ABB i-bus SA/M 2.6.1 User manual

Product Manual

ABB i-bus

®

EIB / KNX

Switch Actuator Modules for

the Room Controller

SA/M 2.6.1

ES/M 2.230.1

ES/M 2.24.1

Online version

High resolution pictures deleted

Intelligent Installation Systems

ABB

ABB i-bus

®

EIB / KNX

Switch Actuator Module SA/M 2.6.1

Electr. Switch Actuator Module ES/M 2.230.1

Electr. Switch Actuator Module ES/M 2.24.1

2CDG 110 002 R0011

2CDG 110 013 R0011

2CDG 110 014 R0011

Contents

Page

1

General.................................................................................................4

2 Device technology..............................................................................5

2.1 SA/M 2.6.1 Switch Actuator Module, 2-fold, 6 A...................................5

2.1.1 Technical data..........................................................................5

2.1.2 Circuit diagram.........................................................................6

2.1.3 Description of the outputs ........................................................6

2.1.4 Assembly and installation ........................................................6

2.2 ES/M 2.230.1 Electr. Switch Actuator Module, 2-fold, 230 V ...............7

2.2.1 Technical data..........................................................................7

2.2.2 Circuit diagram.........................................................................8

2.2.3 Description of the outputs ........................................................8

2.2.4 Assembly and installation ........................................................8

2.3 ES/M 2.24.1 Electr. Switch Actuator Module, 2-fold, 24 V ...................9

2.3.1 Technical data..........................................................................9

2.3.2 Circuit diagram.......................................................................10

2.3.3 Description of the outputs ......................................................10

2.3.4 Assembly and installation ......................................................10

3 Application and planning.................................................................11

3.1 The three operating modes.................................................................11

3.2 Operating mode: “Switch actuator”.....................................................12

3.2.1 Time functions........................................................................12

3.2.2 Logic.......................................................................................13

3.2.3 Presets ...................................................................................14

3.2.4 8-bit scene..............................................................................16

3.2.5 Threshold function .................................................................16

3.2.6 Function diagram ...................................................................18

3.3 Operating mode: “Heating actuator” ...................................................19

3.4 Operating mode: “Fan coil control” .....................................................21

3.4.1 Terms .....................................................................................21

3.4.2 Structure of an HVAC system with fan coil units ...................21

3.4.3 Structure of a fan coil unit ......................................................21

3.4.4 Variants..................................................................................22

3.4.5 Connection.............................................................................22

3.5 Reaction on voltage failure and recovery ...........................................24

3.6 Reaction after programming ...............................................................24

4 Project design and programming ...................................................25

4.1 Overview of the functions ...................................................................25

4.2 General functions................................................................................25

4.2.1 Parameter window: “General”................................................25

4.3 Operating mode: “Switch actuator”.....................................................26

4.3.1 Parameter window: “General”................................................26

4.3.2 Parameter window: “Function”...............................................27

4.3.3 Parameter window: “Time”.....................................................28

4.3.4 Parameter window: “Presets”.................................................31

4.3.5 Parameter window: “Scene”...................................................32

4.3.6 Parameter window: “Logic” ....................................................33

ABB i-bus

®

EIB / KNX

Switch Actuator Module SA/M 2.6.1

Electr. Switch Actuator Module ES/M 2.230.1

Electr. Switch Actuator Module ES/M 2.24.1

2CDG 110 002 R0011

2CDG 110 013 R0011

2CDG 110 014 R0011

4.3.7 Parameter window: “Safety”...................................................34

4.3.8 Parameter window: “Threshold”.............................................36

4.3.9 Communication objects..........................................................38

4.4 Operating mode: “Heating actuator” ...................................................43

4.4.1 Parameter window: “General”................................................43

4.4.2 Parameter window: “Function”...............................................45

4.4.3 Parameter window: “Monitoring”............................................46

4.4.4 Parameter window: “Forced operation” .................................47

4.4.5 Parameter window: “Valve purge” .........................................48

4.4.6 Communication objects..........................................................49

4.5 Operating mode: “Fan coil control” .....................................................51

4.5.1 What is a fan coil unit?...........................................................51

4.5.2 Parameter window: “General”................................................52

4.5.3 Parameter window: “Speeds” ................................................54

4.5.4 Parameter window: “Function”...............................................55

4.5.5 Parameter window: “Monitoring”............................................56

4.5.6 Parameter window: “Speed limitation” ...................................57

4.5.7 Parameter window: “Forced operation” .................................57

4.5.8 Communication objects..........................................................58

5 Appendix............................................................................................61

5.1 Value table vor the object „Telegr. status byte“ ..................................61

5.2 Ordering information ...........................................................................61

This manual describes the function of the Switch Actuator Module SA/M 2.6.1 and the

Electronic Switch Actuator Modules ES/M 2.230.1 and ES/M 2.24.1 for operation in

the Room Controller Basis Device with the application program “Room Controller

modular, 8f/1.2”.

Subject to changes and errors excepted.

Exclusion of liability:

Despite checking that the contents of this document match the hardware and

software, deviations cannot be completely excluded. We therefore cannot accept any

liability for this. Any necessary corrections will be inserted in new versions of the

manual.

Please inform us of any suggested improvements.

ABB i-bus

®

EIB / KNX

General

1 General

The Switch Actuator Module SA/M 2.6.1 as well as the Electronic Switch

Actuator Modules ES/M 2.230.1 and ES/M 2.24.1 are snapped into a module

slot of the Room Controller Basis Device RC/A 8.1. They are used to control

switched loads:

Type of load Suitable module type

Lighting SA/M 2.6.1

Electrothermal valve drives (heating control) ES/M 2.230.1, ES/M 2.24.1

Fan coil units SA/M 2.6.1

signaling equipment (ohmic loads) ES/M 2.230.1, ES/M 2.24.1

The Room Controller Basis Device establishes the connection to the ABB i-

bus

®

EIB / KNX installation bus.

All the modules have two outputs each. The Switch Actuator Module SA/M

2.6.1 switches via relay outputs while the Electronic Switch Actuator

Modules switch via noise-free, wear-resistant electronic semiconductor

components.

SA/M 2.6.1 and ES/M 2.230.1 are automatically connected to the incoming

supply when they are snapped into the Room Controller Basis Device. The

ES/M 2.24.1 is supplied via two terminals with 24 V DC.

On the output side, the devices have screw terminals with plug-in

connection.

The comprehensive functionality is defined by programming the Room

Controller Basis Device with the EIB Tool Software (ETS2 V1.2a or higher).

It is almost identical for all three devices.

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®

EIB / KNX

Device technology

2 Device technology

2.1 SA/M 2.6.1

Switch Actuator Module,

2-fold, 6 A

The 2-fold Switch Actuator Module is operated in any module slot of the

Room Controller Basis Device. Using relay contacts, it switches two

independent groups of electrical loads such as fluorescent lamps. The

outputs are distinguished by a high switching current.

Both the incoming supply and the internal voltage are supplied via the Room

Controller Basis Device. Contact is automatically established when the

modules are snapped in place.

2.1.1 Technical data

Power supply / Incoming supply – Operating voltage made available by the Room Controller Basis

Device, contact made via contact system on

base of module

– Incoming supply 0...264 V AC, contact established via contact

surfaces at the front

Outputs – 2 load circuits Relay outputs

Max. switching current:

16 A / AC1, 10 A / AC3

Max. continuous current: 6 A

Max. inrush peak current I

p

:

400 A (150 µs), 320 A (250 µs)

– Contact endurance 10

7

mechanical

10

5

electrical (at 230 V / 16 A / AC1)

Connections – Load circuits 2 x three-pole, plug-in screw terminals

– Wire ranges 0.2…2.5 mm

2

finely stranded

0.2…40 mm

2

single-core

Ambient temperature range – Storage -25 °C ... 55 °C

– Transport -25 °C ... 70 °C

Design – Type of installation For snapping into the

Room Controller Basis Device

– Housing, colour Plastic housing, anthracite, halogen-free

– Housing dimensions (WxHxD) 49 mm x 42 mm x 93 mm

– Weight 0.1 kg

CE norm – in accordance with the EMC guideline and

the low voltage guideline

ABB i-bus

®

EIB / KNX

Device technology

2.1.2 Circuit diagram

NLNL

a

SA/M 2.6.1

I

n

= 6 AX

U

n

= 250 V~

C-Load

cos

= 0.6

µµ

AB

NL'NL'

123456

ABB i-bus

®

PE PE

2.1.3 Description of the outputs

The device has two relay outputs A and B. The switched incoming supply is

applied at output L’. The PE conductor is brought out from the device to

connect the protective conductor.

2.1.4 Assembly and installation

The device is solely intended for operation in the Room Controller Basis

Device. It can be snapped into any module slot. The mounting position can

be selected as required.

ABB i-bus

®

EIB / KNX

Device technology

2.2 ES/M 2.230.1

Electr. Switch Actuator

Module, 2-fold, 230 V

The 2-fold Electronic Switch Actuator Module is snapped into any module

slot of the Room Controller Basis Device. Using two semiconductor outputs,

it switches two resistive loads such as electrothermal valve drives for heating

control. The outputs are noise-free and wear-resistant. The nominal

switching voltage is 115 or 230 V.

Both the incoming supply and the internal voltage are supplied via the Room

Controller Basis Device. Contact is automatically established when the

modules are snapped in place.

2.2.1 Technical data

Power supply / Incoming supply – Internal supply made available by the Room Controller Basis

Device, contact made via contact system on

base of module

– Incoming supply 90...264 V AC / DC, contact established via

contact surfaces at the front

Outputs – 2 load circuits Semiconductor outputs for resistive loads

Inrush current: max. 1 A

Continuous current: max. 700 mA

Connections – Load circuits 2 x three-pole, plug-in screw terminals

– Wire ranges 0.2…2.5 mm

2

finely stranded

0.2…4.0 mm

2

single-core

Ambient temperature range – Storage -25 °C ... 55 °C

– Transport -25 °C ... 70 °C

Design – Type of installation For snapping into the

Room Controller Basis Device

– Housing, colour Plastic housing, anthracite, halogen-free

– Housing dimensions (WxHxD) 49 mm x 42 mm x 93 mm

– Weight 0.08 kg

CE norm – in accordance with the EMC guideline and

the low voltage guideline

ABB i-bus

®

EIB / KNX

Device technology

2.2.2 Circuit diagram

PE PE

N L'N L'

ABB

ES/M 2.230.1

U

n

= 115/230 V~

I

n

= 700 mA

A B

N LN L

1 2 3 4 5 6

ABB i-bus

®

2.2.3 Description of the outputs

The device has two semiconductor outputs A and B. The switched incoming

supply is applied at output L’. The PE conductor is brought out from the

device to connect the protective conductor.

2.2.4 Assembly and installation

The device is solely intended for operation in the Room Controller Basis

Device. It can be snapped into any module slot. The mounting position can

be selected as required.

ABB i-bus

®

EIB / KNX

Device technology

2.3 ES/M 2.24.1

Electr. Switch Actuator

Module, 2-fold, 24 V

The 2-fold Electronic Switch Actuator Module is snapped into any module

slot of the Room Controller Basis Device. Using two semiconductor outputs,

it switches two resistive loads such as electrothermal valve drives for heating

control. The outputs are noise-free and wear-resistant. The nominal

switching voltage is 12 or 24 V.

Both the incoming supply and the internal voltage are supplied via the Room

Controller Basis Device. Contact is automatically established when the

modules are snapped in place.

2.3.1 Technical data

Power supply / Incoming supply – Internal supply made available by the Room Controller Basis

Device, contact made via contact system on

base of module

– Incoming supply 10...30 V AC / DC

Outputs – 2 load circuits Semiconductor outputs for resistive loads

Inrush current: max. 1 A

Continuous current: max. 700 mA

Connections – Load circuits 1 x four-pole, plug-in screw terminal

– Incoming supply 1 x two-pole, plug-in screw terminal each for

connection and for looping through

– Wire ranges 0.2…2.5 mm

2

finely stranded

0.2…4.0 mm

2

single-core

Ambient temperature range – Storage -25 °C ... 55 °C

– Transport -25 °C ... 70 °C

Design – Type of installation For snapping into the

Room Controller Basis Device

– Housing, colour Plastic housing, anthracite, halogen-free

– Housing dimensions (WxHxD) 49 mm x 42 mm x 93 mm

– Weight 0.08 kg

CE norm – in accordance with the EMC guideline and

the low voltage guideline

ABB i-bus

®

EIB / KNX

Device technology

2.3.2 Circuit diagram

ABB

ES/M 2.24.1

U

n

= 24 V AC/DC

I

n

= 700 mA

U

n

++AB

12345678

U

n

+

ABB i-bus

®

24 V AC / DC

max. 8 A

+

–

24 V AC / DC

+

–

2.3.3 Description of the outputs

The output has two switched semiconductor outputs A and B. The incoming

supply is fed or looped through to the next module via terminals “+” and “–“.

2.3.4 Assembly and installation

The device is solely intended for operation in the Room Controller Basis

Device. It can be snapped into any module slot. The mounting position can

be selected as required.

ABB i-bus

®

EIB / KNX

Application and planning

3 Application and

planning

3.1 The three operating

modes

It is possible to choose between three operating modes for each output:

1. Switch actuator

This function is used for normal switching e.g. of lighting. The output is

controlled directly via the object “Switch”. A large number of additional

functions are possible. See under section 3.2 for further explanations.

2. Heating actuator

In this function, the output is used to control heating valves e.g. in an

individual room temperature control system. A room thermostat sends a

control value which the output uses to control the valve (e.g. as PWM or

2-step control). See under section 3.3 for further explanations.

3. Fan coil control

This function is used to control a fan coil unit for air conditioning in a

room e.g. in an individual room temperature control system.

The function is as follows: An external room thermostat determines the

setpoint value (0…255). The fan speed and the setpoint value of the fan

coil unit are to be controlled depending on this setpoint value. Several

outputs are required for control and the output therefore controls further

outputs (“Slaves”) as a “Master” via the bus. The master-output itself

controls fan speed 1. See under section 3.4 for further explanations.

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®

EIB / KNX

Application and planning

3.2 Operating mode:

“Switch actuator”

3.2.1 Time functions

Staircase lighting function

Output

Object “Switch” “1”

T

ON

“1”

ON

OFF

Once the staircase lighting time T

ON

has elapsed, the output automatically

switches off again. With each “1” telegram, the time restarts (“retrigger

function”).

A warning function enables the user to be warned in good time before the

staircase lighting time elapses. The warning can be carried out by switching

the output on/off briefly or by sending an object.

Output

Object

“Warning stairc. lighting”

T

ON

“1”

ON

OFF

T

WARN

The output is switched off briefly for the period “T

WARN

” before the staircase

lighting time “T

ON

” elapses and the object “Warning stairc. lighting” is sent.

Push button LEDs for example can flash to indicate a warning.

With pumping, the user can adapt the staircase lighting time to the current

requirements by pressing the push button several times in succession. The

maximum duration of the staircase lighting time can be set in the

parameters.

Output

Object “Switch” “1”

3 x T

ON

“1”

ON

OFF

“1”

If the device receives a further ON command when the staircase lighting is

switched on, the staircase lighting time is added to the remaining period. In

this case, the time does not restart (no retrigger).

Application: Lighting control on staircases, monitoring of telegrams

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®

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Application and planning

ON/OFF delay

The ON/OFF delay causes the output to be switched on or off with a delay.

Output

Object “Switch” „1“

T

D0

“0”

ON

OFF

T

D1

After a switching command, the delay period T

D1

or T

D0

starts. Once it has

elapsed, the output carries out the switching command.

Note: If the device receives an OFF command during the ON delay

period T

D1

, the ON command is rejected.

Application: e.g. dynamic lightscene, in which luminaires are connected in

sequence

Flashing

The output can flash by switching on and off periodically.

Output

Object “Switch” “1”

T

OFF

“0”

ON

OFF

T

ON

The ON time (T

ON

) and OFF time (T

OFF

) during the flashing can be

parameterised.

Note: Please note that the maximum number of switching operations

is limited for the Switch Actuator Module SA/M 2.6.1. The

number of switching operations is unlimited for the Electronic

Switch Actuator Module.

3.2.2 Logic

With the “Logic” function, it is possible to link the switching of the output with

certain conditions. Two logic objects are available:

Output

Object “Logical

connection 1”

Object “Switch”

Object “Logical

connection 2”

Logic

operation

Logic

operation

First, the object “Switch” is evaluated together with the object “Logical

connection 1”. The result is linked with the object “Logical connection 2”.

The following logic functions are possible:

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®

EIB / KNX

Application and planning

Object values

Logic

function

Switch Logical

connection

Result

Explanation

AND 0

0

1

0

1

0

1

0

1

The result is 1 if both input values are

1.

OR 0

0

1

0

1

0

1

0

1

The result is 1 if one of the two input

values is 1.

XOR 0

0

1

0

1

0

1

0

1

0

The result is 1 if both input values

have a different value.

Gate

function

0

1

0

1

0

1

-

0

-

1

The object “Switch” is only let through

if the gate is open. Otherwise the

receipt of the object “”Switch” is

ignored.

Example shown here:

Disable if “OFF (0)”

The logic function is recalculated each time an object value is received.

Example: The gate function is parameterised with “Disable if OFF (0)”.

The logic object has the value “0”.

The object “Switch” receives the value “1”

 No reaction of the output.

Logic object receives the value “1” (gate open)

 No reaction of the output

Object “Switch” receives value “1”

 Output switches on.

Application: Disable the switching of the lighting.

Only switch the lighting on under certain conditions.

3.2.3 Presets

A parameterisable switching state can be retrieved with the help of presets.

Lightscenes can therefore be implemented for example.

Retrieve preset

Short push

button action

Actuator 1 Actuator 2 Actuator 3

OFF ON ON

Retrieve preset

Fig. 1: Controlling light scenes via presets

Switching states (“preset values”) can be retrieved via the object “Call preset

…”. A maximum of 4 preset values are available for each output:

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Application and planning

Action Telegram

Retrieve preset1 Object “Call preset 1/2” = 0

Retrieve preset2 Object “Call preset 1/2” = 1

Retrieve preset3 Object “Call preset 3/4” = 0

Retrieve preset4 Object “Call preset 3/4” = 1

Store preset

Long push

button action

Actuator 1 Actuator 2 Actuator 3

OFF ON ON

Set preset

Fig. 2: Storing the current output state as the new preset value

The current switching state is stored as a new preset value via the object

“Set preset …”. The user can thus adapt a lightscene for example. The

presets are stored via the following values:

Action Telegram

Store preset1 Object “Set preset 1/2” = 0

Store preset2 Object “Set preset 1/2” = 1

Store preset3 Object “Set preset 3/4” = 0

Store preset4 Object “Set preset 3/4” = 1

Special function: Restore state

A useful special function can also be assigned to preset1 and preset3, which

is used to recreate the brightness level which was present before retrieving

preset2 or preset4. The following diagram clarifies this:

Actuator 1 Actuator 2 Actuator 3

OFF ON ON

Old state

OFF ON

Retrieve preset

(e.g. preset2)

ON

OFF ON ON

Restore old state

(e.g. preset1)

Fig. 3: Restoring the old brightness state (example)

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®

EIB / KNX

Application and planning

This function can be used for example after a presentation to restore the

lighting to the state it was in beforehand.

3.2.4 8-bit scene

Short push

button action

Actuator 1 Actuator 2 Actuator 3

OFF ON OFF

Retrieve scene no. <xx>

Fig. 4: Retrieve scene, 8-bit scene

In the 8-bit scene, the push button gives the actuator the instruction to

retrieve a scene. The scene is not stored in the push button but in the

actuator. All the actuators are addressed via the same group address. A

single telegram is sufficient to retrieve the scene.

A scene number is sent in the telegram value which must match the scene

number in the parameters of the actuator.

After a long push button action (for example), the actuators receive a save

command which causes them to store the current value issued by the

actuator as a new scene value.

Up to 64 different scenes are managed via a single group address. An 8-bit

scene telegram contains the following information:

- Number of the scene (1...64)

- Retrieve scene / store scene

3.2.5 Threshold function

The threshold function monitors a 1-byte or 2-byte value. As soon as this

value exceeds or falls below a threshold value, the output can be switched.

The threshold values can be interpreted as hysteresis values:

Threshold values are hysteresis values

Output

Object “Threshold

value”

ON OFF

Upper threshold

Lower threshold

ON

OFF

When the value exceeds the upper threshold or falls below the lower

threshold, the output is switched.

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®

EIB / KNX

Application and planning

Threshold values are not hysteresis values

Output

Object “Threshold value”

OFF ON

Upper threshold value

Lower threshold value

ON

OFF

ON

OFF OFF ON

When the value exceeds or falls below any threshold value, the output is

switched.

Note: If the object “Threshold value” receives a value which does not

exceed or fall below any of the threshold values compared to

the old value, no switching operations are triggered.

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Application and planning

3.2.6 Function diagram

The following diagram shows in which order the functions are processed:

Switching command

Evaluate logic operation

Evaluate time function

Evaluate forced operation

Evaluate cyclic monitoring

of object “Telegr. switch”

Evaluate relay operation

Objects

- “Switch”

- “Call preset”

- “8-bit-scene”

- “Threshold value”

Objects

- “Log. connect. 1”

- “Log. connect. 2”

Cyclic monitoring of

object “Telegr. switch”

Object

“Priority / forced op.”

UND

ODER

XODER

Tor

Staircase lighting function

ON/OFF delay

Flashing function

Fault mode when object

“Telegr. switch” is omitted

Forced operation active /

inactive

Normally closed contact /

normally open contact

Switch relay

Command input:

Fig. 5: Interdependence and priority of the functional groups

Example: On receipt of a “Logical connection” object, the linking logic is

evaluated first of all. The result is analysed by the time function;

when the staircase lighting function is active, this can result in

the staircase lighting being switched on.

The forced operation has the highest priority as it is evaluated last of all the

functions.

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Application and planning

3.3 Operating mode:

“Heating actuator”The

“Heating actuator” function is normally used to control an electrothermal

valve drive. The output receives its control value from a room thermostat.

The electrothermal valve drive can be triggered via two-step control or pulse

width modulation. When pulse width modulation is used, the control is

carried out via a variable mark-to-space ratio. The following example clarifies

this:

t

0%

100%

40%

t

ON

t

OFF

T

CYC

Fig. 6: Pulse width modulation (example)

During t

ON

, the valve is triggered with OPEN (“ON phase”). During t

OFF

the

valve is triggered with CLOSE (“OFF phase”). Due to t

ON

= 0.4 x T

CYC

, the

valve is set at approx. 40%. T

CYC

is the so-called PWM cycle time for

continuous control.

Important: A pulse width modulation leads to frequent switching of the

outputs. Consider the limited number of switching cycles for

standard switch actuators! The use of electronic switch

actuators is preferable in each case.

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Application and planning

Special functions

The actuator can trigger specific special positions during “Forced

positioning”, “Valve purge” and “Safety position”. The following diagram

provides an overview:

Start

Is forced

positioning

active?

Is valve

purge

active?

Is fault

mode

active?

Type of

control

Trigger forced

postioning

Valve opened to

maximum for

duration of valve

purge

Trigger safety

position

Output follows

object “Switch”

Control acc. to

object “Control

value (PWM)”

yes

no

1 byte 1 bit

Fig. 7: Prioriy of the special functions (flow chart)

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