KLIC-DI PRODUCT MANUALide.com.pl/dopobrania/Zennio/KLIC-DI/Manual_KLIC_DI_SKY... · 2010. 11. 9. · 1 EIB connector 2 Programming LED 3 Programming button 4 2-wire communication

KLIC-DI

INTERFACE KNX – DAIKIN

ZN1CL-KLIC-DI

Edition 4.0

Version 1.4

PRODUCT M

ANUAL

ZENNiO AVANCE Y TECNOLOGÍA www.zennio.com

2

Index

1. Introduction ............................................................................................................ 3

2. Installation .............................................................................................................. 5

2.1. KLIC-DI Installation ......................................................................................... 5

2.2. Elements Description ...................................................................................... 6

3. Configuration .......................................................................................................... 8

3.1. Basic Control .................................................................................................. 8

3.2. Advanced Functionalities ................................................................................ 8

4. Parameterization .................................................................................................. 12

4.1. Default Configuration .................................................................................... 12

4.2. General ......................................................................................................... 14

4.3. Mode ............................................................................................................. 15

4.4. Fan speed ..................................................................................................... 15

4.5. Scenes .......................................................................................................... 17

4.6. Temperature Limitation ................................................................................. 18

4.7. Automatic switch off ...................................................................................... 19

4.8. Errors management ...................................................................................... 19

4.9. Initial configuration ........................................................................................ 20

Annex I. Communication Objects ................................................................................ 22

Annex II. Correspondence Error Codes of Daikin Units ............................................... 24


3

1. INTRODUCTION

The KLIC-DI is an interface that allows a bidirectional communication between a

KNX domotic system and the commercial air-conditioning units of the series Sky Air

manufactured by Daikin.

Due to this bidirectional communication, the air conditioning unit can be controlled

in the same way that using an IR remote controller and the real status of the air-

conditioning unit is checked and sent to the KNX bus for its monitoring.

Figure 1 KLIC-DI

In case of using a wired remote control in the same communication bus of the unit,

the KLIC-DI will communicate with this remote control acting one device as master

control while the other device will act as slave control. It is important to verify that the

KLIC-DI and the wired remote control are configured with different type of control. This

way, the control acting as slave will update its status when the master orders it and will

communicate its status changes when they are modified from the own slave control.

Device Features:

Small enclosure: 90 x 60 x 35 mm (2 DIN rail units)

Designed to be installed inside distribution boxes or electrical mounting boxes.

KLIC-DD controls commercial and industrial air conditioners (bi-directional

communication) of the series Sky Air and VRV from Daikin.

Daikin control protocol.


4

Control over all Daikin air-conditioning functionality. Error management handles

Daikin error codes as well as any communication errors that may arise.

LED indicators allow monitoring of the bidirectional traffic flow.

Integrated EIB/KNX Bus Coupling Unit.

Complete data saving in case of Bus Power Failure.

CE Compliant


5

2. INSTALLATION

2.1. KLIC-DI INSTALLATION

The KLIC-DI installation is performed the same way that any other KNX device. We

just need to connect the device to KNX bus through the specific KNX connector.

On the other hand, this device is connected to the Daikin internal unit PCB (P1/P2

connectors), using a 2-wire cable.

If the wired remote control from Daikin is also used, it is necessary to make sure

that the wired remote control is in mode slave if the KLIC-DI is configured as master

control. And vice versa, if the KLIC-DI is configured as slave control, the wired remote

control must be in master position.

Once the device is provided with power supply from the bus, both, the physical

address and the KLIC application program can be downloaded.

This device does not need any external supply, since it just works with the power

supply of KNX bus.

Connections to daikin P1/P2 bus diagrams

Figure 2 Connecting KLIC-DI to P1/P2 bus

DAIKIN


6

2.2. ELEMENTS DESCRIPTION

Prog: To set the device programming mode. When initially pushed, after BUS

Powering, “secure mode” is set.

Led: Led “On” indicates programming mode. Led blinking every 0,5s, the

device is set in “secure mode”. It also indicates bidirectional communication

between KLIC-DI and Daikin unit.

Diagrams Leyend

A KLIC – DI

B Daikin Wired remote control

C Daikin SKY or VRV unit

P1 - P2 Daikin connection bus

1 - 2 Zennio connection terminal

* The wired remote control must operate in the opposite mode to KLIC-DI

Notes

The model FDXS‐‐‐‐E is controlled by KLIC-DD (see datasheet) because the internal unit does not have P1/P2 port.

Figure 3 Connecting KLIC-DI to bus P1/P2 with wired remote control (slave

mode)

DAIKIN

DAIKIN


7

Communication Cable: 2-wire cable, direct to PI/P2 connectors that can be

found at the PCB of the internal unit, or in the wired remote control.

Besides including the programming red LED (typical in any KNX device), the KLIC-

DI incorporates two more LEDs, blue and green ones, in order to inform about the

bidirectional communication between KNX and Daikin, resulting very useful in the

installation process.

Nº Description

1 EIB connector

2 Programming LED

3 Programming button

4 2-wire communication terminal


8

3. CONFIGURATION

3.1. BASIC CONTROL

With KLIC-DI, the air conditioning unit can be monitored and controlled the same

way it is done with the wired remote control provided with the air conditioning unit.

By means of bus KNX, it can be controlled the following basic functionalities of the

air conditioning system:

ON/OFF of the air conditioning unit.

Setpoint Temperature. Between 16 and 32 ºC.

Operating Mode: Auto, Heat, Dry, Fan and Cool.

Fan Speed: 2 or 3 speed levels configuration. (Check out the available levels in

the Daikin unit)

These functionalities have associated a machine status, which is periodically sent

to KLIC-DI. When KLIC-DI receives a status different from the previous one from the

machine, it updates the status of the corresponding parameter in the bus KNX.

3.2. ADVANCED FUNCTIONALITIES

Besides the basic control over the air conditioning system, KLIC-DI offers other

advanced functionalities that give an added value with regard to the wired remote

control:

Scenes Configuration: allows establishing a specific parameters

combination for the air conditioning machine.

Temperature Limitation: Daikin air conditioning systems are limited in

temperature (usually to the range 16-32 ºC. Please verify the range for a

particular model in the corresponding Daikin manual). This KLIC

functionality allows configuring custom temperature ranges for the modes

Heat and Cool by means of the ETS in such a way that the setpoint

temperature will remain in the range. In case of receiving from the bus KNX

a temperature command with a value out of the configured limits, the

temperature value sent to the machine will be the corresponding limit value.


9

Indoor temperature and Reference temperature: the Sky Air machines has

several temperature sensors for measuring the temperature in different internal

points.

The Indoor temperature is the measured internal value and it is used together

with the Reference temperature for controlling the modes Auto-Cool and Auto-

Heat of the air-conditioning machine.

The Reference temperature is the real temperature in the room to acclimatize.

It is necessary to communicate this parameter to the machine by means of the

corresponding communication object and it is hardly recommended to link this

communication object with a temperature sensor (installed in the room) which

periodically updates the temperature value.

The modes Auto-Heat and Auto-Cool can be controlled in three different ways

by the Daikin machine:

1. The machine receives the Reference temperature and, according to a

pre-configured hysteresis by the Daikin installer, it establishes the

corresponding auto mode.

2. The machine uses the Indoor temperature and, according to a pre-

configured hysteresis by the Daikin installer, it establishes the

corresponding auto mode.

3. The machine establishes the auto mode according to the average value

of the Reference temperature and the Indoor temperature.

The temperature value used by the machine in order to switch beatween the

Modes Auto-Cool and Auto-Cool depends on the configuration established in

the Dakin machine installation. This value, in any of the previous cases is

compared to the setpoint temperature in such a way that if the setpoint

temperature is higher the Auto-Heat mode is established and if the setpoint

temperature is lower than this value, the Auto-Cool is established.

Take into account: It is hardly recommended to link the Reference temperature to a

temperature sensor that periodically monitors the real temperature in the room

because the way of switching between the different Auto modes might not be known

and this fact can lead to a wrong functioning of the Auto mode. The Reference

temperature has a default value equal to 25ºC.

Auto Switch Off: allows temporarily switching off the machine if a status

change in the communication object associated to it, takes place. An

example of this functionality could be the use of a window sensor,

associated to the auto switch off, that allows switching off the machine if the

window is opened.


10

Errors Management: this functionality allows the sending of messages to

the bus informing about errors. Errors management handles Daikin error

codes as well as any communication errors that may arise

Besides informing about the apparition of possible errors it can be also

configured the sending of the error type.

In case of internal errors, the numerical code associated to the error type is

shown in the following table:

Error Number Type of Internal Error

1 Problems with the data reception (speed, parity, etc.)

2 Communication waiting time exceeded (Time-out)

3 Incorrect checksum

4 Incorrect response from the machine

Regarding the numerical code associated to the external errors type, look

up the manual of the installed air-conditioning system or the Annex II

Correspondence Error Codes of Daikin Units.

Initial Configuration:

All machine status must have an initial value after installing the system or a

power failure. With this purpose, it has been included in the KLIC the

possibility of defining the initial status for the ON/OFF, temperature, fan and

speed of the machine.

These initial values can be sent both to the bus KNX and the air conditioning

unit.

Type of Control: Master/Slave

It is important to take into account the type of control, master or slave, with

which the KLIC-DI is going to be configured.

The remote control “master” in the installation is in charge of the

communication with the machine and it will retransmit the instructions and

status between the machine and the slave remote control in case of having

one. In spite of the master/salve configuration, all the functionalities can be

set from both remote controls.

This functionality allows including in the installation both the KLIC-DI and the

Daikin wired control and choosing the desired master/slave configuration

whenever the KLIC-DI and the wired control are not configured with the


11

same type of control. In case of having both controls configured as masters,

the screen of the Daikin control will show the error “88” and the error “U5”

will be sent to the bus.

Take into account: When switching the type of control of the Daikin wired

control between master and slave, it is necessary to remove the power

supply from the wired control and connecting it again for rebooting the wired

control in the suitable mode

Important: The wired control BRC1E51A7 can only operate as master

control. In case of using this model of wired control in the installation, it is

necessary configuring the KLIC-DI as slave control.


12

4. PARAMETERIZATION

For starting to parameterize the device it is necessary, once the ETS has been

opened, importing the data base of the product KLIC-DI SKY 1.0.vd2.

Then the KLIC is added to the project where it is desired to include the device. Click

with the right mouse button the right button on the device and select “Edit

Parameters..” for starting with the configuration.

In the following sections there is a detailed explanation about each of the different

functionalities of the device in ETS.

4.1. DEFAULT CONFIGURATION

This section shows the default configuration from which the device configuration

starts.

If the window “Edit Parameters” is opened for the first time, the KLIC General

configuration by default will be found.

Next figure shows the General window with the default values:

Figure 4 Default General Configuration


13

As we can see in the previous figure all the advanced functionalities: scenes,

temperature limitation, auto switch off, errors management and initial configuration are

disabled by default.

If the Mode and Fan are selected, it will be seen that both the Individual Modes and

the Simplified Modes (Cool/Heat) are disabled by default while the Fan is configured for

2 different fan speeds and the step control is also disabled.

In the next figure, it can be watched the available communication objects by

default: they allow sending the ON/OFF to the Split, setpoint temperature, mode and

fan speed (two speeds), as well as receiving the status of these variables from the

Split.

Figure 6 Default Fan Configuration

Figure 5 Default Mode Configuration

Figure 7 Default Communication Objects


14

4.2. GENERAL

From the parameterization window General the advanced functionalities can be

enabled:

Scenes

Temperature Limitation

Auto OFF

Errors Management

Type of Control

Indoor Temperature Sending Time

Initial Configuration

As we select the functionalities in the pull down lists, the access to the functionality

configuration window will appear in the Menu at the left and the corresponding

communication objects are enabled.

This window also allows configuring the type of control for the remote control:

Master/Slave

And the Sending Time for the Indoor Temperature. This temperature is sent by the machine when the indoor temperature changes. In order to avoid an excessive sending

Figure 8 General


15

of telegrams with this temperature, it has been implemented this parameter. This way, the indoor temperature will be sent every certain period of time specified with this parameter and only if the temperature has changed.

4.3. MODE

As it has been previously seen in the default configuration, the specific Mode

window allows the user select:

Individual Modes

When selecting the “Individual Modes”, two 1-bit communication objects will be enabled, one for controlling the mode and another one for receiving the status from the split, for each mode (Auto, Cool, Only Fan, Heat and Dry) besides the 1-byte communication objects for controlling and indicating the Mode that exist by default.

If the option “Individual Modes” is activated, the operating mode of the machine will be sent by means of the 1-bit Sending object associated to the mode. Moreover the Mode will be also sent to the bus KNX by means of both the 1-byte Mode objects for controlling and indicating the status of the corresponding mode.

Simplified Modes

The selection of the “Simplified Modes” will enable a 1-bit communication object with the same name that will allow choosing between Mode Cool (value 0) and Mode Heat (value 1).

For this communication object, the corresponding status communication object does not exist.

Figure 9 Mode

4.4. FAN SPEED

In this window it can be selected the number of fan levels that the air conditioning

unit has: 2 or 3 levels besides the auto level.


16

The fan speed has associated two 1-byte communication objects that respectively

controls and indicates the fan speed. The control object records the fan speed in

percentage. For this reason this value will be interpolated in such a way that

corresponds to the selected number of levels. The status object will show the fan

speed according to the interpolated percentages.

Two Levels of Fan

If the fan speed configuration has 2 levels, the fan speed percentages will be interpolated in the following way:

Initial Speed Percentage

Interpolated Speed Percentage

Level

0 49% 25 % Minimum

50-100 % 100 % Maximum

Three Levels of Fan

On the other hand, with a fan speed configuration of 3 levels, the fan speed percentages will be interpolated according to next table:

Initial Speed Percentage

Interpolated Speed Percentage

Level

0 32% 25 % Minimum

33-65 % 50 % Medium

66-100% 100 % Maximum

Besides configuring the number of levels the Fan window allows selecting the “Step

Control”.

Step Control

The selection of “Step Control” enables a 1-bit object for increasing or decreasing the fan speed level:

� Value “1”: Increase

Figure 10 Fan Speed


17

� Value “0”: Decrease

The “Step Control” is not cyclical which means that if the fan speed is Minimum (0%), when the speed level is decreased, the speed will remain at this mode until the level is increased again. The same way, when the speed level is at 100%, the level will remain at this maximum until the speed is decreased.

4.5. SCENES

A scene involves the synchronized sending of several commands to the air

conditioning unit with the objective of generating a determined climate environment in

the room.

KLIC offers the possibility of configuring up to 4 scenes.

Once the Scenes are enabled in General, the option Scenes appears in the Menu.

Figure 12 Scenes Configuration Example

Figure 11 Scenes


18

For each of the 4 scenes, the variables that can be configured are:

Scene1-4:

Scene Number: Scene number within the installation.

ON/OFF: No change, switching ON or OFF the Split.

Temperature: No change or temperature value between 16°C and 32°C.

Mode: No change, auto, heat, dry, fan or cool.

Fan: No change, minimum, medium o maximum.

4.6. TEMPERATURE LIMITATION

The air conditioning unit has defined upper and lower temperature limits that cannot

be exceeded (the limits are usually 32ºC and 16ºC respectively). Nevertheless, KLIC

offers the possibility of establishing new temperature limits if they are specified within

the Daikin limits of the unit that is going to be used (Look up the Daikin unit manual).

The temperature limits can be personalized for the two modes with associated

temperature: Cool and Heat.

Figure 13 Temperature Limitation


19

Once the limitation is enabled, when a value out of the range is sent from the bus

KNX, the value that will be sent to Daikin unit will be the corresponding temperature

limit and this new temperature value will be notified to the bus KNX.

As a new functionality, it has been included a 1-bit communication object that will

allow the user enabling (object to “1”) or disabling (object to “0”) these personalized

temperatures restoring the Daikin default range.

Take into account: When configuring in ETS the temperature limitation, this

functionality is automatically enabled by default and the personalized ranges will

control the unit performance when it switches on.

4.7. AUTOMATIC SWITCH OFF

When this option is enabled, the air conditioning unit will be temporarily switched off

if a status change in the associated binary communication object is produced.

This functionality has two configurable parameters:

Delay for Auto-OFF: Number of seconds that KLIC-DI delays the air conditioning unit switching off.

4.8. ERRORS MANAGEMENT

The Errors Management window allows enabling the sending of messages to the

bus indicating any error that may arise: internal errors of the communication between

the KLIC-DI and the Daikin unit or external errors, errors in the own Daikin unit.

It can be enabled the internal errors, the external errors or both:

Internal Errors: Yes or no.

External Errors: Yes or no.

Figure 14 Auto-OFF


20

Every error type has associated two communication objects: the binary one

indicates if an error has occurred and the 1-byte object that indicates the code

identifying the error.

4.9. INITIAL CONFIGURATION

The initial configuration window allows configuring the initial machine status after

the installation or a power failure.

The variables that can be initialized are the following:

ON/OFF: Last, ON or OFF.

Temperature: Last or custom.

Mode: Last, auto, heat, dry, fan or cool.

Fan: Last, auto, minimum, minimum-medium, medium, maximum-medium or maximum.

Moreover, it can be configured the Sending of status to the Bus or Split and when it

must be carried out:

Send Initial Configuration to BUS?: Yes or no.

Delay: number of seconds that the KLIC delays the sending of status to the BUS

Figure 15 Errors Management


21

Figure 16 Initial Configuration

ZEN

NiO

AV

AN

CE

Y TE

CN

OLO

GÍA

____

___

____

___

___

____

____

___

____

____

___

___

____

___

____

___

____

____

___

____

___

___

____

____

___

____

____

___

___

____

___

____

___

____

____

_ w

ww

.zen

nio

.co

m

2 2

ANNEX I. COMMUNICATION OBJECTS

SE

CT

ION

N

UM

BE

R

LEN

GH

T

IN/O

UT

F

LAG

S

VA

LUE

S

NA

ME

O

BJE

CT

FU

NC

TIO

N

RA

NG

E

INIT

IAL

RE

SE

T

GE

NE

RA

L

0

1 b

it

I W

0

/1

0

O

N/O

FF

Turn

ON

th

e Sp

lit(1

); T

urn

OFF

th

e Sp

lit(0

)

1

2 b

ytes

I

W

10

-32

T

em

pe

ratu

re

Tem

per

atu

re s

en

t to

th

e Sp

lit

2

1 b

yte

I

W

0-2

55

M

od

e

Au

to(0

); H

eat(

1);

Co

ol(

3); F

an(9

);D

ry(1

4)

3

1 b

yte

I

W

0-2

55

Fa

n

Au

to(0

%);

Min

imu

m(1

-20

%);

Med

ium

(21

-6

0%

);M

axim

um

(61

-10

0%

)

Au

to(0

%);

Min

imu

m (

1-2

0%

); M

inim

um

- M

ed

ium

(2

1-4

0%

); M

ediu

m (

41

-60

%);

Med

ium

- M

axim

um

(6

1-8

0%

); M

axim

um

(8

1-1

00

%)

4

1 b

it

�

R-T

0

/1

ON

/OFF (

Sta

tus)

Sp

lit S

tate

(O

N/O

FF)

5

2 b

ytes

�

R

-T

10

-32

T

em

pe

ratu

re (

Sta

tus)

Te

mp

erat

ure

rec

eive

d f

rom

th

e sp

lit

6

1 b

yte

�

R

-T

0-2

55

M

od

e (

Sta

tus)

M

od

e re

ceiv

ed

fro

m t

he

split

7

1 b

yte

�

R

-T

0-2

55

Fa

n (

Sta

tus)

Wit

h 3

leve

ls: A

uto

(0%

); M

inim

um

(20

%);

M

ediu

m(6

0%

); M

axim

um

(10

0%

)

Wit

h 5

leve

ls: A

uto

(0

%);

Min

. (2

0%

); M

inim

um

-

Med

ium

(4

0%

); v

(60

%);

Max

imu

m -

Med

ium

(8

0%

);

Max

.(1

00

%)

20

1

byt

e

I W

0

-25

5

Sce

ne

s Se

t Sc

en

e V

alu

e (S

cen

e N

um

ber

)

21

1

bit

I

W

0/1

T

em

pe

ratu

re L

imit

ati

on

En

able

(1);

Dis

able

(0)

22

1

bit

I

W

0/1

A

uto

-OF

F

Enab

le(1

); D

isab

le(0

)

27

2

byt

es

�

R-T

0

-25

5

Ind

oo

r T

em

pe

ratu

re (

Est

ad

o)

Tem

per

atu

re m

easu

red

by

the

mac

hin

e

ZEN

NiO

AV

AN

CE

Y TE

CN

OLO

GÍA

____

___

____

___

___

____

____

___

____

____

___

___

____

___

____

___

____

____

___

____

___

___

____

____

___

____

____

___

___

____

___

____

___

____

____

_ w

ww

.zen

nio

.co

m

2 3

SE

CT

ION

N

UM

BE

R

LEN

GH

T

IN/O

UT

F

LAG

S

VA

LUE

S

NA

ME

O

BJE

CT

FU

NC

TIO

N

RA

NG

E

INIT

IAL

RE

SE

T

28

2

byt

es

�

R-T

0

-25

5

Re

fere

nce

Te

mp

era

ture

R

efer

ence

tem

per

atu

re

8

1 b

it

I W

-T

0/1

A

uto

Mo

de

Se

t A

uto

Mo

de(

1);

No

thin

g(0

)

9

1 b

it

I W

-T

0/1

C

oo

l M

od

e

Set

Co

ol M

od

e (1

); N

oth

ing

(0)

10

1

bit

I

W-T

0

/1

He

at

Mo

de

Se

t H

eat

Mo

de

(1);

No

thin

g (0

)

11

1

bit

I

W-T

0

/1

Fa

n M

od

e

Set

Fan

Mo

de

(1);

No

thin

g (0

)

12

1

bit

I

W-T

0

/1

Dry

Mo

de

Se

t D

ry M

od

e (1

); N

oth

ing

(0)

MO

DE

13

1

bit

I

W

0/1

S

imp

lifi

ed

Mo

de

C

oo

l(0

); H

eat(

1)

14

1

bit

�

R

-T

0/1

A

uto

Mo

de

(S

tatu

s)

Au

to M

od

e En

able

d (

1);

Dis

able

d (

0)

15

1

bit

�

R

-T

0/1

C

oo

l M

od

e (

Sta

tus)

C

oo

l Mo

de

Enab

led

(1

); D

isab

led

(0

)

16

1

bit

�

R

-T

0/1

H

ea

t M

od

e (

Sta

tus)

H

eat

Mo

de

Enab

led

(1

); D

isab

led

(0

)

17

1

bit

�

R

-T

0/1

Fa

n M

od

e (

Sta

tus)

Fa

n M

od

e En

able

d (

1);

Dis

able

d (

0)

18

1

bit

�

R

-T

0/1

D

ry M

od

e (

Sta

tus)

D

ry M

od

e En

able

d (

1);

Dis

able

d (

0)

FA

N

19

1

bit

I

W

1

Fa

n [

1b

it]

(Sta

tus)

D

ow

n(0

); U

p(1

)

ER

RO

RS

MA

NA

GE

ME

NT

23

1

bit

�

R

-T

0/1

In

tern

al

Err

or

(Sta

tus)

N

o e

rro

r(0

); E

rro

r(1

)

24

1

byt

e

�

R-T

1

-4

Ty

pe

of

Inte

rna

l E

rro

r (S

tatu

s)

Err.

Rec

epti

on

(1);

Tim

eou

t (2

); In

corr

ect

Ch

ecks

um

(3

); In

corr

ect

Res

po

nse

(4)

25

1

bit

�

R

-T

0/1

E

xte

rna

l E

rro

r (S

tatu

s)

No

err

or(

0);

Err

or(

1)

26

1

byt

e

�

R-T

0

-25

5

Ty

pe

of

Exte

rna

l E

rro

r (S

tatu

s)

Ch

eck

Dai

kin

Err

ors

Tab

le

ZEN

NiO

AV

AN

CE

Y TE

CN

OLO

GÍA

____

___

____

___

___

____

____

___

____

____

___

___

____

___

____

___

____

____

___

____

___

___

____

____

___

____

____

___

___

____

___

____

___

____

____

_ w

ww

.zen

nio

.co

m

2 4

ANNEX II. CORRESPONDENCE ERROR CODES OF DAIKIN UNITS

Next table shows the correspondence between the external error code provided by KLIC-DI at the Bus KNX and the breakdown codes of the

Daikin units:

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

1

00

4

9

E0

97

J0

1

45

U

0

19

3

70

2

41

4

0

28

9

10

3

37

M

0

38

5

T0

43

3

X0

2

01

5

0

E1

98

J1

1

46

U

1

19

4

71

2

42

4

1

29

0

11

3

38

M

1

38

6

T1

43

4

X1

3

02

5

1

E2

99

J2

1

47

U

2

19

5

72

2

43

4

2

29

1

12

3

39

M

2

38

7

T2

43

5

X2

4

03

5

2

E3

10

0

J3

14

8

U3

1

96

7

3

24

4

43

2

92

1

3

34

0

M3

3

88

T3

4

36

X

3

5

04

5

3

E4

10

1

J4

14

9

U4

1

97

7

4

24

5

44

2

93

1

4

34

1

M4

3

89

T4

4

37

X

4

6

05

5

4

E5

10

2

J5

15

0

U5

1

98

7

5

24

6

45

2

94

1

5

34

2

M5

3

90

T5

4

38

X

5

7

06

5

5

E6

10

3

J6

15

1

U6

1

99

7

6

24

7

46

2

95

1

6

34

3

M6

3

91

T6

4

39

X

6

8

07

5

6

E7

10

4

J7

15

2

U7

2

00

7

7

24

8

47

2

96

1

7

34

4

M7

3

92

T7

4

40

X

7

9

08

5

7

E8

10

5

J8

15

3

U8

2

01

7

8

24

9

48

2

97

1

8

34

5

M8

3

93

T8

4

41

X

8

10

0

9

58

E9

1

06

J9

1

54

U

9

20

2

79

2

50

4

9

29

8

19

3

46

M

9

39

4

T9

44

2

X9

11

0

A

59

EA

1

07

JA

1

55

U

A

20

3

7A

2

51

4

A

29

9

1A

3

47

M

A

39

5

TA

44

3

XA

12

0

H

60

EH

1

08

JH

1

56

U

H

20

4

7H

2

52

4

H

30

0

1H

3

48

M

H

39

6

TH

44

4

XH

13

0

C

61

EC

1

09

JC

1

57

U

C

20

5

7C

2

53

4

C

30

1

1C

3

49

M

C

39

7

TC

44

5

XC

14

0

J 6

2

EJ

11

0

JJ

15

8

UJ

20

6

7J

25

4

4J

30

2

1J

35

0

MJ

39

8

TJ

44

6

XJ

15

0

E 6

3

EE

11

1

JE

15

9

UE

20

7

7E

25

5

4E

30

3

1E

35

1

ME

39

9

TE

44

7

XE

16

0

F 6

4

EF

11

2

JF

16

0

UF

20

8

7F

25

6

4F

30

4

1F

35

2

MF

40

0

TF

44

8

XF

17

A

0

65

H

0

11

3

L0

16

1

90

2

09

6

0

25

7

30

3

05

G

0

35

3

N0

4

01

V

0

44

9

Y0

ZEN

NiO

AV

AN

CE

Y TE

CN

OLO

GÍA

____

___

____

___

___

____

____

___

____

____

___

___

____

___

____

___

____

____

___

____

___

___

____

____

___

____

____

___

___

____

___

____

___

____

____

_ w

ww

.zen

nio

.co

m

2 5

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

18

A

1

66

H

1

11

4

L1

16

2

91

2

10

6

1

25

8

31

3

06

G

1

35

4

N1

4

02

V

1

45

0

Y1

19

A

2

67

H

2

11

5

L2

16

3

92

2

11

6

2

25

9

32

3

07

G

2

35

5

N2

4

03

V

2

45

1

Y2

20

A

3

68

H

3

11

6

L3

16

4

93

2

12

6

3

26

0

33

3

08

G

3

35

6

N3

4

04

V

3

45

2

Y3

21

A

4

69

H

4

11

7

L4

16

5

94

2

13

6

4

26

1

34

3

09

G

4

35

7

N4

4

05

V

4

45

3

Y4

22

A

5

70

H

5

11

8

L5

16

6

95

2

14

6

5

26

2

35

3

10

G

5

35

8

N5

4

06

V

5

45

4

Y5

23

A

6

71

H

6

11

9

L6

16

7

96

2

15

6

6

26

3

36

3

11

G

6

35

9

N6

4

07

V

6

45

5

Y6

24

A

7

72

H

7

12

0

L7

16

8

97

2

16

6

7

26

4

37

3

12

G

7

36

0

N7

4

08

V

7

45

6

Y7

25

A

8

73

H

8

12

1

L8

16

9

98

2

17

6

8

26

5

38

3

13

G

8

36

1

N8

4

09

V

8

45

7

Y8

26

A

9

74

H

9

12

2

L9

17

0

99

2

18

6

9

26

6

39

3

14

G

9

36

2

N9

4

10

V

9

45

8

Y9

27

A

A

75

H

A

12

3

LA

17

1

9A

2

19

6

A

26

7

3A

3

15

G

A

36

3

NA

4

11

V

A

45

9

YA

28

A

H

76

H

H

12

4

LH

17

2

9H

2

20

6

H

26

8

3H

3

16

G

H

36

4

NH

4

12

V

H

46

0

YH

29

A

C

77

H

C

12

5

LC

17

3

9C

2

21

6

C

26

9

3C

3

17

G

C

36

5

NC

4

13

V

C

46

1

YC

30

A

J 7

8

HJ

12

6

LJ

17

4

9J

22

2

6J

27

0

3J

31

8

GJ

36

6

NJ

41

4

VJ

46

2

YJ

31

A

E 7

9

HE

12

7

LE

17

5

9E

22

3

6E

27

1

3E

31

9

GE

36

7

NE

41

5

VE

46

3

YE

32

A

F 8

0

HF

12

8

LF

17

6

9F

22

4

6F

27

2

3F

32

0

GF

36

8

NF

41

6

VF

46

4

YF

33

C

0

81

F0

1

29

P

0

17

7

80

2

25

5

0

27

3

20

3

21

K

0

36

9

R0

4

17

W

0

46

5

Z0

34

C

1

82

F1

1

30

P

1

17

8

81

2

26

5

1

27

4

21

3

22

K

1

37

0

R1

4

18

W

1

46

6

Z1

35

C

2

83

F2

1

31

P

2

17

9

82

2

27

5

2

27

5

22

3

23

K

2

37

1

R2

4

19

W

2

46

7

Z2

36

C

3

84

F3

1

32

P

3

18

0

83

2

28

5

3

27

6

23

3

24

K

3

37

2

R3

4

20

W

3

46

8

Z3

37

C

4

85

F4

1

33

P

4

18

1

84

2

29

5

4

27

7

24

3

25

K

4

37

3

R4

4

21

W

4

46

9

Z4

38

C

5

86

F5

1

34

P

5

18

2

85

2

30

5

5

27

8

25

3

26

K

5

37

4

R5

4

22

W

5

47

0

Z5

39

C

6

87

F6

1

35

P

6

18

3

86

2

31

5

6

27

9

26

3

27

K

6

37

5

R6

4

23

W

6

47

1

Z6

40

C

7

88

F7

1

36

P

7

18

4

87

2

32

5

7

28

0

27

3

28

K

7

37

6

R7

4

24

W

7

47

2

Z7

ZEN

NiO

AV

AN

CE

Y TE

CN

OLO

GÍA

____

___

____

___

___

____

____

___

____

____

___

___

____

___

____

___

____

____

___

____

___

___

____

____

___

____

____

___

___

____

___

____

___

____

____

_ w

ww

.zen

nio

.co

m

2 6

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

ER

RO

R

BU

S

DA

IKIN

CO

DE

41

C

8

89

F8

1

37

P

8

18

5

88

2

33

5

8

28

1

28

3

29

K

8

37

7

R8

4

25

W

8

47

3

Z8

42

C

9

90

F9

1

38

P

9

18

6

89

2

34

5

9

28

2

29

3

30

K

9

37

8

R9

4

26

W

9

47

4

Z9

43

C

A

91

FA

1

39

P

A

18

7

8A

2

35

5

A

28

3

2A

3

31

K

A

37

9

RA

4

27

W

A

47

5

ZA

44

C

H

92

FH

1

40

P

H

18

8

8H

2

36

5

H

28

4

2H

3

32

K

H

38

0

RH

4

28

W

H

47

6

ZH

45

C

C

93

FC

1

41

P

C

18

9

8C

2

37

5

C

28

5

2C

3

33

K

C

38

1

RC

4

29

W

C

47

7

ZC

46

C

J 9

4

FJ

14

2

PJ

19

0

8J

23

8

5J

28

6

2J

33

4

KJ

38

2

RJ

43

0

WJ

47

8

ZJ

46

C

J 9

4

FJ

14

2

PJ

19

0

8J

23

8

5J

28

6

2J

33

4

KJ

38

2

RJ

43

0

WJ

47

8

ZJ

48

C

F 9

6

FF

14

4

PF

19

2

8F

24

0

5F

28

8

2F

33

6

KF

38

4

RF

43

2

WF

48

0

ZF

27 27

ZE

NN

IO T

EC

HN

ICA

L D

OC

UM

EN

TA

TIO

N

SIGN UP!

http://zennioenglish.zendesk.com

TECHNICAL SUPPORT

Documents

KLIC-DI PRODUCT MANUALide.com.pl/dopobrania/Zennio/KLIC-DI/Manual_KLIC_DI_SKY... · 2010. 11. 9. · 1 EIB connector 2 Programming LED 3 Programming button 4 2-wire communication