a2 b1
g B1PW B1L
b2 c1 c2
e
M1P M4P
Y1S
Y1E
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B1PR S1NPL
g
M1C
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S1PH
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X2MX2M
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A4P
A1P
TR2
A6P
A4P
A8P
A8P A15PA15P
A1P
TR2
TR1TR1
K9MK9M
A16PA16P
A6P
Z1F
A7PA7P
a
b
c
a
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c
Z1F

4.3 Components

Top, front and side views
Hydro module
a Plate heat exchanger – Brine side
b Plate heat exchanger – Water side
c Refrigerant pressure relief valve
d Manual air purge valve
e Service port (5/16" flare)
f Drain valve
g Inverter switch box (only for service)
B1PR Refrigerant high pressure sensor
M1C Compressor M1P Water pump M4P Brine pump
S1NPL Low pressure sensor
S1PH High pressure switch
Y1E Electronic expansion valve Y1S Solenoid valve (4-way valve)
Switch boxes
a1 Space heating/cooling water OUT (Ø22mm)
EGSAH/X06+10DA9W(G) Daikin Altherma 3 GEO 4P569820-1A – 2019.09
a2 Space heating/cooling water IN (Ø22mm) b1 Domestic hot water: hot water OUT (Ø22mm) b2 Domestic hot water: cold water IN (Ø22mm)
c1 Brine OUT (Ø28mm)
c2 Brine IN (Ø28mm)
d Low voltage wiring intake (Ø13.5mm)
e Recirculation connection (3/4" G female)
f Safety valve g Automatic air purge valve h High voltage wiring intake (Ø24mm)
i User interface
i1 Status indicator i2 LCD screen i3 Dials and buttons
j Main switch box
k Backup heater
l Shut-off valves
m Hydro module
n Levelling feet o Drain hose (unit + safety valve)
B1L Flow sensor
B1PW Space heating water pressure sensor
M3S 3-way valve (space heating/domestic hot water)
a Installer switch box
b Main switch box
c Inverter switch box (only for service) A1P Main PCB (hydro) A4P Option EKRP1HB: Digital I/O PCB A6P Backup heater control PCB A7P Inverter PCB A8P Option EKRP1AHTA: Demand PCB
A15P LAN adapter A16P ACS digital I/O PCB
K9M Thermal protector backup heater relay
Q1L Thermal protector backup heater
TR1, TR2 Power supply transformer
X2M Terminal strip – High voltage X5M Terminal strip – Low voltage
Z1F Noise filter
9

5 Application guidelines

4.4 Possible options for the indoor unit

Digital I/O PCB (EKRP1HB)
The digital I/O PCB is required to provide following signals:
▪ Alarm output
▪ Space heating On/OFF output
▪ Changeover to external heat source
For installation instructions, see the installation manual of the digital I/O PCB and addendum book for optional equipment.
Demand PCB (EKRP1AHTA)
To enable the power saving consumption control by digital inputs you must install the demand PCB.
For installation instructions, see the installation manual of the demand PCB and addendum book for optional equipment.
User interface used as room thermostat (BRC1HHDA)
▪ The user interface used as room thermostat can only be used in
combination with the user interface connected to the indoor unit.
▪ The user interface used as room thermostat needs to be installed
in the room that you want to control.
For installation instructions, see the installation and operation manual of the user interface used as room thermostat.
Remote indoor sensor (KRCS01-1)
By default the internal user interface sensor will be used as room temperature sensor.
As an option the remote indoor sensor can be installed to measure the room temperature on another location.
For installation instructions, see the installation manual of the remote indoor sensor and addendum book for optional equipment.
INFORMATION
▪ The remote indoor sensor can only be used in case the
user interface is configured with room thermostat functionality.
▪ You can only connect either the remote indoor sensor
or the remote outdoor sensor.
PC cable (EKPCCAB)
The PC cable makes a connection between the switch box of the indoor unit and a PC. It gives the possibility to update the software of the indoor unit.
For installation instructions, see the installation manual of the PC cable.
Heat pump convector (FWXV)
For providing space heating/cooling, it is possible to use heat pump convectors (FWXV).
For installation instructions, see the installation manual of the heat pump convectors, and the addendum book for optional equipment.
Room thermostat (EKRTWA, EKRTR1)
You can connect an optional room thermostat to the indoor unit. This thermostat can either be wired (EKRTWA) or wireless (EKRTR1).
For installation instructions, see the installation manual of the room thermostat and addendum book for optional equipment.
Remote sensor for wireless thermostat (EKRTETS)
You can use a wireless indoor temperature sensor (EKRTETS) only in combination with the wireless thermostat (EKRTR1).
For installation instructions, see the installation manual of the room thermostat and addendum book for optional equipment.
Brine filling kit (KGSFILL2)
Brine filling valve kit for flushing, filling, and draining the brine circuit.
Current sensor (EKCSENS)
Current sensor for power limitation. For installation instructions, see the installation manual of the current sensor.
Hydro module (EKGSHYDMOD)
Hydro module replacement.
For installation instructions, see the installation manual of the hydro module.
Power cable with connector for Germany (EKGSPOWCAB)
Power cable for split power supply layout, needed for installations in Germany.
For installation instructions, see the installation manual of the power cable.
Multi-zoning base unit and wired thermostats (EKWUFHTA1V3, EKWCTRDI1V3, EKWCTRAN1V3)
Multi-zoning base unit (EKWUFHTA1V3) and thermostats for multi zone control of underfloor heating and radiators. Both digital (EKWCTRDI1V3) and analog (EKWCTRAN1V3) wired thermostat options are available.
For more information, see the installation manual of the multi-zoning base unit and the applicable thermostat.
5 Application guidelines

5.1 Overview: Application guidelines

The purpose of the application guidelines is to give a glance of the possibilities of the heatpump system.
NOTICE
▪ The illustrations in the application guidelines are meant
for reference only, and are NOT to be used as detailed hydraulic diagrams. The detailed hydraulic dimensioning and balancing are NOT shown, and are the responsibility of the installer.
▪ For more information about the configuration settings to
optimize heat pump operation, see
"10Configuration"[455].
This chapter contains application guidelines for:
▪ Setting up the space heating/cooling system
▪ Setting up an auxiliary heat source for space heating
▪ Setting up the domestic hot water tank
▪ Setting up the energy metering
▪ Setting up the power consumption control
▪ Setting up an external temperature sensor
▪ Setting up passive cooling
▪ Setting up the brine low pressure switch

5.2 Setting up the space heating/ cooling system

The heatpump system supplies leaving water to heat emitters in one or more rooms.
Because the system offers a wide flexibility to control the temperature in each room, you need to answer the following questions first:
▪ How many rooms are heated or cooled by the heatpump system?
10
EGSAH/X06+10DA9W(G)
Daikin Altherma 3 GEO
4P569820-1A – 2019.09
5 Application guidelines
B
A
a
b
B
A
a
b
c
▪ Which heat emitter types are used in each room and what is their
design leaving water temperature?
Once the space heating/cooling requirements are clear, we recommend to follow the setup guidelines below.
NOTICE
If an external room thermostat is used, the external room thermostat will control the room frost protection. However, the room frost protection is only possible if [C.2] Space heating/cooling is turned ON.
INFORMATION
In case an external room thermostat is used and room frost protection needs to be guaranteed in all conditions, then you have to set auto emergency [A.6.C] to 1.
NOTICE
An overpressure bypass valve can be integrated in the system. Keep in mind that this valve might not be shown on the illustrations.

5.2.1 Single room

Underfloor heating or radiators – Wired room thermostat
Setup
Setting Value
Number of water temperature zones:
▪ #: [4.4]
▪ Code: [7-02]
Benefits
Highest comfort and efficiency. The smart room thermostat
functionality can decrease or increase the desired leaving water temperature based on the actual room temperature (modulation). This results in:
▪ Stable room temperature matching the desired temperature
(higher comfort)
▪ Less ON/OFF cycles (more quiet, higher comfort and higher
efficiency)
▪ Lowest possible leaving water temperature (higher efficiency)
Easy. You can easily set the desired room temperature via the
user interface:
▪ For your daily needs, you can use preset values and schedules.
▪ To deviate from your daily needs, you can temporarily overrule
the preset values and schedules, or use the holiday mode.
0 (Single zone): Main
Underfloor heating or radiators – Wireless room thermostat
Setup
A Main leaving water temperature zone B One single room
a Dedicated Human Comfort Interface (BRC1HHDA used as
room thermostat)
b Remote outdoor sensor
▪ For more information about connecting the electrical wiring to the
unit, see "8.2 Overview of electrical connections for external and
internal actuators"[433].
▪ The underfloor heating or radiators are directly connected to the
indoor unit.
▪ The room temperature is controlled by the dedicated Human
Comfort Interface (BRC1HHDA used as room thermostat).
Configuration
Setting Value
Unit temperature control:
▪ #: [2.9]
▪ Code: [C-07]
EGSAH/X06+10DA9W(G) Daikin Altherma 3 GEO 4P569820-1A – 2019.09
2 (Room thermostat): Unit operation is decided based on the ambient temperature of the dedicated Human Comfort Interface.
▪ For more information about connecting the electrical wiring to the
unit, see "8.2 Overview of electrical connections for external and
internal actuators"[433].
▪ The underfloor heating or radiators are directly connected to the
indoor unit.
▪ The room temperature is controlled by the wireless external room
thermostat (optional equipment EKRTR1).
Configuration
Unit temperature control:
▪ #: [2.9]
▪ Code: [C-07]
A Main leaving water temperature zone B One single room
a Receiver for wireless external room thermostat
b Wireless external room thermostat
c Remote outdoor sensor
Setting Value
1 (External room thermostat): Unit operation is
decided by the external thermostat.
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5 Application guidelines
B
A
a
b
M1
B
A
b
a
Setting Value
Number of water temperature zones:
▪ #: [4.4]
▪ Code: [7-02]
External room thermostat for the main zone:
▪ #: [2.A]
▪ Code: [C-05]
Benefits
Wireless. The Daikin external room thermostat is available in a
wireless version.
Efficiency. Although the external room thermostat only sends ON/
OFF signals, it is specifically designed for the heatpump system.
Comfort. In case of underfloor heating, the wireless external room
thermostat prevents condensation on the floor during cooling operation by measuring the room humidity.
0 (Single zone): Main
1 (1 contact): When the used external room thermostat or heatpump convector can only send a thermo ON/OFF condition. No separation between heating or cooling demand.
Heatpump convectors
Setup
Configuration
Setting Value
Unit temperature control:
▪ #: [2.9]
▪ Code: [C-07]
Number of water temperature zones:
▪ #: [4.4]
▪ Code: [7-02]
External room thermostat for the main zone:
▪ #: [2.A]
▪ Code: [C-05]
Benefits
Cooling. The heat pump convector offers, besides heating
capacity, also excellent cooling capacity.
Efficiency. Optimal energy efficiency because of the interlink
function.
Stylish.
1 (External room thermostat): Unit operation is decided by the external thermostat.
0 (Single zone): Main
1 (1 contact): When the used external room thermostat or heatpump convector can only send a thermo ON/OFF condition. No separation between heating or cooling demand.
Combination: Underfloor heating + Heatpump convectors
▪ Space heating is provided by:
▪ The underfloor heating
▪ The heatpump convectors
▪ Space cooling is provided by the heatpump convectors only. The
underfloor heating is shut off by the shut-off valve.
Setup
A Main leaving water temperature zone B One single room
a Remote controller of the heatpump convectors b Remote outdoor sensor
▪ For more information about connecting the electrical wiring to the
unit, see "8.2 Overview of electrical connections for external and
internal actuators"[433].
▪ The heat pump convectors are directly connected to the indoor
unit.
▪ The desired room temperature is set via the remote controller of
the heatpump convectors.
▪ The space heating/cooling demand signal is sent to one digital
input on the indoor unit (X2M/35 and X2M/30).
▪ The space operation mode is sent to the heatpump convectors by
one digital output on the indoor unit (X2M/4 and X2M/3).
INFORMATION
When using multiple heat pump convectors, make sure each one receives the infrared signal from the remote controller of the heatpump convectors.
12
A Main leaving water temperature zone B One single room
a Remote controller of the heatpump convectors b Remote outdoor sensor
▪ For more information about connecting the electrical wiring to the
unit, see "8.2 Overview of electrical connections for external and
internal actuators"[433].
▪ The heat pump convectors are directly connected to the indoor
unit.
▪ A shut-off valve (field supply) is installed before the underfloor
heating to prevent condensation on the floor during cooling operation.
▪ The desired room temperature is set via the remote controller of
the heatpump convectors.
EGSAH/X06+10DA9W(G)
Daikin Altherma 3 GEO
4P569820-1A – 2019.09
5 Application guidelines
T
C B
A
a
b
▪ The space heating/cooling demand signal is sent to one digital
input on the indoor unit (X2M/35 and X2M/30).
▪ The space operation mode is sent by one digital output (X2M/4
and X2M/3) on the indoor unit to:
▪ The heatpump convectors
▪ The shut-off valve
Configuration
Setting Value
Unit temperature control:
▪ #: [2.9]
▪ Code: [C-07]
Number of water temperature zones:
▪ #: [4.4]
▪ Code: [7-02]
External room thermostat for the main zone:
▪ #: [2.A]
▪ Code: [C-05]
Benefits
Cooling. Heat pump convectors provide, besides heating
capacity, also excellent cooling capacity.
Efficiency. Underfloor heating has the best performance with the
heat pump system.
Comfort. The combination of the two heat emitter types provides:
▪ The excellent heating comfort of the underfloor heating
▪ The excellent cooling comfort of the heatpump convectors
1 (External room thermostat): Unit operation is decided by the external thermostat.
0 (Single zone): Main
1 (1 contact): When the used external room thermostat or heatpump convector can only send a thermo ON/OFF condition. No separation between heating or cooling demand.
Setup
A Main leaving water temperature zone B Room 1 C Room 2
a Dedicated Human Comfort Interface (BRC1HHDA used as
room thermostat)
b Remote outdoor sensor
▪ For more information about connecting the electrical wiring to the
unit, see "8.2 Overview of electrical connections for external and
internal actuators"[433].
▪ The underfloor heating of the main room is directly connected to
the indoor unit.
▪ The room temperature of the main room is controlled by the
dedicated Human Comfort Interface (BRC1HHDA used as room thermostat).
▪ A thermostatic valve is installed before the underfloor heating in
each of the other rooms.
5.2.2 Multiple rooms – OneLWT zone
If only one leaving water temperature zone is needed because the design leaving water temperature of all heat emitters is the same, you do NOT need a mixing valve station (cost effective).
Example: If the heat pump system is used to heat up one floor where all the rooms have the same heat emitters.
Underfloor heating or radiators – Thermostatic valves
If you are heating up rooms with underfloor heating or radiators, a very common way is to control the temperature of the main room by using a thermostat (this can either be the dedicated Human Comfort Interface (BRC1HHDA) or an external room thermostat), while the other rooms are controlled by so-called thermostatic valves, which open or close depending on the room temperature.
INFORMATION
Mind situations where the main room can be heated by another heating source. Example: Fireplaces.
Configuration
Setting Value
Unit temperature control:
▪ #: [2.9]
▪ Code: [C-07]
Number of water temperature zones:
▪ #: [4.4]
▪ Code: [7-02]
Benefits
Easy. Same installation as for one room, but with thermostatic
valves.
2 (Room thermostat): Unit operation is decided based on the ambient temperature of the user interface.
0 (Single zone): Main
EGSAH/X06+10DA9W(G) Daikin Altherma 3 GEO 4P569820-1A – 2019.09
13
5 Application guidelines
M1M2
C B
A
a
c
a
b
C B
A
a a
b
Underfloor heating or radiators – Multiple external room thermostats
Setup
A Main leaving water temperature zone B Room 1 C Room 2
a External room thermostat b Remote outdoor sensor c Bypass valve
▪ For more information about connecting the electrical wiring to the
unit, see "8.2 Overview of electrical connections for external and
internal actuators"[433].
▪ For each room, a shut-off valve (field supplied) is installed to avoid
leaving water supply when there is no heating or cooling demand.
▪ A bypass valve must be installed to make water recirculation
possible when all shut-off valves are closed.
▪ The user interface integrated in the indoor unit decides the space
operation mode. Mind that the operation mode on each room thermostat must be set to match the indoor unit.
▪ The room thermostats are connected to the shut-off valves, but do
NOT have to be connected to the indoor unit. The indoor unit will supply leaving water all the time, with the possibility to program a leaving water schedule.
Configuration
Setting Value
Unit temperature control:
▪ #: [2.9]
▪ Code: [C-07]
Number of water temperature zones:
▪ #: [4.4]
▪ Code: [7-02]
Benefits
Compared with underfloor heating or radiators for one room:
Comfort. You can set the desired room temperature, including
schedules, for each room via the room thermostats.
0 (Leaving water): Unit operation is decided based on the leaving water temperature.
0 (Single zone): Main
Heatpump convectors – Multiple rooms
Setup
A Main leaving water temperature zone B Room 1 C Room 2
a Remote controller of the heatpump convectors b Remote outdoor sensor
▪ For more information about connecting the electrical wiring to the
unit, see "8.2 Overview of electrical connections for external and
internal actuators"[433].
▪ The desired room temperature is set via the remote controller of
the heatpump convectors.
▪ The user interface integrated in the indoor unit decides the space
operation mode.
▪ The heating or cooling demand signals of each heat pump
convector are connected in parallel to the digital input on the indoor unit (X2M/35 and X2M/30). The indoor unit will only supply leaving water temperature when there is an actual demand.
INFORMATION
To increase comfort and performance, we recommend to install the valve kit option EKVKHPC on each heat pump convector.
Configuration
Setting Value
Unit temperature control:
▪ #: [2.9]
▪ Code: [C-07]
Number of water temperature zones:
▪ #: [4.4]
▪ Code: [7-02]
Benefits
Compared with heatpump convectors for one room:
Comfort. You can set the desired room temperature, including
schedules, for each room via the remote controller of the heatpump convectors.
1 (External room thermostat): Unit operation is decided by the external thermostat.
0 (Single zone): Main
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EGSAH/X06+10DA9W(G)
Daikin Altherma 3 GEO
4P569820-1A – 2019.09
5 Application guidelines
M1
M1
C B
A
ab
c
C
A
E
B
D
a
b
a
d e
c
Combination: Underfloor heating + Heatpump convectors – Multiple rooms
Setup
A Main leaving water temperature zone B Room 1 C Room 2
a External room thermostat
b Remote controller of the heatpump convectors
c Remote outdoor sensor
▪ For more information about connecting the electrical wiring to the
unit, see "8.2 Overview of electrical connections for external and
internal actuators"[433].
▪ For each room with heat pump convectors: The heat pump
convectors are directly connected to the indoor unit.
▪ For each room with underfloor heating: Two shut-off valves (field
supply) are installed before the underfloor heating:
▪ A shut-off valve to prevent hot water supply when the room has
no heating demand
▪ A shut-off valve to prevent condensation on the floor during
cooling operation of the rooms with heatpump convectors.
▪ For each room with heat pump convectors: The desired room
temperature is set via the remote controller of the heat pump convectors.
▪ For each room with underfloor heating: The desired room
temperature is set via the external room thermostat (wired or wireless).
▪ The user interface integrated in the indoor unit decides the space
operation mode. Mind that the operation mode on each external room thermostat and remote controller of the heat pump convectors must be set to match the indoor unit.
5.2.3 Multiple rooms – TwoLWT zones
If the heat emitters selected for each room are designed for different leaving water temperatures, you can use different leaving water temperature zones (maximum 2).
In this document:
▪ Main zone = Zone with the lowest design temperature in heating,
and the highest design temperature in cooling
▪ Additional zone = Zone with the highest design temperature in
heating, and the lowest design temperature in cooling.
CAUTION
If there is more than one leaving water zone, ALWAYS install a mixing valve station in the main zone to decrease (in heating) the leaving water temperature when the additional zone has demand.
Typical example:
Room (zone) Heat emitters: Design
temperature
Living room (main zone) Underfloor heating:
▪ In heating: 35°C
▪ In cooling: 20°C (only
refreshment, no real cooling allowed)
Bed rooms (additional zone) Heatpump convectors:
▪ In heating: 45°C
▪ In cooling: 12°C
Setup
INFORMATION
To increase comfort and performance, we recommend to install the valve kit option EKVKHPC on each heat pump convector.
Configuration
Unit temperature control:
Setting Value
▪ #: [2.9]
▪ Code: [C-07]
Number of water temperature zones:
▪ #: [4.4]
▪ Code: [7-02]
EGSAH/X06+10DA9W(G) Daikin Altherma 3 GEO 4P569820-1A – 2019.09
0 (Leaving water): Unit operation is decided based on the leaving water temperature.
0 (Single zone): Main
A Additional leaving water temperature zone B Room 1 C Room 2 D Main leaving water temperature zone E Room 3
a Remote controller of the heatpump convectors
b Dedicated Human Comfort Interface (BRC1HHDA used as
room thermostat)
c Remote outdoor sensor
d Mixing valve station
e Pressure regulating valve
INFORMATION
A pressure regulating valve should be implemented before the mixing valve station. This is to guarantee the correct water flow balance between the main leaving water temperature zone and the additional leaving water temperature zone in relation to the required capacity of both water temperature zones.
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5 Application guidelines
B
A
b
a
c
c
d
e
f
d
g
▪ For more information about connecting the electrical wiring to the
unit, see "8.2 Overview of electrical connections for external and
internal actuators"[433].
▪ For the main zone:
▪ A mixing valve station is installed before the underfloor heating.
▪ The pump of the mixing valve station is controlled by the ON/
OFF signal on the indoor unit (X2M/29 and X2M/21; normally closed shut-off valve output).
▪ The room temperature is controlled by the dedicated Human
Comfort Interface (BRC1HHDA used as room thermostat).
▪ For the additional zone:
▪ The heatpump convectors are directly connected to the indoor
unit.
▪ The desired room temperature is set via the remote controller of
the heatpump convectors for each room.
▪ The heating or cooling demand signals of each heat pump
convector are connected in parallel to the digital input on the indoor unit (X2M/35a and X2M/30). The indoor unit will only supply the desired additional leaving water temperature when there is an actual demand.
▪ The user interface integrated in the indoor unit decides the space
operation mode. Mind that the operation mode on each remote controller of the heatpump convectors must be set to match the indoor unit.
Configuration
Setting Value
Unit temperature control:
▪ #: [2.9]
▪ Code: [C-07]
Number of water temperature zones:
▪ #: [4.4]
▪ Code: [7-02]
In case of heatpump convectors:
External room thermostat for the additional zone:
▪ #: [3.A]
▪ Code: [C-06]
Shut-off valve output Set to follow the thermo demand
Shut-off valve If the main zone must be shut off
At the mixing valve station Set the desired main leaving
2 (Room thermostat): Unit operation is decided based on the ambient temperature of the dedicated Human Comfort Interface.
Note:
▪ Main room = dedicated Human
Comfort Interface used as room thermostat functionality
▪ Other rooms = external room
thermostat functionality
1 (Dual zone): Main + additional
1 (1 contact): When the used external room thermostat or heatpump convector can only send a thermo ON/OFF condition. No separation between heating or cooling demand.
of the main zone.
during cooling mode to prevent condensation on the floor, set it accordingly.
water temperature for heating and/or cooling.
16
Benefits
Comfort.
▪ The smart room thermostat functionality can decrease or
increase the desired leaving water temperature based on the actual room temperature (modulation).
▪ The combination of the two heat emitter systems provides the
excellent heating comfort of the underfloor heating, and the excellent cooling comfort of the heatpump convectors.
Efficiency.
▪ Depending on the demand, the indoor unit supplies different
leaving water temperature matching the design temperature of the different heat emitters.
▪ Underfloor heating has the best performance with the heat
pump system.

5.3 Setting up an auxiliary heat source for space heating

▪ Space heating can be done by:
▪ The indoor unit
▪ An auxiliary boiler (field supply) connected to the system
▪ When the room thermostat requests heating, the indoor unit or the
auxiliary boiler starts operating depending on the outdoor temperature (status of the changeover to external heat source). When the permission is given to the auxiliary boiler, the space heating by the indoor unit is turned OFF.
▪ Bivalent operation is only possible for space heating, NOT for
domestic hot water production. Domestic hot water is always produced by the DHW tank connected to the indoor unit.
INFORMATION
▪ During heating operation of the heat pump, the
heat pump operates to achieve the desired temperature set via the user interface. When weather­dependent operation is active, the water temperature is determined automatically depending on the outdoor temperature.
▪ During heating operation of the auxiliary boiler, the
auxiliary boiler operates to achieve the desired water temperature set via the auxiliary boiler controller.
Setup
▪ Integrate the auxiliary boiler as follows:
A Main leaving water temperature zone B One single room
a Dedicated Human Comfort Interface (BRC1HHDA used as
room thermostat)
b Remote outdoor sensor c Non-return valve (field supply)
EGSAH/X06+10DA9W(G)
Daikin Altherma 3 GEO
4P569820-1A – 2019.09
5 Application guidelines
L
N
H
Com
A
K2AK1A
X2M
B
TI
K2AK1A
Indoor/Auto/Boiler
3530 X Y
Indoor
A
c
ab
▪ Make sure the return water to the heat pump does NOT exceed
▪ Install non-return valves.
▪ Make sure to only have one expansion vessel in the water circuit.
▪ Install the digital I/O PCB (option EKRP1HB).
▪ Connect X1 and X2 (changeover to external heat source) on the
▪ To setup the heat emitters, see "5.2Setting up the space heating/
Configuration
Via the user interface (configuration wizard):
▪ Set the use of a bivalent system as external heat source.
▪ Set the bivalent temperature and hysteresis.
Changeover to external heat source decided by an auxiliary contact
▪ Only possible in external room thermostat control AND one
▪ The auxiliary contact can be:
▪ Setup: Connect the following field wiring:
EGSAH/X06+10DA9W(G) Daikin Altherma 3 GEO 4P569820-1A – 2019.09
d Shut-off valve (field supply)
e Auxiliary boiler (field supply)
f Auxiliary boiler thermostat (field supply)
g Aquastat valve (field supply)
NOTICE
▪ Make sure the auxiliary boiler and its integration in the
system complies with applicable legislation.
▪ Daikin is NOT responsible for incorrect or unsafe
situations in the auxiliary boiler system.
55°C. To do so:
▪ Set the desired water temperature via the auxiliary boiler
controller to maximum 55°C.
▪ Install an aquastat valve in the return water flow of the
heatpump. Set the aquastat valve to close above 55°C and to open below 55°C.
The indoor unit does NOT contain an expansion vessel.
digital I/O PCB to the auxiliary boiler thermostat. See "8.2.8 To
connect the changeover to external heat source"[440].
cooling system"[410].
leaving water temperature zone (see "5.2 Setting up the space
heating/cooling system"[410]).
▪ An outdoor temperature thermostat
▪ An electricity tariff contact
▪ A manually operated contact
▪ …
BTIBoiler thermostat input
A Auxiliary contact (normally closed)
H Heating demand room thermostat (optional) K1A Auxiliary relay for activation of indoor unit (field supply) K2A Auxiliary relay for activation of boiler (field supply)
Indoor Indoor unit
Auto Automatic
Boiler Boiler
NOTICE
▪ Make sure the auxiliary contact has enough differential
or time delay to prevent frequent changeover between indoor unit and auxiliary boiler.
▪ If the auxiliary contact is an outdoor temperature
thermostat, install the thermostat in the shadow so that it is NOT influenced or turned ON/OFF by direct sunlight.
▪ Frequent changeover may cause corrosion of the
auxiliary boiler. Contact the manufacturer of the auxiliary boiler for more information.

5.4 Setting up the domestic hot water tank

5.4.1 System layout – Integrated DHW tank

A Domestic hot water
a Cold water IN
b Hot water OUT
c Remote outdoor sensor

5.4.2 Selecting the volume and desired temperature for the DHW tank

People experience water as hot when its temperature is 40°C. Therefore, the DHW consumption is always expressed as equivalent hot water volume at 40°C. However, you can set the DHW tank temperature at a higher temperature (example: 53°C), which is then mixed with cold water (example: 15°C).
Selecting the desired temperature for the DHW tank consists of:
1 Determining the DHW consumption (equivalent hot water
volume at 40°C).
2 Determining the desired temperature for the DHW tank.
Determining the DHW consumption
Answer the following questions and calculate the DHW consumption (equivalent hot water volume at 40°C) using typical water volumes:
Question Typical water volume
How many showers are needed per day?
How many baths are needed per day?
How much water is needed at the kitchen sink per day?
Are there any other domestic hot water needs?
1shower = 10min×10l/min = 100l
1bath = 150l
1sink = 2min×5l/min = 10l
17
5 Application guidelines
a
c
b
d
A
c d e
a
b
A
Example: If the DHW consumption of a family (4 persons) per day is as follows:
▪ 3 showers
▪ 1 bath
▪ 3 sink volumes
Then the DHW consumption = (3×100l)+(1×150l)+(3×10l)=480l
Determining the desired temperature for the DHW tank
Formula Example
V1=V2+V2×(T2−40)/(40−T1) If:
▪ V2=180l
▪ T2=54°C
▪ T1=15°C
Then V1=280l
V1DHW consumption (equivalent hot water volume at 40°C) V2Required DHW tank volume if only heated once T2DHW tank temperature T1Cold water temperature
DHW tank volume
Integrated DHW tank volume: 180l (=V2)
INFORMATION
DHW tank volume. You cannot select the volume of the
DHW tank because only one size is available.
Energy saving tips
▪ If the DHW consumption differs from day to day, you can program
a weekly schedule with different desired DHW tank temperatures for each day.
▪ The lower the desired DHW tank temperature, the more cost
effective.
▪ The heatpump itself can produce domestic hot water of maximum
55°C. The electrical resistance (backup heater) integrated in the heat pump can increase this temperature. However, this consumes more energy. We recommend to set the desired DHW tank temperature below 55°C to avoid using the electrical resistance.
▪ When the heatpump produces domestic hot water, it cannot heat
up a space. In case you need domestic hot water and space heating at the same, we recommend to produce the domestic hot water during the night when there is lower space heating demand.

5.4.4 DHW pump for instant hot water

Setup
A Domestic hot water
a Cold water IN b Domestic hot water OUT (shower (field supply)) c DHW pump (field supply) d Recirculation connection
▪ By connecting a DHW pump, instant hot water can be available at
the tap.
▪ The DHW pump and the installation are field supply and the
responsibility of the installer.
For more information about connecting the recirculation connection, see "7.3.4To connect the recirculation piping"[432].
Configuration
▪ For more information, see "10Configuration"[455].
▪ You can program a schedule to control the DHW pump via the
user interface. For more information, see the user reference guide.

5.4.5 DHW pump for disinfection

Setup

5.4.3 Setup and configuration – DHW tank

▪ For large DHW consumptions, you can heat up the DHW tank
several times during the day.
▪ To heat up the DHW tank to the desired DHW tank temperature,
you can use the following energy sources:
▪ Thermodynamic cycle of the heatpump
▪ Electrical backup heater
▪ For more information about optimizing the energy consumption for
producing domestic hot water, see "10Configuration"[455].
18
A Domestic hot water
a Cold water IN b Domestic hot water OUT (shower (field supply)) c DHW pump (field supply) d Heater element (field supply) e Non‑return valve (field supply)
▪ The DHW pump is field-supplied and its installation is the
responsibility of the installer.
▪ The temperature of the DHW tank can be set to maximum 60°C. If
applicable legislation requires higher temperature for disinfection, you can connect a DHW pump and heater element as shown above.
▪ If applicable legislation requires disinfection of the water piping
until the tapping point, you can connect a DHW pump and heater element (if needed) as shown above.
Configuration
The indoor unit can control DHW pump operation. For more information, see "10Configuration"[455].
EGSAH/X06+10DA9W(G)
Daikin Altherma 3 GEO
4P569820-1A – 2019.09
5 Application guidelines
a1
F1B
450896.005
5
8
0
1
5
0
0
0
C1
c d e
b1
X5M/5+6
C5 C1
a1
b1
F2B
F1B
5
8
0
1
5
0
0
0
450896.005
c d e
X5M/5+6

5.5 Setting up the energy metering

▪ Via the user interface, you can read out the following energy data:
▪ Produced heat
▪ Consumed energy
▪ You can read out the energy data:
▪ For space heating
▪ For space cooling
▪ For domestic hot water production
▪ You can read out the energy data:
▪ Per month
▪ Per year
INFORMATION
The calculated produced heat and consumed energy are an estimation, the accuracy cannot be guaranteed.

5.5.1 Produced heat

INFORMATION
The sensors used to calculate the produced heat are calibrated automatically.
▪ The produced heat is calculated internally based on:
▪ The leaving and entering water temperature
▪ The flow rate
▪ Setup and configuration: No additional equipment needed.

5.5.2 Consumed energy

You can use the following methods to determine the consumed energy:
▪ Calculating
▪ Measuring
Power supply layouts with power meters
In most cases, one power meter that measures the entire system
(compressor, backup heater and hydro) is sufficient.
Power meter Measures Type Connection
1 Entire system 1N~ or 3N~
depending on the backup heater
In case of the following combination, you need 2 power meters:
▪ Dual cable power supply (=split power supply)
▪ + Preferential kWh rate power supply with separate normal kWh
rate power supply
Power meter Measures
1 Hydro and
backup heater
(1)
1N~ or 3N~ depending on
Type Connection
the backup heater
2 Compressor 1N~ X5M/3+4
(1) In the software the power consumption data of both meters
is added so you do NOT have to set which meter covers which power consumption.
Exceptional cases. You can also use a second power meter if:
▪ The power range of one meter is insufficient.
▪ The power meter cannot easily be installed in the electrical
cabinet.
▪ 230 V and 400 V three-phase grids are combined (very
uncommon), because of technical limitations of power meters.
Examples of power supply layouts with power meters
#1: Single cable power supply (=combined power supply)
#2: Dual cable power supply (=split power supply)
X5M/5+6
X5M/5+6
INFORMATION
You cannot combine calculating the consumed energy (example: for the backup heater) and measuring the consumed energy (example: for the rest of the unit). If you do so, the energy data will be invalid.
Calculating the consumed energy
▪ The consumed energy is calculated internally based on:
▪ The actual power input of the indoor unit
▪ The set capacity of the backup heater
▪ The voltage
▪ Setup and configuration: None.
Measuring the consumed energy
▪ Preferred method because of higher accuracy.
▪ Requires external power meters.
▪ Setup and configuration: When using electrical power meters, set
the number of pulses/kWh for each power meter via the user interface.
INFORMATION
When measuring the electrical power consumption, make sure ALL power input of the system is covered by the electrical power meters.
EGSAH/X06+10DA9W(G) Daikin Altherma 3 GEO 4P569820-1A – 2019.09
19
5 Application guidelines
a2
F1B
C1 C2
c d
S1S
5
8
0
1
5
0
0
0
450896.005
e
X5M
b1
X5M/5+6
C5 C1
a2
b1
F2B F1B
5
8
0
1
5
0
0
0
450896.005
c d e
X5M/5+6
C2
X5M
S1S
C1C5 C3
C4
a1a3
X5M/5+6
X5M
X2M
S1S
b1
c d e
X5M/3+4
b2
5
8
0 1
5
0
0
0
5
8
0
1
5
0
0
0
450896.005
C2
F3BF1B
F2B
P
i
t
DI
a
b
#3: Single cable power supply (=combined power supply)
+
Preferential kWh rate power supply without separate normal kWh rate power supply
#5: Single cable power supply (=combined power supply)
+
Preferential kWh rate power supply with separate normal kWh rate power supply
NOT ALLOWED
#4: Dual cable power supply (=split power supply)
+
Preferential kWh rate power supply without separate normal kWh rate power supply
#6: Dual cable power supply (=split power supply)
+
Preferential kWh rate power supply with separate normal kWh rate power supply
e Backup heater (1N~ or 3N~)
C1~C5 For details about C1~C5, see "8.2.1To connect the
main power supply"[434].
F1B~F3B Overcurrent fuse
S1S Preferential kWh rate power supply contact

5.6 Setting up the power consumption control

You can use the following power consumption controls. For more information about the corresponding settings, see "Power
consumption control"[480].
# Power consumption control
1 "5.6.1Permanent power limitation"[420]
▪ Allows you to limit the power consumption of the entire heat
pump system (sum of indoor unit and backup heater) with one permanent setting.
▪ Limitation of power in kW or current in A.
2 "5.6.2Power limitation activated by digital inputs"[421]
▪ Allows you to limit the power consumption of the entire heat
pump system (sum of indoor unit and backup heater) via 4 digital inputs.
▪ Limitation of power in kW or current in A.
3 "5.6.4Current limitation by current sensors"[421]
▪ Allows you to limit the current of the household by limiting
the current of the heat pump system (sum of indoor unit and backup heater).
▪ Limitation of current in A.
4 "5.6.5BBR16 power limitation"[422]
Restriction: Only available in Swedish language.
▪ Allows you to comply with BBR16 regulations (Swedish
energy regulations).
▪ Limitation of power in kW.
▪ Can be combined with the other power consumption
controls. If you do so, the unit uses the most restrictive control.
Legend:
20
a Electrical cabinet:
a1 Normal kWh rate power supply (1N~ or 3N~
depending on the backup heater)
a2 Preferential kWh rate power supply (1N~ or 3N~
depending on the backup heater)
a3 Preferential kWh rate power supply (1N~)
b b1 Power meter 1 (1N~ or 3N~ depending on the
backup heater)
b2 Power meter 2 (1N~)
For details about connecting the power meters to the unit, see "8.2.4To connect the electricity
meters"[438].
c Compressor (1N~)
d Hydro (1N~)
NOTICE
It is possible to install a field fuse with lower than recommended rating over the heat pump. For this you must modify field setting [2‑0E] according to the maximum allowed current over the heat pump.
Note that field setting [2‑0E] overrules all power consumption control settings. Power limiting the heat pump will reduce performance.

5.6.1 Permanent power limitation

Permanent power limitation is useful to assure a maximum power or current input of the system. In some countries, legislation limits the maximum power consumption for space heating and DHW production.
PiPower input
t Time
DI Digital input (power limitation level)
EGSAH/X06+10DA9W(G)
Daikin Altherma 3 GEO
4P569820-1A – 2019.09
5 Application guidelines
a
b
A
B
1
2
3
4
5
A8P
P
i
t
DI4
DI3
DI1
a
b
P
h
C
e
a
b
c
d
A B
a Power limitation active
b Actual power input
Setup and configuration
▪ No additional equipment needed.
▪ Set the power consumption control settings in [9.9] via the user
interface (for the description of all settings, see
"10Configuration"[455]):
▪ Select continuous limitation mode
▪ Select the type of limitation (power in kW or current in A)
▪ Set the desired power limitation level

5.6.2 Power limitation activated by digital inputs

Power limitation is also useful in combination with an energy management system.
The power or current of the entire Daikin system is limited dynamically by digital inputs (maximum four steps). Each power limitation level is set via the user interface by limiting one of the following:
▪ Current (in A)
▪ Power input (in kW)
The energy management system (field supply) decides the activation of a certain power limitation level. Example: To limit the maximum power of the entire house (lighting, domestic appliances, space heating…).
Configuration
▪ Set the power consumption control settings in [9.9] via the user
interface (for the description of all settings, see
"10Configuration"[455]):
▪ Select limitation by digital inputs.
▪ Select the type of limitation (power in kW or current in A).
▪ Set the desired power limitation level corresponding to each
digital input.
INFORMATION
In case more than 1 digital input is closed (at the same time), the digital input priority is fixed: DI4 priority>…>DI1.

5.6.3 Power limitation process

The compressor has better efficiency than the electrical heater. Therefore, the electrical heater is limited and turned OFF first. The system limits power consumption in the following order:
1 Limits the backup heater.
2 Turns OFF the backup heater.
3 Limits the compressor.
4 Turns OFF the compressor.
Example
If the power limitation level does NOT allow operation of full backup heater capacity, then power consumption is limited as follows:
A Indoor unit B Energy management system
a Power limitation activation (4 digital inputs)
b Backup heater
PiPower input
t Time
DI Digital inputs (power limitation levels)
a Power limitation active
b Actual power input
Setup
▪ Demand PCB (option EKRP1AHTA) needed.
▪ Maximum four digital inputs are used to activate the
corresponding power limitation level:
▪ DI1 = weakest limitation (highest energy consumption)
▪ DI4 = strongest limitation (lowest energy consumption)
▪ For the specifications of the digital inputs, and for where to
connect them, refer to the wiring diagram.
PhProduced heat CeConsumed energy
A Compressor B Backup heater
a Limited compressor operation
b Full compressor operation
c Limited backup heater operation
d Full backup heater operation

5.6.4 Current limitation by current sensors

INFORMATION
Restriction: Current limitation by current sensors is only
available for 3-phase setups ([9.3.2]=2 (Installer settings > Backup heater > Voltage = 400V, 3ph)).
NOTICE
Disconnected sensor. If you use current limitation by
current sensors and one of the sensors is disconnected, the corresponding phase is not limited anymore.
Current sensors can be used to limit the consumption of the heat pump on every phase taking into account the set household fuse and the actual consumption of other appliances.
Current sensors must be installed before the main fuses on each phase to make use of this feature. This function can be useful in countries where the government gives incentives to limit the fuse sizes.
EGSAH/X06+10DA9W(G) Daikin Altherma 3 GEO 4P569820-1A – 2019.09
21
5 Application guidelines
C
i
t
CL
a
b
c
d
P
i
t
BBR16
a
b
Ci Current input
t Time
CL Current limit corresponding to fuse size
a Current limitation active (no external load) b External load c Current limitation active (with external load) d Actual current input
Setup and configuration
See:
▪ The installation manual of the current sensors
"To perform a current sensor phase check"[489]
Wires: 3×2. Use part of the cable (40m) delivered as accessory.
See "Power consumption control"[480]:
[9.9.1]=3 (Power consumption control = Current sensor)
[9.9.E] Current sensor offset

5.6.5 BBR16 power limitation

INFORMATION
Restriction: BBR16 settings are only visible when the
language of the user interface is set to Swedish.

5.7 Setting up an external temperature sensor

Indoor ambient temperature
You can connect one external temperature sensor. It can measure the indoor ambient temperature. We recommend to use an external temperature sensor in the following cases:
▪ In room thermostat control, the dedicated Human Comfort
Interface (BRC1HHDA) is used as room thermostat and it measures the indoor ambient temperature. Therefore, the dedicated Human Comfort Interface must be installed on a location:
▪ Where the average temperature in the room can be detected
▪ That is NOT exposed to direct sunlight
▪ That is NOT near a heat source
▪ That is NOT affected by outside air or air draught because of,
for example, door opening/closing
▪ If this is NOT possible, we recommend to connect a remote indoor
sensor (option KRCS01-1).
▪ Setup and configuration:
See:
▪ Installation manual of the remote indoor sensor
▪ Addendum book for optional equipment
Wires: 2×0.75mm²
[9.B.1]=2 (External sensor = Room)
[1.7] Room sensor offset
NOTICE
2 weeks to change. After you activated BBR16, you only
have 2 weeks to change its settings (BBR16 activation and BBR16 power limit). After 2 weeks, the unit freezes these settings.
Note: This is different from the permanent power limitation, which is always changeable.
Use the BBR16 power limitation when you must comply with BBR16 regulations (Swedish energy regulations).
You can combine the BBR16 power limitation with the other power consumption controls. If you do so, the unit uses the most restrictive control.
PiPower input
t Time
BBR16 BBR16 limit level
a Power limitation active b Actual power input
Setup and configuration
▪ No additional equipment needed.
▪ Set the power consumption control settings in [9.9] via the user
interface (for the description of all settings, see
"10Configuration"[455]):
▪ Activate BBR16
▪ Set the desired power limitation level
22
Outdoor ambient temperature
The remote outdoor sensor (delivered as accessory) measures the outdoor ambient temperature.
▪ Setup and configuration: See "8.2.2 To connect the remote
outdoor sensor" [4 37] (+ the installation manual of the remote
outdoor sensor (delivered as accessory)).

5.8 Setting up passive cooling

INFORMATION
Restriction: Passive cooling is only possible for:
▪ Heating only models
▪ Brine temperatures between 0 and 20°C
Passive cooling is cooling without using the compressor. Here the brine circuit must be branched over the cooling fan coils.
EGSAH/X06+10DA9W(G)
Daikin Altherma 3 GEO
4P569820-1A – 2019.09

6 Unit installation

a
b
b
c
d
e
h
g
f
300
≥600
500
(mm)
Setup
a Thermostat
b Fan coil units
c External circulation pump
d Non-return valve
e Brine pump
f Plate heat exchanger g Hydro h Remote outdoor sensor
▪ A thermostat input contact creates a demand for the brine pump to
run. For more information, see "8.2.12 To connect the thermostat
for passive cooling"[442].
▪ An external circulation pump is required and needs to be
controlled by the external thermostat.
▪ A non-return valve must prevent backflow to the inlet of the
passive cooling loop and force the brine to go through the borehole.
Configuration
None.

5.9 Setting up the brine low pressure switch

Depending on the applicable legislation, you might have to install a brine low pressure switch (field supply).
The brine low pressure switch can be used to notify the user when there is a leak in the brine circuit. The switch (normally closed) is triggered when the pressure in the brine circuit is lower than the threshold value of the switch.
NOTICE
Mechanical. We recommend to use a mechanical brine
low pressure switch. If an electrical brine low pressure switch is used, capacitive currents might disturb the flow switch operation causing an error on the unit.
10-day brine pump operation
Passive cooling
Brine pump actuator test run
If [C-0B]=1 (brine low pressure switch installed), and the connection to the ACS digital I/O PCB is malfunctioning, then:
Heat pump operation Stops with error.
Emergency mode Activates but no heating is
10-day brine pump operation
Passive cooling
Brine pump actuator test run
Setup
See "8.2.11To connect the brine low pressure switch"[442].
Configuration
See "Brine low pressure switch"on page82.
Interrupts
When the malfunction is over, the unit resumes operation.
possible because the backup heater is disconnected from the ACS digital I/O PCB.
Interrupts
6 Unit installation

6.1 Preparing the installation site

Do NOT install the unit in places often used as work place. In case of construction works (e.g. grinding works) where a lot of dust is created, the unit MUST be covered.
Choose an installation location with sufficient space for carrying the unit in and out of the site.
WARNING
The appliance shall be stored in a room without continuously operating ignition sources (example: open flames, an operating gas appliance or an operating electric heater).

6.1.1 Installation site requirements of the indoor unit

INFORMATION
Also read the precautions and requirements in the "General safety precautions" chapter.
▪ Mind the following spacing installation guidelines:
NOTICE
Before disconnecting. If you want to remove or
disconnect the brine low pressure switch, first set [C‑0B]=0 (brine low pressure switch not installed). If not, this causes an error.
If [C-0B]=1 (brine low pressure switch installed), and the brine low pressure switch is triggered, then:
Heat pump operation Stops with error.
Emergency mode Activates
EGSAH/X06+10DA9W(G) Daikin Altherma 3 GEO 4P569820-1A – 2019.09
When the pressure in the brine circuit is restored, a power restart of the system is required.
INFORMATION
If you have limited installation space and need to install the option kit EKGSPOWCAB (=power cable for split power supply), remove the left side panel before installing the unit in its final position. See "6.2.2 To open the indoor
unit"[424].
23
6 Unit installation
3
2
1
5 6
4
T25
1
1
2
▪ The indoor unit is designed for indoor installation only and for
ambient temperatures ranging from 5~35°C.
▪ The foundation must be strong enough to bear the weight of the
unit. Take the weight of the unit with a domestic hot water tank full of water into account. Make sure, in the event of a water leak, water cannot cause any damage to the installation space and surroundings.
Do NOT install the unit in places such as:
▪ In places where a mineral oil mist, spray or vapour may be
present in the atmosphere. Plastic parts may deteriorate and fall off or cause water leakage.
▪ Sound sensitive areas (e.g. near a bedroom), so that the
operation noise will cause no trouble.
▪ In places with high humidity (max. RH=85%), for example a
bathroom.
▪ In places where frost is possible. Ambient temperature around the
indoor unit must be >5°C.
Special requirements for R32
The indoor unit contains an internal refrigerant circuit (R32), but you do NOT have to do any refrigerant field piping or refrigerant charging.
The total refrigerant charge in the system is ≤1.842 kg, so the system is NOT subjected to any requirements to the installation room. However, mind the following requirements and precautions:
WARNING
▪ Do NOT pierce or burn.
▪ Do NOT use means to accelerate the defrosting
process or to clean the equipment, other than those recommended by the manufacturer.
▪ Be aware that R32 refrigerant does NOT contain an
odour.
WARNING
The appliance shall be stored so as to prevent mechanical damage and in a well-ventilated room without continuously operating ignition sources (example: open flames, an operating gas appliance or an operating electric heater).

6.2.2 To open the indoor unit

Overview
1 Top panel 2 User interface panel 3 Front panel 4 Left side panel 5 Installer switch box cover 6 Main switch box cover
Open
1 Remove the top panel.
2 Remove the user interface panel. Open the hinges at the top
and slide the user interface panel upwards.
NOTICE
If you remove the user interface panel, also disconnect the cables from the back of the user interface panel to prevent damage.
WARNING
Make sure installation, servicing, maintenance and repair comply with instructions from Daikin and with applicable legislation (for example national gas regulation) and are executed only by authorised persons.

6.2 Opening and closing the unit

6.2.1 About opening the unit

At certain times, you have to open the unit. Example:
▪ When connecting the electrical wiring
▪ When maintaining or servicing the unit
DANGER: RISK OF ELECTROCUTION
Do NOT leave the unit unattended when the service cover is removed.
NOTICE
For a standard installation, it is usually NOT required to open the unit. Opening the unit or any of the switch boxes is ONLY required when you want to install extra option kits. For more information, see the installation manual of the specific option kit, or below.
24
3 If necessary, remove the front panel. This is, for example,
necessary when you want to remove the hydro module from the unit. See "6.2.3 To remove the hydro module from the
unit"[425] for more information.
EGSAH/X06+10DA9W(G)
Daikin Altherma 3 GEO
4P569820-1A – 2019.09
T25
4 In case you want to install the option kit EKGSPOWCAB
T25
T25
2
1
(=power cable for split power supply), also remove the left side panel. Also see "8.2.1 To connect the main power
supply"[434].
6 Unit installation
6 In case you have to install additional options that require access
to the main switch box, remove the main switch box cover as follows:

6.2.3 To remove the hydro module from the unit

Removing the hydro module is only required for easier transportation of the unit or for servicing. The removal of the module will significantly reduce the weight of the unit. This makes the unit easier to handle and carry.
1 Open the following (see "6.2.2To open the indoor unit"[424]):
1 User interface panel
2 Front panel
5 Open the installer switch box as follows:
2 Remove the insulation from the shut-off valves by cutting the
cable ties.
3 Remove the clips that lock the valves in place.
EGSAH/X06+10DA9W(G) Daikin Altherma 3 GEO 4P569820-1A – 2019.09
4 Uncouple the piping.
25
6 Unit installation
T25
X22Y
X11YB
X803YA
X1YA
T25
T25
5 Remove the lower hydro module cover.
6 Unlink the connectors that run from the hydro module to the
main switch box or other locations. Route the wires through the grommets of the upper hydro module cover.
9 Lift the uncoupled piping and use the handle on the front of the
module to carefully slide the module out of the unit. Make sure the module remains level and does not tilt forward.
7 Remove the upper hydro module cover. You can lift up the
uncoupled piping to access the screws more easily, and to take off the cover itself.
8 Remove the screw that fixes the hydro module to the bottom
plate.
26
CAUTION
The hydro module is heavy. It requires at least two persons to carry it.
NOTICE
Make sure not to damage any insulation during the removal process.
Removal after first installation
If the water and brine circuits have been filled before, remaining water and brine need to be drained from the hydro module before removal. In this case, perform the following actions:
1 Remove the insulation from the shut-off valves. (See step 2 in
"6.2.3To remove the hydro module from the unit"[425].)
2 Close the shut-off valves by turning the lever handles.
3 Remove the lower hydro module cover. (See step 5 in "6.2.3To
remove the hydro module from the unit"[425].)
4 Drain remaining water and brine from the hydro module. Open
the water and brine air purge valves at the top of the module to speed up the draining process.
EGSAH/X06+10DA9W(G)
Daikin Altherma 3 GEO
4P569820-1A – 2019.09
d
a
b
c
a Water drain valve
≤1°
1° 1°
b Brine drain valve
c Brine air purge valve
d Water air purge valve
NOTICE
Ensure that no brine or water can fall into the switch box of the hydro module.
5 Perform the remaining steps as described in "6.2.3To remove
the hydro module from the unit"[425].

7 Piping installation

4 Adjust the height of the 4 levelling feet of the outer frame to
compensate for floor irregularities. The maximum allowed deviation is 1°.
NOTICE
Do NOT tilt the unit forwards:

6.2.4 To close the indoor unit

1 If applicable, reinstall the left side panel.
2 If applicable, reinsert the hydro module.
3 If applicable, close the cover of the main switch box and
reinstall the front panel.
4 Close the cover of the installer switch box.
5 Reconnect the cables to the user interface panel.
6 Reinstall the user interface panel.
7 Reinstall the top panel.
NOTICE
When closing the indoor unit cover, make sure that the tightening torque does NOT exceed 4.1N•m.

6.3 Mounting the indoor unit

6.3.1 About mounting the indoor unit

When
Mount the indoor unit before you connect the brine and water piping.

6.3.2 Precautions when mounting the indoor unit

NOTICE
To avoid structural damage on unit, ONLY move the unit when levelling feet are at their lowest position.
NOTICE
For optimum sound reduction, carefully check if there is no gap between the bottom frame and the floor.

6.3.4 To connect the drain hose to the drain

Condensate can form inside the unit during cooling operation or with low brine temperatures. The top and backup heater drain pans are connected to a drain hose inside the unit. You must connect the drain hose to an appropriate drain according to the applicable legislation. The drain hose is routed through the rear panel, towards the right side of the unit.
INFORMATION
Also read the precautions and requirements in the following chapters:
▪ General safety precautions
▪ Preparing the installation site

6.3.3 To install the indoor unit

1 Lift the indoor unit from the pallet and place it on the floor. See
"3.2.3To handle the indoor unit"[48].
2 Connect the drain hose to the drain. See "6.3.4 To connect the
drain hose to the drain"[427].
3 Slide the unit into position.
EGSAH/X06+10DA9W(G) Daikin Altherma 3 GEO 4P569820-1A – 2019.09
7 Piping installation

7.1 Preparing piping

7.1.1 Circuit requirements

INFORMATION
Also read the precautions and requirements in the "General safety precautions" chapter.
27
7 Piping installation
65°C
70°C
NOTICE
In case of plastic pipes, make sure they are fully oxygen diffusion tight according to DIN 4726. The diffusion of oxygen into the piping can lead to excessive corrosion.
Circuit types. Except for the refrigerant circuit, inside the unit 2
other circuits are included. For future references: the circuit connected to the bore hole is referred to as the brine circuit, the other circuit connected to the heating emitters is referred to as the space heating circuit.
Connecting piping – Legislation. Make all piping connections in
accordance with the applicable legislation and the instructions in the "Installation" chapter, respecting the water inlet and outlet.
Connecting piping – Force. Do NOT use excessive force when
connecting the piping. Deformation of the piping can cause malfunctioning of the unit.
Connecting piping – Tools. Only use appropriate tooling to
handle brass, which is a soft material. If NOT, pipes will get damaged.
Connecting piping – Air, moisture, dust. If air, moisture or dust
gets into the circuit, problems may occur. To prevent this:
▪ Only use clean pipes
▪ Hold the pipe end downwards when removing burrs.
▪ Cover the pipe end when inserting it through a wall, to prevent
dust and/or particles from entering the pipe.
▪ Use a decent thread sealant to seal connections.
Closed circuit. Use the indoor unit ONLY in a closed water
system for brine circuit and space heating circuit. Using the system in an open water system will lead to excessive corrosion.
WARNING
When connecting to an open groundwater system, an intermediate heat exchanger is required to prevent damage (dirt, freeze ups) to the unit.
Expansion vessel – Water side. To avoid cavitation, install an
expansion vessel (field supply) on the entering pipe before the water pump within 10m of the unit.
Glycol. For safety reasons, it is NOT allowed to add any kind of
glycol to the space heating circuit.
Piping length. It is recommended to avoid long runs of piping
between the domestic hot water tank and the hot water end point (shower, bath,…) and to avoid dead ends.
Piping diameter. Select the piping diameter in relation to the
required flow and the available external static pressure of the pump. See "16 Technical data" [4 98] for the external static pressure curves of the indoor unit.
Fluid flow. Depending on the type of operation, the minimum
required flow can be different. See "7.1.3 To check the water
volume and flow rate of the space heating circuit and brine circuit"[429] for more information.
Field supply components – Fluid. Only use materials that are
compatible with fluid used in the system and with the materials used in the indoor unit.
Field supply components – Fluid pressure and temperature.
Check that all components in the field piping can withstand the fluid pressure and fluid temperature.
Fluid pressure – Space heating and brine circuit. The
maximum fluid pressure of the space heating and brine circuit is 3bar.
Fluid pressure – Domestic hot water tank. The maximum fluid
pressure of the domestic hot water tank is 10 bar. Provide adequate safeguards in the water circuit to ensure that the maximum pressure is NOT exceeded.
Fluid temperature. All installed piping and piping accessories
(valve, connections,…) MUST withstand the following temperatures:
INFORMATION
The following illustration is an example and might NOT match your system layout.
Drainage – Low points. Provide drain taps at all low points of the
system in order to allow complete drainage of the circuit.
Drainage – Pressure relief valve. Connect the drain hose
properly to the drain to avoid water dripping out of the unit. See
"6.3.4To connect the drain hose to the drain"[427].
Zn-coated parts. NEVER use Zn-coated parts in the fluid circuit.
Because the unit's internal circuit uses copper piping, excessive corrosion may occur. Zn-coated parts used in the brine circuit may lead to the precipitation of certain components in the anti-freeze fluids corrosion inhibitor.
WARNING
Due to presence of glycol, corrosion of the system is possible. Uninhibited glycol will turn acidic under the influence of oxygen. This process is accelerated by the presence of copper and high temperatures. The acidic uninhibited glycol attacks metal surfaces and forms galvanic corrosion cells that cause severe damage to the system. Therefore it is important that:
▪ the water treatment is correctly executed by a qualified
water specialist,
▪ a glycol with corrosion inhibitors is selected to
counteract acids formed by the oxidation of glycols,
▪ no automotive glycol is used because their corrosion
inhibitors have a limited lifetime and contain silicates which can foul or plug the system,
▪ galvanized pipes are NOT used in glycol systems since
the presence may lead to the precipitation of certain components in the glycol's corrosion inhibitor.
28
EGSAH/X06+10DA9W(G)
Daikin Altherma 3 GEO
4P569820-1A – 2019.09
7 Piping installation
c d
a b
M2M1
a
c
a
M3
a
b
d
d
INFORMATION
Be aware of the hygroscopic property of anti-freeze fluids: it absorbs moisture from its environment. Leaving the cap off the anti-freeze fluid container causes the concentration of water to increase. The anti-freeze fluid concentration is then lower than assumed. And in consequence, freezing can happen after all.
Preventive actions MUST be taken to ensure minimal exposure of the anti-freeze fluid to air.
Non-brass metallic piping. When using non-brass metallic
piping, insulate the brass and non-brass properly so that they do NOT make contact with each other. This to prevent galvanic corrosion.
Valve – Change‑over time. When using a 2-way valve in the
space heating circuit, the maximum change-over time of the valve MUST be 60seconds.
Domestic hot water tank – Capacity. To avoid stagnation of
water, it is important that the storage capacity of the domestic hot water tank meets the daily consumption of domestic hot water.
Domestic hot water tank – After installation. Immediately after
installation, the domestic hot water tank must be flushed with fresh water. This procedure must be repeated at least once a day the first 5 consecutive days after installation.
Domestic hot water tank – Standstills. In cases where during
longer periods of time there is no consumption of hot water, the equipment MUST be flushed with fresh water before usage.
Thermostatic mixing valves. In accordance with the applicable
legislation, it may be necessary to install thermostatic mixing valves.
Hygienic measures. The installation must be in compliance with
the applicable legislation and may require additional hygienic installation measures.
Recirculation pump. In accordance with the applicable
legislation, it may be required to connect a recirculation pump in between the hot water end point and the recirculation connection of the domestic hot water tank.
▪ You might need to adjust the pre-pressure of the expansion
vessel.
▪ You must check the total space heating water volume in the unit.
▪ You must check the total brine water volume in the unit.
Minimum water volume
Check that the total water volume per circuit in the installation is minimum 20litre, the internal water volume of the indoor unit NOT included.
INFORMATION
If a minimum heating load of 1kW can be guaranteed and setting [4.B] Space heating/cooling > Overshoot (overview field setting [9‑04]) is 4°C, the minimum water volume can be lowered to 10litre.
INFORMATION
In critical processes, or in rooms with a high heat load, extra water might be required.
NOTICE
When circulation in each space heating/cooling loop is controlled by remotely controlled valves, it is important that the minimum water volume is guaranteed, even if all of the valves are closed.
a Recirculation connection
b Hot water connection
c Shower
d Recirculation pump

7.1.2 Formula to calculate the expansion vessel pre-pressure

The pre-pressure (Pg) of the vessel depends on the installation height difference (H):
Pg=0.3+(H/10) (bar)

7.1.3 To check the water volume and flow rate of the space heating circuit and brine circuit

The unit does not have an integrated expansion vessel, but a field supplied expansion vessel can be installed in the brine circuit in case installing the brine level vessel (delivered as accessory) is not optimal. For more information, see "7.2.4To connect the brine level
vessel"[430].
To make sure that the unit operates properly:
▪ You must check the minimum water volume.
EGSAH/X06+10DA9W(G) Daikin Altherma 3 GEO 4P569820-1A – 2019.09
a External room thermostat
b Remote outdoor sensor
c By-pass valve (field supply)
d Shut-off valve
Minimum flow rate
Minimum required flow rate
Heat pump operation No minimum required flow
Cooling operation 10l/min
Backup heater operation No minimum required flow during
heating

7.1.4 Changing the pre-pressure of the expansion vessel

NOTICE
Only a licensed installer may adjust the pre-pressure of the expansion vessel.
The expansion vessel is field supplied. For more information on how to change the pre-pressure, see the manual of the expansion vessel.
Changing the pre-pressure of the expansion vessel should be done by releasing or increasing nitrogen pressure through the Schrader valve of the expansion vessel.
29
7 Piping installation
a
b
a
b

7.2 Connecting the brine piping

7.2.1 About connecting the brine piping

Before connecting the brine piping
Make sure the indoor unit is mounted.
Typical workflow
Connecting the brine piping typically consists of the following stages:
1 Connecting the brine piping.
2 Connecting the brine level vessel.
3 Connecting the brine filling kit.
4 Filling the brine circuit.
5 Insulating the brine piping.

7.2.2 Precautions when connecting the brine piping

INFORMATION
Also read the precautions and requirements in the following chapters:
▪ General safety precautions
▪ Preparing piping

7.2.3 To connect the brine piping

NOTICE
Do NOT use excessive force when connecting the field piping and make sure the piping is aligned properly. Deformation of the piping can cause malfunctioning of the unit.
NOTICE
If it is not possible to install the brine level vessel as the highest point in the circuit, install an expansion vessel (field supply) and install the safety valve in front of the expansion vessel. Failure to observe this instruction may result in malfunctioning of the unit.
a Brine level vessel (accessory) b Expansion vessel (field supply, in case brine level vessel
cannot be installed as the highest point)
If the level of brine in the vessel is lower than 1/3, fill the vessel with brine:
4 Close the shut-off valve below the vessel.
5 Remove the safety valve on top of the vessel.
6 Top up the vessel with brine until it is approximately 2/3 filled.
7 Reconnect the safety valve.
8 Open the shut-off valve below the vessel.
a Brine OUT (Ø28mm) b Brine IN (Ø28mm)
NOTICE
To facilitate service and maintenance, it is recommended to install shut-off valves as close as possible to the inlet and outlet of the unit.

7.2.4 To connect the brine level vessel

The brine level vessel (delivered as accessory) must be installed on the brine side of the heat pump system. A safety valve is included with the vessel. The vessel serves as a visual indicator of the brine level of the system. Air trapped in the system is collected by the vessel, causing the level of brine in the vessel to decrease.
1 Install the brine level vessel as the highest point in the brine
circuit on the entering brine piping.
2 Mount the included safety valve on top of the vessel.
3 Install a shut-off valve (field supplied) below the vessel.

7.2.5 To connect the brine filling kit

A brine filling kit (field supply or option kit KGSFILL2) can be used to flush, fill and drain the brine circuit of the system.
For installation instructions, see the installation manual of the brine filling kit.

7.2.6 To fill the brine circuit

WARNING
Before, during and after filling carefully check the brine circuit for leakage.
INFORMATION
The materials used in the brine circuit of the unit are chemically resistant to the following anti-freeze fluids:
▪ 40 mass% propylene glycol
▪ 29 mass% ethanol
1 Install the brine filling kit. See "7.2.5To connect the brine filling
kit"[430].
2 Connect a field supplied brine filling system to the 3-way valve.
3 Position the 3‑way valve correctly.
30
EGSAH/X06+10DA9W(G)
Daikin Altherma 3 GEO
4P569820-1A – 2019.09
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