SBC PCD7.L6xx room controller Owner's Manual

Manual

PCD7.L6xx room controllers

Document 26/854; Edition EN09 │ 2013-09-16

Saia-Burgess Controls AG

0 Content

0 Content

0.1

0.2

0.3

Document History ........................................................................................... 0-3

New functions and hardware layout changes ................................................. 0-4

Brands and Trademarks .................................................................................. 0-6

1 Overview

1.1

1.2

Room automation solution with SBC Serial S-Net or L on

W orks

®

.................. 1-1

Possible uses for the PCD7.L6xx series ......................................................... 1-3

1.2.1 Standalone control with no communication .................................................... 1-3

1.2.2 Standalone control with communication to the automation station ................. 1-3

1.2.3 External regulation and control via the automation station ............................. 1-4

1.3 Application overview for the PCD7.L6xx series ............................................. 1-5

1.3.1 Operating modes ............................................................................................ 1-6

1.3.2 Commissioning ............................................................................................... 1-6

1.3.3 Device overview and technical details of the room controller ......................... 1-7

1.3.4 Phased-out room controllers ........................................................................... 1-8

2 Commissioning instructions

2.1

2.2

Safety instructions ........................................................................................... 2-1

Assembly instructions ..................................................................................... 2-2

3 Function

.............................................................................................. 3-1

3.1.1 Functions, commissioning .............................................................................. 3-1

3.2 Functions, settings .......................................................................................... 3-5

3.2.1 Functions, settings, room control unit ............................................................ 3-6

3.2.2 Functions, settings, application ...................................................................... 3-7

3.2.3 Functions, settings, hardware ........................................................................ 3-9

3.2.4 Functions, settings, control parameters ......................................................... 3-13

3.3 Functions, light and shade .............................................................................. 3-17

3.3.1 Functions, settings, light ................................................................................ 3-17

3.3.2 Functions, settings, blinds .............................................................................. 3-18

3.4 Functions, control ........................................................................................... 3-19

3.4.1 Operating mode .............................................................................................. 3-19

3.4.2 Detecting a presence ...................................................................................... 3-20

3.4.3 Normal state, Window contact ........................................................................ 3-20

3.4.4 Fan .................................................................................................................. 3-21

3.4.5 Change-over ................................................................................................... 3-22

3.4.6 Firmware version V1.11 Dew point ................................................................ 3-23

3.4.7 Configurable LCD display functions for room controller PCD7.L643/644 ....... 3-26

3.4.8 Temp. measurement with alternative external temperature sensor ................ 3-27

3.5 Functions, control ........................................................................................... 3-28

3.5.1 Set-point .......................................................................................................... 3-28

3.5.2 Control ............................................................................................................ 3-29

3.5.3 Control operating mode .................................................................................. 3-29

3.5.4 Limits for heating and cooling* ........................................................................ 3-30

Content

0

Manual for PCD7.L6xx room controllers │ Document 26 / 854 EN09 │ 2013-09-16

0-1


3.6 Functions, actual values ................................................................................ 3-31

3.6.1 Saia PG5

®

FBox inputs “L60x Room” .............................................................. 3-31

3.6.2 Saia PG5

®

FBox outputs "L60x Room" ........................................................... 3-32

3.7 Functions, manual output control .................................................................... 3-33

3.7.1 Concept ........................................................................................................... 3-33

3.7.2 L60x AO, analogue outputs ............................................................................. 3-33

3.7.3 L60x AO, definition of output ........................................................................... 3-33

3.8 Functions, master/slave .................................................................................. 3-35

3.8.1 Concept ........................................................................................................... 3-35

3.8.2 Room, master/slave parameters ..................................................................... 3-35

3.9 Functions, light and shade .............................................................................. 3-36

3.9.1 Concept ........................................................................................................... 3-36

3.9.2 L60x Light, light control ................................................................................... 3-36

3.9.3 L60x Sunblind, blind control ............................................................................ 3-37

4 Example applications

5 Register usage

5.1

5.2

Registers, configuration .................................................................................. 5-1

Registers, actual values .................................................................................. 5-9

6 Technical data

6.1 Room controllers with SBC Serial S-Net ......................................................... 6-1

6.1.1 Performance data for SBC Serial S-Net ......................................................... 6-1

6.1.2 Electrical load on SBC Serial S-Net ................................................................ 6-2

6.1.3 Technical overview of room controllers PCD7.L600 - .L604 ........................... 6-3

6.1.4 Dimensions of room controllers PCD7.L600 - .L604 ...................................... 6-5

6.2 Type description .............................................................................................. 6-6

6.2.1 Technical data for PCD7.L600 ........................................................................ 6-6





6.3 Parameterisation tools .................................................................................... 6-17

6.3.1 Manual parameterisation tool PCD7.L679 ...................................................... 6-17

A Annex

A.1 Icons ............................................................................................................... A-1

A.2

A.3

Order codes .................................................................................................... A-2

Address of Saia-Burgess Controls AG. ........................................................... A-4

Content

0


0-2


0.1

Content

Dokumenthistory | New funktions

Document History

Date

2007-07-13

2007-12-13

2008-10-01

2008-11-15

2009-02-25

2009-06-22

Version

E1

E2

EN3

EN4

EN5

EN6

2009-02-25 EN07

2011-06-08 EN09

2013-09-16 EN09

Changes Remarks

Document created

Chapter 1 "Overview" chapter added

Chapter 7 Additions

Chapters 4 Corrections and 6

Section 4.6

Section 7.2.4

Parameter (0 ↔ 1) for Saia PG5 changed

Corrections to PCD7.L603

®

FBox-

All sections FW 1.08, PCD7.L604 added, "Introduction" section removed, pin allocation layout modified

Section 3 Definition of register 10 value 2 corrected

Section 3

Section 5

Dew point confuguration (Register 114)

Dew point contact polarity

New Logo and new company name

0


0-3


0.2 New functions and hardware layout changes

Comparison of layout (old against new)

New layout L600/L601 V1.2

A B

/D D

Network

Valve

Option

0-10V 2mA

Y3 Y4

1 2

10

Aux

Input

9

E2

3

8 7 6

E1

Window

Contact

K1 K2

S P1

230V 800mA

Y1

~

N Y2

E3

N

5V

V1

R

Temp.

Sensor

Poti Aux

0-10V

PCD7.L6xx

Valve

1/2

LED

Fanspeed

3 steps

Serial

Bus

Service

Pin

230V

3A

~

T:5 to 45°C

V2 V3

Power Supply

230V

L

~

N

1

5

2

4

3

3

4

2

5

1

6

RC

7 L N

Old layout L600/L601 V1.1

Content

Brands and Trademarks

0

/D D E2 E1 S P1 E3 5V R

S-Bus

RS485

Aux

Input

Window

Contact

Temp.

Sensor

PCD7.L60x

Electric

Heat

Valve

Option

Valve

230V

K1 K2

230V

2kW

Y3

0-10V

2 mA

Y4

New layout L603 V1.2

Y1 N

230V

800mA

Y2

Fanspeed

3 steps

N

LED

230V

V1 V2 V3

230V

3A

RC

Serial

Bus

Service

Pin

Power Supply

L

230V

N

A B 10 9 8 7 6 5 4 3 2 1 RC

/D D

Network

Valve

4

E2

Aux

Input

Valve

3

0-10V 2mA

Y3

0-10V 2mA

24V Y4 24V

1 2 3

1 2 3

E1

Window

Contact

S P1 E3 5V R Serial

Bus

Service

Pin

Temp .

Sensor

Poti Aux

0-10V

LED

Y1

PCD7.L603

Valve

1/2

Y2

T:5 to 45°C

Electric

Heat 230V

6A

~

Fanspeed

3 steps

K1 K2 L

230V

3A

~

V1 V2 V3

Power Supply

24V

~

24V

1 2 3

1 2 3 4 5 6


0-4


Old layout L603 V1.1

/D D

S-Bus

RS485

E2

Aux

Input

E1

Window

Contact

Valve

3/4

0-10V 2mA

Y3 Y4

Valve

1/2

24V 800mA

Y1 Y2

S P1 E3 5V R

Temp.

Sensor Poti

Aux

0-10V

PCD7.L603

Electric

Heat 2kW

Fanspeed

3 steps

K1 K2 L

LED

230 V

3A

V1 V2 V3

RC

Serial

Bus

Service

Pin

Power

24V AC

24V

New controller

PCD7.L604 room controller with 2 Triac outputs, 2 0…10 V outputs incl. 24 VAC supply (7W), relay for electric heating and 3-step fan control (230VAC)

A B 10 9 8 7 6 5 4 3 2 1 RC

/D D

Network

Valve

4

0-10V 2mA

Y3 24V

1 2 3

E2

Aux

Input

Valve

3

0-10V 2mA

Y4 24V

1 2 3

E1

Window

Contact

S P1 E3 5V R

Serial

Bus

Service

Pin

1

Temp.

Sensor

2 3

Poti Aux

0-10V

1

LED

Y1

PCD7.L604

Valve

1/2

Y2

Electric

Heat 230V

10A

~

Fanspeed

3 steps

K1 K2 N

230V

3A

~

T:5 to 45°C

V1 V2 V3

Power Supply

230V

L

~

N

2 3 4

L N

New functions for FW version 1.08:

• Indication of controller type and firmware version in the Setup Saia PG5

®

(see section 3.4)

FBox

• Extended watchdog functions (see section 3.4)

• Configurable display functions for LCD display PCD7.L644 (see section 3.4)

• Threshold setting for fan step 1 (see section 3.2.4)

• Limit on max. output value for heating and cooling (see section 3.5)

• Terminal S usable as optional additional digital input (see section 3.4)

• Temperature measurement with external temperature sensor possible

(see section 3.4)

Content

New funktions

0


0-5


Content

Brands and Trademarks

0.3 Brands and Trademarks

Saia PCD

®

and Saia PG5

® are registered trademarks of Saia-Burgess Controls AG.

Technical modifications are based on the current state-of-the-art technology.

Saia-Burgess Controls AG, 2013.

©

All rights reserved.

Published in Switzerland

0


0-6


Overview

Room auiomation solution

1 Overview

1.1 Room automation solution with SBC Serial S-Net or L on

W orks

®

The PCD7.L6xx room controllers, based on SBC Serial S-Net, LonWorks

BACnet

®

®

or

MS/TP networks, are mainly used for HeaVAC applications with FanCoil devices, radiator/cooled ceiling combinations or VVS systems. The extension module for light and shade allows the electrical systems to be easily integrated in to the room automation solution. Customer-specific operating concepts can be produced with the wide range of room control units. these room control units are connected to the room controller by cable, infra-red or wireless receivers.

1

Manufacturer-independent room control units

Control units with L on

W orks

®

communication can be connected directly to the

LON room controllers. To connect EnOcean room components there is a receiver module that can be connected directly to the room controller via the internal RC bus.

If the user control requirements should still not be met in terms of form, design or functionality, the system integrator can use the open interfaces to the automation station or analogue room control units to combine the room controller with third-party systems.


1-1


Overview

Room auiomation solution

Features:

■ Wide range of uses with parameter-driven application programs

■ Room controllers for communication via SBC Serial S-Net, L on

W orks

®

or

BACnet

®

MS/TP*

■ Expansion modules for electrical systems

■ Wide range of analogue, digital and mobile room control units

■ Options to combine the basic controller with room control units from third-party providers

1

PCD7.L62x

PCD3

M

T

M

P

T

S-Net

L on

PCD7.L610 … 615

W orks

®

®

MS/TP

Interna l RC b us

* in preparation


1-2


1.2 Possible uses for the PCD7.L6xx series

1.2.1 Standalone control with no communication

The controller regulates the room temperature without any connection to a bus system. Control is handled entirely by the individual room controller based on the specified default parameter settings.

The outputs are driven by a control algorithm depending on the measured temperature.

The default set-point setting of 21 °C can be modified by the set-point control (according to the device).

P

T

M

Overview

Possible uses

1

1.2.2 Standalone control with communication to the automation station

The controller is run as a slave station with a unique Bus address within a SBC

Serial S-Net, L on

W orks

®

or BACnet

®

network.

Control is handled by the individual room controller with its own control algorithm.

The control functions - time or event-driven - are passed to the individual room controller by the automation station via suitably configurable function objects or network variables. This supports individual parameterisation and operation of the room controller. The device, and hence the control function, can also be influenced at any time via the Saia PCD

®

master station.

For parameterisation, there is a function object available in the library for every room controller type. In the case of open network connections, this is handled via network variables or network objects.

P

SB

C S eria l S-

Lo nW

Ne t, ork s

®

M

, BA

Cne t

®

T


1-3


1.2.3 External regulation and control via the automation station

The Saia PCD

®

master station handles all regulation and control tasks. The room controller itself is only used as a remote input / output unit. Regulation and control can then be adapted to requirements in a very flexible way.

For parameterisation, RIO function objects are provided in the room controller library.

SB

C S eria l S-

RIO

P

T

Ne

Lo nW t, ork s

®

M

, BA

Cne t

®

Overview

Possible uses

1


1-4


Overview

Application overview

1.3 Application overview for the PCD7.L6xx series

Control of all standard heating/cooling systems, such as

■ Radiator / cooled ceiling combinations

■ Systems with a variable volume stream (VVS)

■ Fancoil devices

■ Communication-friendly with SBC Serial S-Net or L on

W orks

■ Control of light and shade with optional expansion modules

®

, or BACnet*

■ Wide range of analogue, digital and mobile room control units

Fan-Coil application (2-pipe) for heating, cooling or change-over

Application Room controller

Fan Valve Valve cooling

PCD7.L600 3-step relay



230 V PWM

230 V 3-point

230 V PWM

230 V 3-point

0…10 V

24 V PWM

24 V 3-point

0…10 V

-

-

Electric heating

Relay up to 2 kW

Relay up to 2 kW

Relay up to 2 kW

Fan-Coil application (4-pipe) for heating, cooling


Fan


Valve Valve cooling


230 V PWM 230 V PWM Relay up to 2 kW



230 V PWM

0…10 V

24 V PWM

0…10 V

230 V PWM

0…10 V

24 V PWM

0…10 V

Relay up to 2 kW

Relay up to 2 kW

VAV, cooled ceiling and radiator applications for heating and cooling


Fan Valve Valve cooling


VAV

Kühldecke

+

Radiator




230 V PWM 230 V PWM Relay up to 2 kW

230 V PWM

0…10 V

230 V PWM

0…10 V

Relay up to 2 kW

24 V PWM

0…10 V

24 V PWM

0…10 V

Relay up to 2 kW

Light and shade

Application Expansion Light

PCD7.L620 2 sky lights

PCD7.L621 2 sky lights

PCD7.L622 -

PCD7.L623 -

Shade

-

1 × up/down,

230 VAC

3 × up/down,

230 VAC

2 × up/down,

24 VDC

* in preparation

1


1-5


Overview


1.3.1 Operating modes

The 4 operating modes are set according to presence detection, the window contact and the instructions from the communication master

Comfort

Standard operating mode for when the room is occupied

Standby

Reduced operating mode used when the premises are temporarily unoccupied.

Reduced

Reduced operating mode when the premises are unoccupied for a long period of time.

Frost protection

The heating control is activated when the temperature drops below 8 °C (e.g. when a window is open)

1

1.3.2 Commissioning

When the room controller is used in a SBC S-Bus network, configuration is either by the Saia PCD

®

PCS Master, the Saia PG5

®

programming tool, or dedicated PC software. Practical function blocks (FBoxes) simplify commissioning.

Where the room controller is used within a LON network, the configuration is set via a

L on

W orks

®

plug-in.

The room controller satisfies the user profile "FAN Coil Unit Object (8020)"L on

M ark

®

.


1-6


Overview


1.3.3 Device overview and technical details of the room controller

SBC

Serial S-Net

PCD7.L600 PCD7.L601

PCD7.L603

PCD7.L604

1)

L on

W orks

®

1

PCD7.L610 PCD7.L611 PCD7.L614

1)

PCD7.L615

1)

BACnet

®

MS/TP

PCD7.L681

1)

Analogue inputs

Digital inputs

Analogue outputs

Digital outputs

Relay outputs

Voltage supply

Current onsumption

Protection type

Dimensions

Temperature range

Temperature sensor NTCA 010-040,

Set-point potentiometer 10 kΩ | linear,

0…10 V

Main contact (e.g. window contact)

Auxiliary contact selectable by user

(e.g. presence, condensation, change-over…)

—

2 × Triac 230 VAC (10 mA…800 mA)

2 × 0…10 VDC

2 × Triac 24 VAC (10 mA…800 mA)

3-step fan (4 connections) 230 VAC (3 A)

Relays for electric heating: max. output 2 kW

230 VAC with electronic fuse approx. 100 mA

IP 20

132 × 95 × 45 mm

5…45 °C, 80% RH

24 VAC with electr. fuse

2

—

—

2

2

2

4 × Triac 230 VAC

(10 mA…800 mA)

—

2

230 VAC with electr. fuse

The max. ouput power is 7 VA. For bigger valve loads, use the PCD7.L603

Communication with SBC Serial S-Net

Interface

Transmission rate

Protocol

RS 485, max. cable length 1 200 m, 128 .L60x room controllers on one Saia PCD

®

Master, without repeater*

4 800, 9 600, 19 200, 38 400, 115 200 bit/s with automatic detection after restart

SBC S-Bus data mode (slave)

Addressing at commissioning time via SBC S-Net or an external manual control device.

Bus terminal resistors to be installed on site - integrated with L600, L601 and L604, software-activated

Communication with L on

W orks

®

Interface

Transmission rate

Topology

Number of LON nodes

FTT 10a

78 kBit/s

Free topology max. 500 m; bus topology max. 2700 m max. 64 per segment, over 32 000 in a domain / according to L on

M ark

®

8020 profilet

Communication with BacNet

®

MS/

TP

2)

Interface

Transmission rate

Protocol

RS 485, max. cable length 1 200 m, 128 .L68x room controllers, without repeater

2)

9 600, 19 200, 38 400, 78 600 bit/s - factory setting 38 400 bit/s

BacNet

®

MS/TP

1) in preparation

2) In mixed operation with RS 485 standard transceivers, note the minimum impedance


1-7


Overview


1.3.4 Phased-out room controllers

Item Active since

Not recommended for new projects

Phased out (production ceased) valid until / Commercial Info

PCD7.L600

April 2007

PCD7.L601

April 2007

PCD7.L602

PCD7.L603

Sep. 2008

PCD7.L604

June 2009

PCD7.L610

April 2007

PCD7.L611

April 2007

PCD7.L614

June 2009

PCD7.L615

June 2009

PCD7.L681

July 2009

Aug. 2008

1


1-8


2

2.1

Commissioning instructions

Safety instructions


Safety instructions

To guarantee safe operation, the PCD7.L6xx devices should only be operated by qualified staff according to the details given in the operating instructions and in compliance with the technical data. Qualified staff are people familiar with the assembly, commissioning and operation of the devices and suitably trained for their job.

When using the system, the legal and safety regulations applicable to the specific type of use must also be observed.

The room controllers have undergone a comprehensive pre-delivery inspection, ensuring that they left the factory in perfect condition.

Before commissioning, the devices should be checked for damage arising from incorrect transport or storage.

Removal of the identification numbers will invalidate the warranty.

Please ensure that the limits specified in the technical data are not exceeded. Failure to do so may result in defects in the modules and the perpiherals connected to them.

We can accept no responsibility for damage arising from improper deployment and use.

The plugs must never be inserted or removed with the power on. When installing or de-installing the modules, all components must be switched off.

Please read this manual carefully before assembling and commissioning the modules. This manual contains instructions and warnings that must be observed to assure safe operation.

2


2-1


2.2


Assembly instructions

Assembly instructions

■ The individual room controllers must only be installed and connected by an expert in accordance with the wiring diagram. Existing safety standards must also be observed.

■ The individual room controller can only be used to regulate the temperature in dry, closed rooms. The maximum permissible relative humidity is 90%, noncondensing.

■ Precise temperature measurement is subject to certain requirements as to the positioning of the temperature sensors. This applies both to the room control device itself and to the externally connected temperature sensor.

■ The device can be mounted directly on the wall or flush-mounted within a pattress box.

Avoid direct exposure to sunlight or light from powerful lamps.

2

Do not install next to windows and doors because of draughts.

Do not install next to heat sources such as heaters, refrigerators, lamps etc.

Please ensure

● that all wires are screwed down tight

● that the connecting plug is properly engaged

● that the ventilation slots are placed above and below (positioning)

● that the device is mounted horizontally.

Mounting Removal

1

Assembling the housing base

2

Wiring to the device


3

Unlocking

4

2-2


Function

Communication

3 Function

3.1 Communication

3.1.1 Functions, commissioning

Automatically detecting the SBC Serial S-Net baudrate

After the current is switched on, the room controllers attempt to detect the baudrate on the S-Bus for themselves. During this time, the controller does not function. For this, it is necessary for the communication master to send telegrams on a cyclical basis. Where a Saia PCD

®

is used, this task is handled by the "Setup" FBox from the "PCD7_L60x room controller" group. Once the room controller has detected the baudrate, it stores this information. After a restart, it will begin by setting this baudrate. Only when the room controller cannot establish any communication with the last used baudrate does it restart baudrate detection.

3

The picture shows a SASI interface initialisation and the Setup FBox.

The activated Setup FBox makes cyclical attempts to establish a connection to station address 252 (see service pin on the room controller). As the service pin is not normally activated on any room controller, station address 252 is not present. The

LED for the SASI S-Bus master FBox is then red.

After successful commissioning of the room controllers, it is therefore advisable to deactivate the Setup FBox via the "Enable" input. If proper communication is established, the LED for the SASI S-Bus master FBox should stay green.


3-1


Function

Communication

Setting the SBC S-Bus service pin

When the "Service pin" button is pressed, the room controller enables an additional station address 252 for a minimum of 15 minutes. The controller can use this address to communicate with the master independently of all other software components.

Provided that the room controller is receiving telegrams via this address, the timer for time monitoring is restarted each time. Only when the timer expires (after 15 minutes) is station address 252 deactivated.

Please note that two controllers cannot be activated at the same time via the service pin.

3

To terminate the timer prematurely, register 60 can also be manually set to 0, e.g. via the Setup FBox, a communication FBox or the debugger.


3-2


Function

Communication

Setting the station address

The station address can be parameterised via the Setup FBox or directly in register

110.

Example: Addressing using a Saia PCD

®

and FBoxes

- Activate station address 252 on the room controller by pressing the

"service pin" button

- In the case of correct S-Bus communication, the Connect output on the FBox will be 'high'.

- Open Setup FBox, Adjust window.

- If communication is "online", enter a new station number, copy to the

Saia PCD

®

and click the "Setup" button.

3

Example: Addressing with a Saia PCD

®

via the debugger

This requires a gateway to be parameterised in the Saia PCD

® hardware settings and the SASI master FBox.

- Activate station address 252 on the room controller by pressing the

"service pin" button

- C onnect Sbus 252.

- Write Register 110 - new station number.

- Write Register 60 - 0.

Setup_En


3-3


Function

Communication

Automatic configuration

The room controllers can be configured automatically via the Config and Room

FBoxes. After every restart, a flag is passed to the Room FBox to tell it that the controller has been restarted. The FBox then checks that the configuration matches the associated Config FBox. If this is not the case, all the control parameters are copied over automatically from the Config FBox to the room controller. This option reduces commissioning to the address-setting operation. This means that after a device replacement in the course of support work, functionality can be reliably restored by the Saia PCD

®

alone.

See also the description of the individual functions in the following sections.

3


3-4


3.2

Function

Functions, settings

Functions, settings

The L60x room controllers have an integrated, parameterised control program. The parameters can be used to define the behaviour of the individual functions such as the room control unit, hardware, regulation and light and shade.

The settings can be entered automatically or manually via the "Config" FBox, or set via individual S-Bus registers. This constitutes configuration using the Config FBox.

The associated registers and their values are shown in tables in the appropriate places.

Use of the "Config" FBox

3

Enable

With the "from station address" and "to station address" parameters, a range of

S-Bus addresses can be defined for which the subsequent configuration applies.

Where automatic configuration is used, the Config FBox will automatically copy the configuration to all stations in the range.

If automatic configuration has not been activated, the configuration can be written manually by pressing the "Write" button on the controller with S-Bus address "from station address", " to station address".

The current contents of a controller can be displayed in the online parameters by entering the S-Bus address in the "from station address" parameter and then clicking on the "Read" button.

All parameters can also be written individually as registers without using the Config

FBox.

Enable


3-5


3.2.1 Functions, settings, room control unit

Function

Functions, settings

Control unit used (register 102)

Where PCD7.L63x analogue room control units are used, the "analogue" parameter must be selected. With control units with a serial interface, "digital" must be set.

FBox entry

“

L64x / L66x digital

”

“

Analogue

”

Value Meaning

0 Room control units with serial interface

1 Analogue room control units connected to analogue inputs: S, GND, P1, 5 V and R. t

Value displayed on LCD (register 19)

The PCD7.L643, L644 and L662 room control units can show information about the controller on their display. This parameter defines the display.

Temp. PID blink

Temp. PID

Setpoint

FBox entry Value Meaning

"Light/SunBlind/FanSpeed" 0 active light or shade group

(where selected) or fan speed:

"Auto", 0, 1, 2 and 3

"Temperature”

„Temp. PID blink“

1

2

Room temperature measured at the room control unit

Room temperature used by the PI controller, blinkend

"Temp. PID"

"Setpoint"

3 Room temperature used by the PI controller

4 Room temperature setpoint used by the PI controller


3-6

3


Function

Functions, settings

IR remote control zone (register 1)

Addressing of mobile infrared remote control.

The display on the PCD7.L660 remote control can be used to set an IR zone (0…30).

In order for the controller to process commands from the IR remote control, this parameter must equal the IR zone set in the remote control itself. With parameter value == 0, commands are accepted from all IR zones.

Set-point step in K (register 104)

The room control unit can increase or decrease the room set-point for the controller in up to 6 steps. The absolute change in the set-point is defined by the number of steps set on the room control unit and this parameter for the difference per step.

Range of settings:

FBox 0 ... 1 P

Registers 0 ... 10 K/10

3

3.2.2 Functions, settings, application

Choice of application (register 9)

The regulation/control functions are dependent on the program selected. This register x. is used to define the program. The associated outputs Y1…Y4 are specified in the

"Hardware" section. All outputs not used by the function can be freely used for RIO

(remote input-output).

Application Description

V Fan, 3-step

Y1

Y2

Triac PWM output 0…100 %

Triac PWM output 0…100 %

Y3

Y4

P

Analogue 0…10 V output 0…100 %

Analogue 0…10 V output 0…100 %

Relay PWM output 0…100 %

Terminals

V1 to V3

Y1

Y2

Y3

Y4

K1/K2


3-7


Function

Functions, settings

Function

RIO

2-pipe H

2-pipe CO

Value Description of outputs

0 The internal regulation and control functions are disabled. All outputs are controlled via the RIO

FBox or via S-Bus registers.

1 2-pipe heating application.

2 2-pipe change-over application. Where Change-

Over input == 0, the controller is in heating mode, otherwise in cooling mode. (change-over register: 38)

Outputs

none

V, Y1(Y3)

V, Y1(Y3)

2-pipe C, El.H

2-pipe CO, El.H

4-pipe H/C

4-pipe H/C, El. H

3 2-pipe cooling application with electric reheating. V, Y1(Y3), K

4 2-pipe change-over application with electric reheating. Where ChangeOver input = 0, the controller is in heating mode, otherwise in cooling mode. (change-over register: 38)

V, Y1(Y3), K

V, Y1(Y3),

Y2(Y4)

5 4-pipe heating/cooling application. The heating valve is controlled via Y1(Y3), and the cooling valve via Y2(Y4).

6 4-pipe heating/cooling application with electric reheating. The heating valve is controlled via

Y1(Y3), the electric heating via relay contacts

K1/2 and the cooling valve via Y2(Y4). The electric heating works in sequence with the heating valve. (See control parameters)

V, Y1(Y3),

Y2(Y4), K

2-pipe H, Y2=Y1

2-pipe CO, Y2=Y1 8 2-pipe change-over application with 2 valves connected in parallel. The first valve is controlled via Y1(Y3), and the second valve via Y2(Y4).

2-pipe C, Y2=Y1

7 2-pipe heating application with 2 heating valves connected in parallel. The first heating valve is controlled via Y1(Y3), and the second heating valve via Y2(Y4).

Only Electr. heat

V, Y1(Y3),

Y2(Y4) ttV, Y1(Y3),

Y2(Y4)

9 2-pipe cooling application with 2 valves connected in parallel. The first valve is controlled via

Y1(Y3), and the second valve via Y2(Y4).

V, Y1(Y3),

Y2(Y4)

10 Electric heating application with relay contacts K1/2 | V, K

The application selected determines the correct settings for the valve outputs and the function set for input E2 (see "Settings, hardware").


3-8

3


3.2.3 Functions, settings, hardware

Function

Functions, settings

3

Choice of temperature sensor (register 13)

The controller can derive the room temperature for control purposes from 3 different sources.

“

FBox entry

“

Room control part

"

“S

Terminal

" via S-Bus

”

Value Meaning

0 The controller receives the room temperature from a digital room control unit.

1 The room temperature is measured at the analogue terminal S.

- Analogue room control unit

- External temperature sensor PTC 10C

2 The room temperature is passed to the controller via

S-Bus. (see register 30)

Correction temperature °K (register 8)

Offset for manual adjustment of temperature measurement. The parameter is only applicable if the temperature sensor is selected as "Room control part" or

"S Terminal".


3-9


Function

Functions, settings

Normal state, window contact (register 103)

The contact polarity of the window contact can be selected from normal (closed) or open.

FBox entry

“closed”

“open”

Value Meaning

0

1

When the window is closed, the window contact is also closed.

When the window is closed, the window contact is open.

Contact at terminal E2 is (register 10)

This parameter can be used to configure the function of the second digital input. The status can be read independently of the configuration in register 70.

Contact closed = 0, Contact open = 1

3

“

“

“

FBox entry

“ without function”

Window contact”

ChangeOver”

Dew point”

“Ocuppancy detector”

Value Meaning

0 The contact has no effect on the control program. It can be used as a free digital input and processed via the Room FBox in the Saia PCD

®

.

1 The input is used as a second window contact. For this to work, both contacts E1 and E2 must be closed.

When one or both contacts are open, the controller moves into frost protection mode. The contact polarity should be noted here.

2 The input is used to switch between heating/cooling mode in change-over applications. When the contact is closed, the controller works in cooling mode, otherwise in heating mode.

3 An external dew point switch, together with the integrated dew point function, enables the controller to switch off the cooling function and prevent further condensation. When the contact is closed, cooling is blocked within the program. If the contact is open, cooling is enabled. (see register 39)

4 An external presence sensor enables the controller to switch into Comfort or unused/Standby mode. The internal presence status can be determined from register

35. For Comfort mode, the contact must be closed.


3-10


Function

Functions, settings

PWM cycle time for Y1/Y2 in s(register 11)

PWM cycle time for the valve outputs Y1 and Y2 in seconds. Where Y1 and Y2 are used as a 3-point output, this parameter holds the motor running time.

Range of settings:

FBox 20 ... 600 s

Registers 20 ... 600 s

3

PWM cycle time for K1/K2 in (register 12)

PWM cycle time for the relay contact output K1/K2 in seconds.

Range of settings:

FBox 60 ... 600 s

Registers 60 ... 600 s

Valve drive Hz - Kh (register 103)

The output signal from the heating/cooling controller can be routed either to the Triac outputs Y1/Y2 or to the 0…10 V outputs Y3/Y4. The 0…10 V outputs are available in the PCD7.L601, L603 and .L604 controllers. The unused outputs can be used for RIO via FBoxes or registers.

FBox entry

“PWM Y1/Y2"

“0…10 V Y3/Y4”

“(without function)”

“(without function)”

“3-point Y1/Y2”

Value Meaning

0 The outputs pass a PWM signal to the Triac outputs.

1 The outputs pass a constant signal to the

0…10 V outputs.

4 Use of Triac outputs as a 3-point signal for a 3-point valve. The valve run time is given by the "PWM cycle time" parameter in register 11.


3-11


Fan mode (register 101)

Fan control can fulfil other requirements independently of the application.

Function

Functions, settings

FBox entry

“Auto"

“Always step 1"

“Step 1 / occupied"

“Stop during heating"

“Stop during cooling"

Value Meaning

0 The fan is automatically controlled by the application, depending on the settings.

1 The fan always runs at step 1.

2 The fan runs at step 1 when a presence is detected.

3 The fan only runs in cooling mode.

4 The fan only runs in heating mode.

Minimum fan speed (register 63)

Maximum fan speed

3

There are many reasons for limiting fan speed across the board. The minimum fan speed can be parameterised independently of the maximum level. If both values are equal, the fan always runs at the selected step level. For values Min = 0 and Max = 3, the controller selects the steps automatically without any restrictions. This parameter defines the behaviour after a restart without any manual intervention. Cf. register 64

"

Fan

"

Range of settings:

FBox 0 … 3

Register decimal MAX¦MIN 00 … 33

Coasting time (x 20 seconds) (register 127)

When valve setting 0% is reached, the fan runs at step 1 for the specified time *

20 seconds.


3-12


3.2.4 Functions, settings, control parameters

Heating:

Set-point

Y

Cooling

Function

Functions, settings

Frost protection

V3, configurable

V2, configurable

V1, configurable

XW

3

Comfort

Standby

Reduced

Basic setpoint (register 37)

After a restart, the active control set-point (register 41) is initialised with the base setpoint value.

Range of settings: (default 22 °C)

FBox 10 … 35 °C

Registers 100 … 350 °C/10


3-13


Function

Functions, settings

Dead band comfort mode in °K (register 2)

Range of settings: (default 2 K)

FBox 0 … 20 K

Registers 0 … 200 K/10

Dead band standby mode in °K (register 3)


FBox 1 … 20 K


Dead band reduced mode in °K (register 4)


FBox 1 … 20 K


Cooling proportional band °C (register 5)


FBox 0.5 … 10 K


Cooling reset time in s ... (register 7)

Run-down time for the cooling PI controller in seconds. The value 0 blocks the integer portion.

Range of settings: (default 0 s)

FBox 0 … 1000 s

Registers 0 … 1000 s

Cooling limit % (register 140)*

After a restart, the maximum output value for cooling (CoolY) is limited.

Range of settings: (default 100 %)

FBox 0…100 %

Registers 0…100 %

3


3-14


Function

Functions, settings

Heating - proportional band °C (register 6)


FBox 0,5 … 10 K


Heating reset time n s ... (register 106)

Run-down time for the heating PI controller in seconds. The value 0 blocks the integer portion.

Range of settings: (default 0 s)

FBox 0 … 1000 s

Registers 0 … 1000 s

Heating limit % (register 141)*

After a restart, the maximum output value for heating (HeatY) is limited.


FBox 0…100 %

Registers 0…100 %

3

Threshold value fan stage 1 % (register 128)*

The controller switches between fan steps according to the heating or cooling output signal. If a Y signal exceeds the parameter value "Fan step 1", the controller switches the fan to step 1. If the Y signal drops below the parameter value of 5%, the controller switches back to step 1.


FBox 0…100 %

Registers 0…100 %

Threshold value fan stage 2 % (register 16)

Threshold for switching to the third fan step.

(For operation, see fan step 1, with the difference that the controller switches back to step 1 when the Y signal falls below the configured value - 5 %.)


FBox 0 … 100 %

Registers 0 … 100 %

* = Function available from firmware revision 1.08


3-15


Function

Functions, settings

Threshold value fan stage 3 % (register 17)

Threshold for switching to the third fan step.

(for operation, see fan step 2)


FBox 0 … 100 %

Registers 0 … 100 %

Threshold value deviation ... (register 18)

The electric heating is controlled via the relay contact output. if the heating output

Y2(Y4) reaches 100% and the variance (current set-point - current room temperature) exceeds this parameter, the electric heating is activated. In this case, the heating PI controller only works as a P-controller, to avoid long delays.


FBox 0 … 20 K


3

Coasting comfort mode x10min (register 0)

Where the controller is working in unused mode, a presence alert causes it to switch to Comfort mode for a configurable period of time. At the end of this time, the controller automatically returns to unused mode.

Range of settings: (default 0 => 0 min)

FBox 0 … 240 × 10 min

Registers 0 … 240 × 10 min


3-16


Function

Functions, light and shade

3.3 Functions, light and shade

The room controllers can be extended with up to 3 hardware modules (PCD7.L620 ...

PCD7.L623) for light and shade. In the full configuration, 4 separate relay outputs are available for lighting control, with 4 outputs for controlling blinds. All 4 light bands can be assigned to up to 4 independent groups of lights. A blind control comprises a relay for "Up" and one for "Down". Each of the 4 blind outputs can be used to control up to

4 independent groups of blinds. It is immaterial whether an output is used in multiple groups, or not at all.

The function is controlled via a room control unit with display (PCD7.L644), a mobile control unit with IR or wireless interface, and/or with the S-Bus master. Switching instructions are always given to the group and not to the individual output. This provides a high level of flexibility, e.g. on a North/South axis.

3.3.1 Functions, settings, light

3

Group definition (register 120)

Each of the 4 groups of lights is parameterised individually. The individual lighting outputs are mapped to a group of lights via a combination table. With 4 lighting outputs, there are up to 15 combinations.

- Each output may only be assigned to one group.

- If a group is to be left empty, the setting "none" should be selected.


3-17


3.3.2 Functions, settings, blinds

Function


Group definition (register 120)

Each of the 4 groups of blinds is parameterised individually. The individual outputs are mapped to a group of blinds via a combination table. With 4 outputs, there are up to 15 combinations.

- Each output may only be assigned to one group.

- If a group is to be left empty, the setting "none" should be selected.

3


3-18


Function

Functions, control

3.4 Functions, control

3.4.1 Operating mode

Heating:

Y

Set-point Cooling

V3, configurable

V2, configurable

V1, configurable

Frost protection

Comfort

Standby

Reduced

The room controller can work in one of the 4 operating modes "Frost protection",

"Reduced", "Standby" or "Comfort". The operating mode depends on the window contact, a preset value and the presence sensor.

XW

Window contact

If the window is open, the controller only works in "Frost protection" mode. For all other functions, the window must be closed. (See window contact)

Pre-selection

The Room FBox or register 36 can be used to select the operating mode.

3

Value Mode

0 "Comfort"

Description

The controller works permanently in "Comfort" mode.

1

2

"Reduced"

"Standby"

5 "Permanently reduced"

Where no presence is detected, the controller is in "Reduced" mode.

Where a presence is detected, "Comfort" mode is activated for a definable time. This time is configurable via the Config FBox or in register 0.

Where no presence is detected, the controller is in "Standby" mode.

Where a presence is detected, the operating mode switches to

"Comfort". Where no presence is detected any longer, "Standby" is reactivated.

The controller works permanently in "Reduced" mode. Presence detection is deactivated. This mode is suited e.g. to service activities where the room is occupied but the system does not need to be switched on.


3-19


Function

Functions, control

3.4.2 Detecting a presence

The room controller can detect a presence via an analogue or digital room control unit. Where built-in temperature sensors are used, presence can be indicated by a temporary short-circuit of the temperature sensor.

The digital input "E2 Aux Input" can also be configured as an input for external presence sensors.

3

3.4.3 Normal state, Window contact

For room control to work, the window must be closed. The controller has a digital input "E1 Window Contact". This contact polarity is configurable via the Config FBox or in register 105.

(Where window closed: 0=contact closed, 1=contact open)

The digital input "E2 Aux Input" can also be configured as a second window contact in the Config FBox or in register 10 = 1. This contact always works with "make contact" polarity, i.e. when the window is closed, the contact must be closed.


3-20


Function

Functions, control

3.4.4 Fan

The room controller regulates the fan speed according to the heating/cooling output signal, a pre-selected value and manual intervention via a digital or mobile room control unit.

Pre-selection via the Config and Room FBoxes enables a minimum and maximum speed band to be set. Any automatic or manual change can only happen within these limits. Where MIN and MAX are set to the same value (incl. OFF), the fan runs permanently at the defined step level. The MIN and MAX settings can be entered in the Room FBox or directly into register 64.

Fan speed ventilator level 3

MAX

MIN ventilator off

Config FBox

3

Room FBox, current MIN and MAX preset

The register contains both MAX and MIN settings, coded as decimals.

Register 63: Configuration at restart

Register 64: Current settings for ongoing operation

Example:

MAX = 3; MIN = 0:

MAX = 2; MIN = 2:

Register content 30

Register content 22

Room FBox, current fan speed

The current fan speed is determined by the controller in "Automatic" mode and can be seen in the Room FBox or in register 24. Manual intervention is possible via a room control unit, or communication is possible via a Room FBox or directly into this register. The last change will be effective at all times.


3-21


Function

Functions, control

Register 24

0

1

2

3

4

Step control

Ventilator:

Level 3

Level 2

Level 1

Stop

Fan off

Fan step 1

Fan step 2

Fan step 3

Fan steps adjusted automatically by the controller

Level 1 delayed

The system switches between steps automatically with no delay, until step 1 is deactivated. This deactivation is delayed by a configurable time. Settings are entered via the Config FBox or register 127, in 20-second steps.

Thresholds for the automatic function

In automatic mode, the controller switches the fans on and off according to the heating and cooling valve outputs. The first step starts up with an output signal greater than the parameter value "Fan step 1" from register 128*. This value is preset within the controller. The thresholds for steps 2 and 3 are parameterised in the

Config FBox or in registers 16 and 17.

Step 1 Register 128* 0 ... 100 % default 1 % configurable

Step 2 Register 16 0 ... 100 % default 33 % configurable

Step 3 Register 17 0 ... 100 % default 66 % configurable

3.4.5 Change-over

With 2-tube change-over applications (see Config), the controller needs information on whether heating or cooling mode is currently set. The controller can obtain this information via the S-Bus or the digital input E2. Where S-Bus is used, the information is written to the Room FBox or register 38.

Register 38:

Digital input E2:

Heating=0, Cooling=1

Heating = contact closed, Cooling = contact open

3



3-22


Function

Functions, control

3.4.6 Firmware version V1.11 Dew point

In cooling mode, dew may form on the cooling register. To prevent this, an information point is provided to close the cooling valve in the event of condensation. The information can be written via the S-Bus in conjunction with the Room FBox or register 39.

Register 39:

Digital input E2: open

Heating=0, Cooling=1

Normal operation = contact closed, Condensation = contact

3

Firmware version 1.08

The following functions can be used from firmware version 1.08.

The section with these parameters starts with the heading "FW V1.08".


3-23


“L60x Setup” Saia PG5

®

FBox (Adj. Firmware version)

The Setup FBox contains details of the type and firmware version.

Where there is a connection to the room controller, the "Controller type" and

"Firmware version" are displayed in the Setup FBox.

Function

Functions, control

3

“L60x Config” Saia PG5

®

FBox (Adj. Watchdog)

The behaviour of the communication watchdog can be switched between "Stop controller" (default) and "Restart controller".


3-24


Function

Functions, control

“L60x Room” Saia PG5

®

FBox (Adj. Watchdog)

The communications watchdog is run automatically from the "Room" FBox. If communication between the Room FBox and the controller is interrupted for the preset time (value multiplied by 20 seconds), the controller performs the specified action

(see Config FBox). A configured value of 255 deactivates the watchdog function

(default).

3


3-25


Function

Functions, control

3.4.7 Configurable LCD display functions for room controller PCD7.L643/644

The configuration must be entered in hexadecimal form.

For example: “BF“ when all displayelements must be aktivated.

3

A

B

8

9

First hexadezimal position

configuration forced by controller fix to 0

(Reserved for further developments)

X

X

X

X

Display of the absolute set point temperature

Light commands enablet

X

X

X

X

B

C

9

A

7

8

5

6

D

E

F

2

3

4

0

1

Second hexadezimal position

Sunblind commands enable

Occupancy push button enable

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

Fan Speed adjustment

X

X

X

X

X

X

X

X

Set point adjustment

X

X

X

X

X

X

X

X


3-26


Function

Functions, control

Clamp "S" used for ...

... conversion xx °C= x Ohm

Terminal "S" can be configured as a temperature input (default) or as a digital input.

The status is displayed in the Room FBox.

3

3.4.8 Temp. measurement with alternative external temperature sensor

Temperature input "S" can also be used with an alternative temperature sensor.

There is a configurable temperature table to set the relevant resistance value for 9 pre-defined temperature points from 0 °C to 40 °C. To obtain the best temperature resolution, is is advisable to use the full measurement range from 2 k to 65 kOhm.

This is why a PT100 or PT1000 sensor cannot be used, as these have a smaller resistance change per °C.


3-27


Function

Functions, control

3.5 Functions, control

Heating:

Y

Set-point Cooling

V3, configurable

V2, configurable

Frost protection

Comfort

Standby

Reduced

V1, configurable

XW

3.5.1 Set-point

After a restart, the active base set-point (register 41) is initialised with the base setpoint value from the configuration (register 37). The active base set-point can be changed any number of times by the communication function. The control set-point is made up of the active base set-point and any adjustment by the room control unit. Manual adjustment of the set-point (register 34) is only possible in Comfort and

Standby modes. In 'Reduced' operation, the controller works with the active base setpoint alone.

Control set-point in Reduced operation:

Set-point = Active base set-point

Control set-point for Comfort and Standby modes:

Set-point = Active base set-point (register 41) + set-point adjustment (register 34)

3


3-28


Function

Functions, control

3.5.2 Control

The controller works with 2 independent PI controllers, one for heating and one for cooling. Each PI controller can be configured to the needs of the system with a proportional band and a run-down time. The dead zone between heating and cooling is dependent on the operating mode and can be parameterised separately for

Comfort, Standby and Reduced operation.

Where the FBoxes are used, the parameters can be found in the Config FBox.

See section on "Function, settings, control parameters".

3

In all other cases, the settings can also be entered directly via the internal register in the controller. Please note that all configuration parameters are held in the controller

EEPROM, and so cannot be written to cyclically.

Cooling:

Heating:

Proportional band register 5, run-down time register 7

Proportional band register 6, run-down time register 106

Dead zone Comfort

Dead zone Standby

Register 2

Register 3

Dead zone Reduced operation Register 4

3.5.3 Control operating mode

Depending on the control variance (difference between set-point/actual values) and the parameters set, the controller will work in heating or cooling mode. A configuration parameter (register 101) can also be used to make ventilation independent from the mode. This allows one to specify e.g. that in winter, only heating is possible, and in summer, only cooling (see Config FBox hardware, ventilation mode).


3-29


Function

Functions, control

3.5.4 Limits for heating and cooling*

The maximum output values for cooling (CoolY) and heating (HeatY) can be limited.

The initial value can be set in the Config FBox

(register 140 for cooling and register 141 for heating)

Range: 0…100 %, default: 100

3

The current value is set in the Room FBox

(register 142 for cooling and register 143 for heating)

Range: 0…100 %, default: 100



3-30


Function

Functions, actual values

3.6 Functions, actual values

FBox inputs FBox FBox outputs

Enable communication

Operating mode

(Comfort/Standby/Reduced)

Active base set point

HVC Room

En

SetPt

Occupied

OccMode Setpoint

Temp

HeatY

CoolY

HeatEl

Err

Detection of presence

Actual control set point

Actual temperature value

Output heating valve [%]

Output cooling valve [%]

Output electric reheating [%]

Fan speed

Error flag

3.6.1 Saia PG5

®

FBox inputs “L60x Room”

En

FBox internal parameter to enable communication.

OccMode

Parameter to set a specific operating mode (register 36).

1, Reduced The mode can be set to Comfort for a definable period via the room control unit or the communication function (see Function, setting, control parameter register 0). At the end of this time, the mode automatically switches back to Reduced operation.

2, Standby When a presence is detected by a room control unit or the communication function, the controller switches to Comfort mode.

Where no presence is detected, the controller switches directly back to Standby mode.

0, Comfort The controller switches directly to Comfort mode.

5, Permanent The controller works permanently in "Reduced" mode. The

"Reduced" Presence detection is deactivated. This mode is especially suitable to maintenance and service activities at times when the room is not in use. With on-demand systems, this makes it very easy to prevent the whole installation, including climate control, from switching on when not required.

SetPt, set-point

Active base set point (register 41) for cyclical calculation of control set point. (See section on "Functionality")

3


3-31


Function

Functions, actual values

3.6.2 Saia PG5

®

FBox outputs "L60x Room"

Occupied, presence

Parameter for detection of presence.

SetPt, control set point

Actual control set point taking account of any manual interventions and limitations.

Temp, actual value

Actual value as input signal to the two PI controllers for heating and cooling. The measurement point can be defined via the configuration. (See "Function, settings, hardware").

HeatY, heating valve

Control of heating valve in in [%].

CoolY, cooling valve

Control of cooling valve in in [%].

HeatEl, electric heating

Control of electric reheating [%] on the floating relay contact K1/K2.

Fan, fan speed

Control of the ventilation level of the fan-coil device via the non-floating outputs V1,

V2 and V3 (230 V

AC

).

Err, error flag

FBox internal output for detecting communication errors. If a transmission with all telegram repeats fails completely, the FBox disables communication until the next attempt by the Setup FBox. The retry time is defined in seconds in the Setup FBox via the internal parameter "Pause after communication error".

3

A description of the L60x Room FBox settings can be found in the online help for

Saia PG5

®

.


3-32


3.7 Functions, manual output control

Function

Functions, manual output control

3.7.1 Concept

As a rule, the channel reference of the RS485 interface and the S-Bus station address of the desired room controller are parameterised in the Room FBox. The Room

FBox can then communicate with the room controller. The "L60x AO", "Light" and

"Sunblind" FBoxes can be attached to the Room FBox. For this, an FBox name must also be configured in the Room FBox. NOTE: The name must be unique within the project. The room name is then entered as a reference into the "L60x AO", "Light" and "Sunblind" FBoxes.

3.7.2 L60x AO, analogue outputs

The "L60x AO" can be used for remote control (RIO) of outputs not used by the selected application. See sections on "Functions, settings, application" and

"Functions, settings, hardware".

3.7.3 L60x AO, definition of output

Defines the output to be controlled.

All outputs are basically analogue outputs. Outputs Y3 and Y4 work proportionally with 0-10V. The switching elements such as Triac (Y1 and Y2) and the relay contact output (K1/K2) are pulse-width modulated (PWM). The cycle time is entered in the hardware settings. Values between 0.1 and 99.9 define the pulse/pause ratio. A value of 0 switches off a PWM output permanently, while 100.0% keeps it switched on.

The internal parameter "Send value" is used to determine the communication


3-33

3


Function

Functions, manual output control behaviour of the FBox. The value at the input can be transferred to the room controller cyclically or only after a change of value.

For a transfer after a change of value, the "Hysteresis" parameter defines the minimum change to the input value (compared to the last value sent) required to trigger a fresh communication.

Regarding the maximum outputpower for 24 V outputs of the PCD7.L604 controller, attention should be paid to the technical data PCD7.L604 in chapter 6.2.5 .

3


3-34


3.8 Functions, master/slave

Function

Functions, master/slave

3.8.1 Concept

In master/slave operation, it is possible to use one (master) room controller to control other (slave) controllers remotely. For this, the master simply uses the outputs from the slaves to control conditions in the room.

Master/slave operation is generally implemented via the Room FBoxes. The master/ slave system used here is then so flexible that a Room FBox only has to be told which S-Bus station address is the master for this room controller. Many controllers can also be chained together. This allows e.g. a slave to be the master for another device etc. A typical application would be in rooms that can be divided in different ways, e.g. meeting rooms in conference facilities.

The master controller transmits its output signals for heating valve, cooling valve, electric reheating and fan speed to the slave. The hardware configuration in the slave then decides in turn which outputs should actually be used. As described above, the unused outputs in the slave can also be controlled independently via the S-Bus (RIO).

3.8.2 Room, master/slave parameters

The "Room controller working" parameter is used to define the operating mode as

Master = "standalone" or Slave = "as slave".

In "as slave" mode, the master station address also has to be entered.

In the "Master" function, the parameter "Master station is station" has no meaning.

3


3-35


Function


3.9 Functions, light and shade

3.9.1 Concept

As a rule, the channel reference of the RS485 interface and the S-Bus station address of the desired room controller are parameterised in the Room FBox. The

Room FBox can then communicate with the room controller. The "L60x AO", "Light" and "Sunblind" FBoxes can be attached to the Room FBox. For this, an FBox name must also be configured in the Room FBox. NOTE: The name must be unique within the project. The room name is then entered as a reference into the "L60x AO", "Light" and "Sunblind" FBoxes.

3.9.2 L60x Light, light control

3

The "L60x Light" FBox can be used to switch up to 4 independent light groups. The individual light outputs are assigned to the groups in the configuration. See section on

"Function, settings, light"

The FBox inputs only react to a change of value. The internal parameter "Send value" currently has no effect. To assure compatibility with future versions, "Value change" should be set.

In the FBox, Light master/slave operation can be defined independently of the Room

FBox. If the FBox is configured as a slave, the Blind outputs are passed to the slave after a change of value on the master.

Definition of master/slave mode Slave; standalone light control


3-36


Defines the master station address for 'Slave' operation 1…250

Function


3.9.3 L60x Sunblind, blind control

3

The "L60x SB" FBox can be used to switch up to 4 independent blind groups. The individual up/down outputs are assigned to the groups in the configuration. See section on "Function, settings, blinds"

The FBox works on the "read/modify/write" principle. After a change of value at one of the FBox outputs, the current blind status is read from the controller. The information read is modified according to the changed inputs. Data where the associated

FBox inputs have not changed are retained. The new status is then returned to the controller once more.

“Send value”

The FBox internal parameter "Send value" currently has no effect. To assure compatibility with future versions, "Value change" should be set.


3-37


Function


“Lighting control in operation“

In the FBox, Blind master/slave operation can be defined independently of the Room

FBox. If the FBox is configured as a slave, the Blind outputs are passed to the slave after a change of value on the master.

Definition of master/slave mode: Slave; standalone light control.

3

“Station is master station”

Defines the master station address for ‘Slave’ operation 1…250


3-38


4

Example applications


General

The programming of the PCD7.L60x product family presented here uses the SBC

"RoomControler PCD7_L60x" FBox family. The library is supplied by SBC free of charge, and can be obtained from Saia-Burgess Controls AG in Murten.

System requirements

■ Saia PCD1, PCD2, PCD3 or PCS1

■ Saia PG5

®

1.4 or higher

■ Application FBox library, HLK-Init, HeaVAC initialisation

■ Standard FBox library, communication, SASI master

■ User FBox library, RoomController PCD7_L60x

4


4-1


Initialisation


4

At start of project, the HeaVAC library and the serial interface need to be initialised.

The picture shows the configuration for a PCD3 using the integrated serial RS-485 interface "Channel2".


4-2


Configuration


4

The room controllers can be parameterised very efficiently. Where a set of room controllers with consecutive SBC S-Bus addresses are to be configured with the same basic parameters using the Autoconfiguration function, a single Config FBox can distribute the parameters to all the room controllers automatically. To do this, the start and end addresses are entered into the Config FBox in the "from station address" and "to station address" parameters and "Autoconfiguration" is set to

"active".

Configuration can also be carried out manually. To do this, the "Autoconfiguration" parameter is set to "inactive". The "Write" button then causes the whole parameter set to be copied over to all station addresses from "from station adddress" to "to station address".

If a station address within a selected range was not configured successfully, the

Config FBox interrupts Autoconfiguration at this point and displays "Error" in the right of the window next to the Write button, with the relevant station number below.

When writing, whether automatically or manually, all parameters are stored directly in the room controller's EEPROM. The previous settings are then lost.

To read the parameters, it is sufficient to enter the SBC S-Bus address in the "from station address" parameter. The "Read" button causes the data to be passed from the room controller to the FBox.


4-3


Function


4

In order to use the Autoconfiguration function or individual communication with a room controller, one Room FBox per room controller is required. See section on

"Functionality, actual values". The room controller can then operate standalone (as a master) or as a slave.


4-4


Control of free outputs


Free outputs, i.e. outputs not used by the selected application (see Configuration), can be controlled at will via the Saia PCD

®

. This requires the use of a Room FBox with a unique FBox name. The outputs are passed to the Room FBox by the analogue output FBoxes. The Room FBox is entered into the analogue output FBox as a reference. (See also "Function, manual output control".)

Regarding the maximum output power for 24 V outputs of the PCD7.L604 controller, attention should be paid to the technical data PCD7.L604 in chapter 6.2.5 .

4


4-5


Remote IO


Instead of standalone control operation, internal regulation and control can also be completely disabled. The outputs are then dependent only on the communication master. For this RIO (remote input-output) operation, the RIO FBox is provided.

4

Regarding the maximum output power for 24 V outputs of the PCD7.L604 controller, attention should be paid to the technical data PCD7.L604 in chapter 6.2.5 .


4-6


5

5.1

Register usage

Registers, configuration

Register usage

This section describes the register usage on the room controllers. Detailed knowledge of this is not required to use the Saia PG5 at interested persons and programmers.

®

FBoxes. Rather, the section is aimed


( * RAM register, all others are EEPROM registers)

Registers Description

Communication

14

15

40*

60

110

111

S-Bus telegrams, defines a minimum time for the room controller to wait before responding to a request telegram from the master.

Unit: [ms/2000] Range: 100 … 2300 default: 2000

S-Bus baudrate; as the controller works with automatic baudrate detection, this parameter has no effect in practice. (73=4 800;

36=9 600; 18=19 200; 9=38 400; 21=115 200)

Communication watchdog register.

255 no monitoring

0 control stop / controller reset (action regarding configuration register 112)

1...254 Counter decremented by with each program cycle (20 s). The S-Bus master has to load the register on a cyclical basis. (By entering of the value “1” effect a stop/reset of the controller in max. time of 20 seconds)

Time, in 20-second steps, during which a further S-Bus station address

252 is activated. The time is initialised to 15 minutes by operating the service pin. Every successful communication within the period restarts the time for another 15 minutes. When the counter runs down to 0 or the register is manually set to 0, address 252 is deactivated again.

S-Bus station address

Active RS-485 Bus connection.

RS-485 leads must be connected as lines. Stubs are not allowed, and both ends of the line must be "closed off" with a resistor (approx. 150 Ω) between strands D and /D.

The best signal quality is achieved with an active Bus connection with a resistor between +5V and GND.

+5 V +5 V n /n n /n

Pull up

330 Ohm

Abschlusswiderstand

150 Ohm

Pull down

330 Ohm

/D

D

/RX-/TX

RX-TX

/n n

Segmentlänge max. 1200 m max. Stationen siehe techn. Daten

The active Bus connection is switched on and off via the Configuration register.

5


5-1


Register usage


Registers

112

0

1

0

1

Description

No Bus connection (default setting)

Active Bus connection enabled

Configuration of the watchdog watchdog is stopping the regulation (closing all valves and stops fan speed) watchdog is resetting the controller (closing all valves and stops fan speed)

General

74

75

126

1

2

This is only a read register, it can not be written. Controller Type:

PCD7.L60x

PCD7.L79x

Software version (read only):

E.g. 108 means Version 1.08

32-bit register for storing any type of information. This is a free register available to the user for 'Read' and 'Write' use. As the information is permanently stored in EEPROM, it cannot be written to cyclically. The content has no effect on the control program. It is possible to store a version number or the last commissioning date in it.

Room control unit

1 To address mobile IR room control units, an IR zone can be defined.

Factory setting=0

0 No zone defined. Commands are accepted from all IR control units.

1 … 30 Zone address

19

20

0

1

2

3

4

Value shown in the LCD display.

Fan speed, or if selected active Group of Light or Sunblind

Temperature in the room control unit

Actual value of PI controller, flashing

Actual value of PI controller

Control set-point (= base set-point + displacement)

Configuration room control unit PCD7.L643/L644:

102

0

1

2

3

4

5

6

7

0

1

1 = function enabled / 0 = function disabled

Set point adjustment

Fan Speed adjustment

Occupancy push button enable

Sunblind commands enable

Light commands enable

Display of the absolute set point temperature fix to 0 (Reserved for further developments)

1 = configuration forced by controller / 0 = local parameter active

Control unit used

Where room units with a serial interface (PCD7.L64x, .L661, .L663) are used, the connection is made via the RC socket.

Where the PCD7.L63x room units or a manufacturer-independent solution are used, the control elements are connected to the analogue inputs "S" and "P1" on the room controller.


5-2

5


Register usage


Registers

104

Description

Manual set-point adjustment on the room control unit in up to +/- 6 steps.

[K/10 and step]

Range: 0 … 10 (=0 … 1.0 K/step), Default: 5

Function

9

0

1

2

3

4

5

6

7

8

Application selection. Default:5

The valve outputs for heating/cooling are defined via register 103 under the heading "Hardware". TRIAC-PWM , TRIAC-3-point and 0 … 10 V are available.

All outputs not used by the application can be controlled via the communication function (RIO operation).

RIO operation; all outputs can be controlled via the Bus.

2-tube heating, heating valve: Y1(Y3)

2-tube change-over, valve: Y1(Y3)

Register 38 defines the control mode 'Heating' or 'Cooling'. Depending on the hardware setting, it is controlled by contact input E2 or the S-Bus.

2-tube cooling and electric heating.

Cooling valve: Y1(Y3), electric heating: Relay contacts K1/K2

2-tube change-over and electric heating.

In Heating mode the heating register and the electric heating work in sequence.

Change-over valve: Y1(Y3), electric heating: relay contacts K1/K2.

Register 38 defines the control mode 'Heating' or 'Cooling'. Depending on the hardware setting, it is controlled by contact input E2 or the S-Bus.

4-tube heating/cooling.

Heating valve: Y1(Y3) Cooling valve: Y2(Y4)

4-tube heating/cooling with electric heating.

In Heating mode the heating register and the electric heating work in sequence.

Heating valve: Y1(Y3) Cooling valve: Y2(Y4), electric heating: Relay contacts K1/K2

2-tube heating with 2 valve outputs controlled in parallel

Heating valve 1: Y1(Y3) Heating valve 2: Y2(Y4)

2-tube change-over with 2 valve outputs controlled in parallel

Valve 1: Y1(Y3) Valve 2: Y2(Y4)

5


5-3


Register usage


Registers

9

Description

2-tube cooling with 2 valve outputs controlled in parallel

Cooling valve 1: Y1(Y3) Cooling valve 2: Y2(Y4)

10 Electric heating

Relay contacts K1/K2

Hardware

8

10

11

12

13

0

1

2

3

4

0

1

2

Offset to adjust the room temperature when using an analogue sensor on terminal S or a digital room control unit. Where the room temperature is picked up by the Bus, the adjustment parameter has no effect.

Unit: [K/10]

Range: -100 … +100 (= -10.0 … +10.0 K), default: 0

Function of aux. contact on terminal E2. Default:0

The contact status can be determined independently of the function using register 70.

1 = Contact open, 0 = Contact closed.

No regulation/control function.

Second window contact

Change-over between Heating and Cooling mode.

1=Cooling (contact open), 0=Heating (contact closed), see register 38.

Dew point; when condensation is detected, the cooling function is disabled.

1=Condensation (contact open), 0=Normal (contact closed), see register

39.

Presence contact. The current presence status can be seen from register

35. Note: A closed contact (reg.70=0) indicates a presence (reg.35=1)

1=No presence (contact open), 0=Presence (contact closed), see register 35.

PWM cycle time for TRIAC outputs Y1/Y2. Where the TRIACs are used as a 3-point output, this parameter is used to set the motor running time.

Unit:[seconds]

Range: 20 … +600 seconds, default: 30 s

PWM cycle time for relay contact output K1/K2. Unit:[seconds]

Range: 60 … +600 seconds, default: 120 seconds

Selection of room temperature sensor.

Digital or mobile room control unit.

Analogue temperature measurement with sensor on terminal S

Room temperature picked up by S-Bus in register 30

5


5-4


Register usage


Registers

63

101

103

105

127

0

1

2

3

4

0

1

4

0

1

Description

Fan - min/max limits.

The register is coded as a decimal as MAX¦MIN. The MAX and MIN limits can be set within the range [0 … 3]. The programmer must ensure that MAX is always greater than or equal to MIN. If MIN and MAX are equal, the fan always runs at the selected step level.

Example:

30: MAX = step 3; MIN = step 0, the fan can be used without restriction

21: MAX = step 2; MIN = step 1, the fan can switch between steps 1 and

2.

Fan mode

Automatic

Fan step 1 permanently active.

Fan step 1 only active in "Comfort" mode.

Fan off in Heating mode.

Fan off in Cooling mode.

Control of heating/cooling valves:

PWM on Y1/Y2

0 … 10 V on Y3/Y4

3-point at Y1=Open valve / Y2=Close valve

Window contact polarity.

When the window is closed, the window contact is also closed.

When the window is closed, the window contact is open.

Run-down time for fan at step 1 in 20-second steps.

When valve setting 0% is reached, the fan runs on at step 1 for the specified time.

Range: 1….250 = 20….5000 sec., default: 3 = 60 sec.

Control parameters

0 Run-down time in Comfort mode in 10-minute steps.

2

3

Range: 0 … 24 = 0 … 240 minutes, default: 0 = 0 minutes

Neutral zone in "Comfort" mode, unit:[K/10]


Neutral zone in "Standby" mode, unit:[K/10]

4

5


Neutral zone in "Reduced" mode, unit:[K/10]


Proportional band for cooling, unit:[K/10]

Range: 5 … 100 (=0,5..10,0 K), default: 50

5


5-5


Register usage


Registers

7

6

16

17

18

37

106

128

129

0

1

2

Description

Run-down time for cooling, unit: [seconds].

A value of 0 disables the integer portion, pure P control.

Range: 0 … 1000 seconds, default: 0

Proportional band for heating, unit:[K/10]

Range: 5 … 100 (=0,5..10,0 K), default: 50

Threshold for fan step 2.

Where a Y heating or cooling signal exceeds the threshold, the fan switches to step 2. When the signal drops at least 5% below the threshold, the controller switches back to step 1. Unit: [%]

Range: 0 … 100%, default: 33

Threshold for fan step 3.

Where a Y heating or cooling signal exceeds the threshold, the fan switches to step 3. When the signal drops at least 5% below the threshold, the controller switches back to step 2. Unit: [%]

Range: 0 … 100%, default: 66

Control variance in electric heating.

When the Y heating signal reaches 100% and the current control variance is greater than the value set, the electric heating switches on and the controller works proportionally without the integer portion. Unit:

[K/10]

Range: 0 … 200 (0 … 20,0 K), default: 50

Base set-point for initialising the controller after a restart, unit [°C/10]

Range: 100 … 350 (= 10.0 … 35.0°C), default: 22

Run-down time for heating, unit: [seconds].

A value of 0 disables the integer portion, pure P control.

Range: 0 … 1000 seconds, default: 0

Threshold for fan step 1

Where a Y heating or cooling signal exceeds the threshold, the fan switches to step 1. When the signal drops at least 5% below the threshold, the controller switches off the fan. Unit: [%]

Range: 0…100%, default: 1

Configuration of the S clamp

Default NTC (factory curve)

Conversion (calculated by NTC table)

Digital input

Conversion table (resistance at specific temperature) for new NTC.

Limited range: [2’000 …65’000 Ohm]

Impedance NTC for :

T= 0.0°C = ... Ohm 130


5-6

5


Registers

131

132

133

134

135

136

137

138

140

141

Description

5.0°C = ... Ohm

10.0°C = ... Ohm

15.0°C = ... Ohm

20.0°C = ... Ohm

25.0°C = ... Ohm

30.0°C = ... Ohm

35.0°C = ... Ohm

40.0°C = ... Ohm

Valve limit for cooling (CoolY)


Valve limit for heating (HeatY)


Register usage


5


5-7


Register usage

Registers, actual values

Registers Description

Light and shade

120 The outputs for light and shade are controlled indirectly via group commands. There are 4 independent groups available for light and 4 for shade. Each output can be individually assigned to a group using this register. It is possible for an output to occur in every group or in none. All combinations are possible.

A group definition for 4 outputs comprises 4 bits. Each bit represents one of the 4 outputs. A "1" bit indicates that the associated output should respond to commands for this group. A "0" bit excludes the output from the group.

5


5-8


5.2

Register usage



This table gives the register address, information on the type of access allowed

(R=Read, W=Write), and a description.

Registers

R/W Description

Room control unit

21 R Manual set-point adjustment in K

22 R Presence sensor

23

24

0=Presence, 1=No presence

R Temperature measurement from the digital room control unit in the range

5 … 36.5°C

R Manual pre-selection of fan speed

0=off, 1 … 3 fan steps, 4=automatic

Regulation and control parameters

30 R/W Bus room temperature. See Configuration register 13.

31 R/W Control mode, default

34

0=automatic, 1=heating, 3=cooling, 5=frost protection, 6=off, 10=manual,

2/4 not used

R/W Offset for set-point adjustment in "Comfort" and "Standby" mode. Unit

[K/10]

41

50

51

54

142

143

Range: -30 … +30 (=-3.0 … +3.0 K)

R/W Set-point. After a restart, the set-point is initialised to the base set-point in configuration register 37.

R Effective control actual value

R Current control mode

0=automatic, 1=heating, 3=cooling, 5=frost protection, 6=off, 10=manual

R Effective control set-point

R/W Actual valve-limitation cooling


R/W Actual valve-limitation heating


5


5-9


Register usage


Registers

R/W Description

Analogue inputs

53 R Window contact (E1) status independent of the contact polarity set (see

Hardware configuration register 105)

70

0=contact E1 closed, 1=contact E1 open

R Aux. contact (E2) status.

(See Hardware configuration register 10)

71

72

0=contact E2 closed, 1=contact E2 open

R Temp. Sensor clamp (S) value

Input temperature from the S clamp, if the configuration of the S clamp-

Register 129 = 0 or 1 (Default NTC or Conversion)

Range 0…400, step 0.1°C

R Voltage input 0...10 V (E3) for optional use via S-Bus.

Value of the aux 0-10V

73

36

Range: 0…1000, step 0.01V

R Clamp (S) status, if the configuration of the S clamp-

Register 129 = 2 (Digital input).

0=contact S closed, 1=contact S open

Actual values

32 R/W Current fan mode

0=stop, 1 … 3= fan steps 4=automatic

R/W Operating mode - default

38

39

0 The controller works permanently in "Comfort" mode. The room control unit no longer has any effect.

1 The controller works in "Reduced" mode. If the controller detects a presence, "Comfort" mode is activated for a configurable period (see register 0).

2 The controller works in "Standby" mode. According to whether a presence is detected, the controller switches between "Comfort" and

"Standby" mode.

5 The controller works permanently in "Reduced" mode. Presence detection has no effect.

R/W Change-over status. (See Configuration register 10)

0=Heating, 1=Cooling

R/W Dew point status. (See Configuration register 10)

0=dry, 1=condensation

5


5-10


Register usage


Registers

52

59

85

R/W Description

R Current fan step

0=stop, 1 … 3= fan steps

R Current operating mode

0="Comfort" 1="Reduced" 2="Standby"

R Run time for relay contact output K1/K2. Unit [minutes]

(Re-initialised if the value after a restart is > 65,000)

Outputs

45

46

47

48

49

56

57

R/W Manual control of Y3 (0 … 10 V) where the output is not used by the application. (See Configuration register 103)

Or control of the valve Y3 in the application selection “RIO”

(see HW configuration registers 9)

Unit: [%], range: 0 … 100 (0 … 100% = 0 … 10V)

R/W Manual control of Y4 (0 … 10 V) where the output is not used by the application. (See Configuration register 103)



Unit: [%], range: 0 … 100 (0 … 100% = 0 … 10V)

L/S Manual control of Y1 (PWM) where the output is not used by the application. (See Configuration register 103).



Unit: [%], range: 0 … 100

L/S Manual control of Y2 (PWM) where the output is not used by the application. (See Configuration register 103).



Unit: [%], range: 0 … 100

L/S Manual control of K1/2 (PWM) where the output is not used by the application. (See Configuration register 103).

Or control of the relais K1/2 in the application selection “RIO”


Unit: [%], range: 0 … 100

R/W Manual control of the heating valve in "Manual" mode (see register 31 and configuration register 103)

Unit: [%], range: 0 … 100%

R/W Manual control of the cooling valve in "Manual" mode (see register 31 and configuration register 103)

Unit: [%], range: 0 … 100%


5-11

5


Register usage


Registers

58

139

R/W Description

R/W Manual control of electric reheating in "Manual" mode (see register 31 and configuration register 103)

Unit: [%], range: 0 … 100%

R/W Force the fan speed if the application selection is RIO (see Hardware

Configuration-register 9)

144

Unit: [%], range: 0 … 100%

R/W Configuration for the inverting of the outputs

Bit 0: inverting output PWM Y1

Bit 1: inverting output PWM Y2

Bit 2: inverting output 0-10V Y3

Bit 3: inverting output 0-10V Y4

0 = no inverting, 1 = inverting

Light and shade

123 R Current status of group switches.

5

121 R Last switching command to the groups.

122 S Group switching command


5-12


6

6.1

Technical data

Room controllers with Serial S-Net

Technical data

Room controllers with SBC Serial S-Net

PCD7.L60x Technical overview

Type Description

PCD7.L600 230 VAC room controller with 2 Triac outputs, relay for electric heating and 3-step fan control

PCD7.L601 230 VAC room controller with 2 Triac outputs, 2 outputs 0…10 V, relay for electric heating and 3-step fan control

PCD7.L602* 24 VAC room controller with 2 Triac outputs, 2 outputs 0…10 V, relay for electric heating without fan control

PCD7.L603 24 VAC room controller with 2 Triac outputs, 2 outputs 0…10 V, relay for electric heating with 3-step fan control (230 VAC)

PCD7.L604 230 VAC room controller with 2 Triac outputs, 2 outputs 0…10 V incl. 24 VAC supply, relays for electric heating with 3-step fan control

(230VAC)

6

6.1.1 Performance data for SBC Serial S-Net

Saia PCD ®

Resources

Registers

Flags

Data blocks

Program

Interface

Program cycles

Communication cycle

PCD3.M5540

90 Room FBoxes

2600

1400

1 approx. 50,000 lines

Channel 2, 38 400 baud

360 cycles

1.4 seconds

At a communication rate of 38,400 400 baud, communication for a Room FBox takes approx. 15 ms. Only when the Saia PCD

®

program takes longer than 15 ms per Saia

PCD

®

cycle does this value have to be used as a basis for estimating the communication cycle.

Communication cycle = "15ms per Room FBox" x "Number of Room FBoxes"

* no longer available


6-1


Technical data


6.1.2 Electrical load on SBC Serial S-Net

The new room controllers from hardware version 1.2 have a high impedance and place only a small load on SBC Serial S-Net. They have an 8x higher impedance than the old room controllers (hardware version 1.1 and older) or a standard receiver.

Limited by the electrical load on the SBC Serial S-Net system, a segment (without repeater) can have no more than 32 Saia PCD

®

controls, or 31 .L60x room controllers with hardware version 1.1 and older, or 248 room controller with hardware version 1.2 connected to it.

Limited by the Bus cycle time, a maximum of 127 room controllers (hardware version

1.2) can be used in one segment (without repeater).

6

Number of Saia PCD

®

systems on a SBC Serial S-Net line:

Number of Saia PCD

®

controls

16

16

31

31

32

1

1

1

16

Number of room controllers

Hardware version 1.1

31

16

0

0

1

0

0

16

8

Number of room controllers

Hardware version 1.2

0

111

127

0

64

112

0

8

0


6-2


Technical data


6.1.3 Technical overview of room controllers PCD7.L600 - .L604

SBC Serial S-Net Inputs Internal serial Bus

Service Pin

6

Electric heating Valves Fan Power supply

Designation

Power supply

Outputs

Fan

Valves Y1/Y2

Valves Y3/Y4

Electric heating

Terminal

L,N

N,V1,V2,V3

Y1,N,Y2

Y3,GND,Y4

K1,K2

Description

Power consumption of 100 mA typical, without current to Triac outputs Y1/Y2.

230 V

AC

, 3A (AC3) max. for direct control of a

3-step fan.

Triac outputs, 10…800 800 mA to control 2 valves with PWM signal or one 3-point valve (open/close).

Can be configured via the Config FBox or the configuration registers.

Constant voltage outputs 0…10V, 2mA max. t control 2 valves, cooled ceilings od variable volume stream (VVS) systems. Can be configured via the

Config FBox or the configuration registers.

Floating relay contact 230 VAC, 10A max. to control an electric heating unit using a PWM signal. Can be configured via the Config FBox or the configuration registers.


6-3


Technical data


Inputs

Window contact

Additional input

Voltage output

E1, window contact

E2, aux input

5V

Digital input for floating contacts. When the window is open, the controller automatically switches to

"Frost protection" mode. The contact polarity (make/ break) can be set in a configuration register. See description of Config FBox or registers

Additional digital input for floating contacts. The control function of the aux. input can be set in the configuration. It can be configured as inactive, as a

2nd window contact, a presence sensor, dew point monitor or change-over contact. See description of

Config FBox or registers

Voltage input 0...10 V for optional use via S-Bus. Voltage input E3, Aux

0…10 V

Temperature sensor S, temp sensor Input for a temperature sensor NTC 10kΩ; or

Conversion or a Digital Input; the temperature/ resistance curve is documented in the technical data.

Depending on the configuration, this input is intended to measure the room temperature when an analogue room control unit is used.

Otherwise, it is available as Digital Input or another type of temperature sensor.

See description of Config FBox or registers.

Potentiometer P1, Poti Input for a potentiometer, 10 kOhm linear. This input can be used to adjust the room set-point in conjunction with an analogue room control unit.

Otherwise, it is available for any other use. See description of Config FBox or registers

Voltage output 5V to supply the potentiometer on terminal P1.

Operating status R, LED Voltage output 5 V, 2 mA max. When the controller is working in Comfort mode, the output is set to

HIGH (5V), otherwise LOW (0V), e.g. to connect a

LED with a series resistance of 1.5 kOhm

Communication

Communication

Interface

Transmission rate

Serial bus

/D, D

RC

SBC Serial S-Net, slave, data mode

RS-485, max. cable length 1200 m, 32 stations with no repeaters


Internal data bus for the extension modules and a digital room control unit.

Note

All inputs can be read by the S-Bus via a Room FBox or via registers independently of the application.

Outputs not used by the application can be freely controlled via S-Bus as RIOs.

6


6-4


Technical data


6.1.4 Dimensions of room controllers PCD7.L600 - .L604

6


6-5


Technical data

Type description

6.2 Type description

6.2.1 Technical data for PCD7.L600

230 VAC room controller with 2 Triac outputs, relay for electric heating and 3-step fan control

Designation

Power supply

Terminal

L,N

Description

230 V

AC

, 100 mA typ. without current to Triac outputs Y1/Y2.

Outputs

Fan

Valves

N,V1,V2,V3 230 V

AC

, 3 A (AC3) max. for direct control of a

3-step fan.

Y1/Y2 Y1,N,Y2 Triac outputs 230 V

AC

, 10 … 800 mA to control 2 valves with PWM signal or one 3-point valve.

Electric heating

Inputs

Window contact

Additional input

K1,K2

E1, window contact

E2, aux input

Floating relay contact 230 VAC, 10A max.

Digital input for floating contacts.

Additional digital input for floating contacts.

Temperature sensor S, temp sensor Input for a temperature sensor NTC 10 kΩ.

Potentiometer P1, Poti Input for a set-point potentiometer, 10 kΩ linear.

Voltage output 5 V

Operating status R, LED


Voltage output 5V, 2 mA max. Comfort mode =

HIGH (5V), otherwise LOW (0V).

Communication

Communication

Interface

Transmission rate

Serial bus

/D, D

RC




Internal data bus for the extension modules and a digital room control unit.


6-6

6


Technical data

Type description

Note

For a detailed description of the inputs/outputs, see "General technical specification".

SBC Serial S-Net RS-485

6


6-7


Technical data

Type description


230 VAC room controller with 2 Triac outputs, 2 0…10 V outputs, relay for electric heating and 3-step fan control

Designation

Power supply

Terminal

L,N

Description

230 V

AC

, 100 mA typ. No current to Triac outputs Y1/Y2.

Outputs

Fan

Valves Y1/Y2

N,V1,V2,V3

Y1,N,Y2

230 V

AC

, 3 A (AC3) max. for direct control of a

3-step fan.

Triac outputs 230 V

AC

, 10 … 800 mA to control

2 valves with PWM signal or one 3-point valve.

Valves Y3/Y4

Electric heating

Inputs

Window contact

Additional input

Potentiometer

Voltage output

Y3,GND,Y4

K1,K2

E1, window contact

E2, aux input

P1, Poti

5 V

Constant voltage outputs 0…10 V, 2 mA max. to control 2 valves.

Floating relay contact 230 VAC, 10A max.



Voltage input E3, Aux 0…10 V Voltage input 0...10 V for optional use via

S-Bus.


Input for a set-point potentiometer, 10 kOhm linear.


Operating status R, LED Voltage output 5V, 2 mA max. Comfort mode =


6


6-8


Technical data

Type description

Communication

Communication

Interface

Transmission rate

Serial bus

/D, D

RC




Internal data bus for the extension modules and the room control unit.

Note


6



6-9


Technical data

Type description


(no longer available as of 2008)

24 VAC

room controller with 2 Triac outputs, 2 0

…10 V outputs, relay for electric heating without fan control

Designation

Power supply

Outputs

Valves Y1/Y2

Valves Y3/Y4

Electric heating

Operating status

Y1,N,Y2

Y3,GND,Y4

K1,K2

R, LED

Triac outputs 24 V

AC

, 10 … 800 mA to control 2 valves with PWM signal or one 3-point valve.

Constant voltage outputs 0…10 V, 2 mA max. to control 2 valves.

Floating relay contact 230 VAC, 2kW max.

Inputs

Window contact

Additional input

Voltage input

Temperature sensor

Potentiometer

E1, window contact

E2, aux input


E3, Aux 0…10 V Voltage input 0...10 V for optional use via

S-Bus.

S, temp sensor

P1, Poti


Input for a temperature sensor NTC 10 kΩ.

Input for a set-point potentiometer, 10 kΩ linear.

Voltage output 5 V Voltage output 5V to supply the potentiometer on terminal P1.

Voltage output 5V, 2 mA max. Comfort mode =


Communication

Communication

Interface

Transmission rate

Serial bus

Terminal

24V, GND

/D, D

RC

Description

24 V

AC

, 100 mA typ. No current to Triac outputs Y1/Y2.






6-10

6


Technical data

Type description

Note



6


6-11


Technical data

Type description


24 VAC room controller with 2 Triac outputs, 2 0

…

10 V outputs, relay for electric heating and 3-step fan control (230 VAC)

Designation Terminal Description

Voltage supply

Power supply to valves

Outputs

Fan

Valves Y1/Y2

Valves Y3/Y4

Electric heating

Inputs

Window contact

Communication

Communication

Interface

Transmission rate

Serial bus

24 V

24 V

L, V1, V2, V3

Y1,Y2

Y3,Y4, GND,

24 VAC

K1,K2

E1, window contact

24 VAC, 100 mA typ. No current to Triac outputs

Y1/Y2.

24 VAC

E2, aux input Additional digital input for floating contacts.

E3, Aux 0…10 V Voltage input 0...10 V for optional use via S-Bus.

/D, D

RC

Sep[arate supply to relay contacts 230 V, 3 A

(AC3) max. via contact L. For direct control of a

3-step fan.

Triac outputs 24 VAC, 10 … 800 mA to control 2 valves with PWM signal or one 3-point valve.

Constant voltage outputs 0…10 V, 2 mA max. to control 2 valves, incl. 24 V valve supply.

Floating relay contact 230 VAC,

10A max.


Additional input

Voltage input


Potentiometer

Voltage output

Operating status

P1, Poti

5 V

R, LED


Voltage output 5 V to supply the potentiometer on terminal P1.

Voltage output 5 V, 2 mA max. Comfort mode =

HIGH (5 V), otherwise LOW (0 V).






6-12

6


Technical data

Type description

Note



6

Power supply - polarity

Note for PCD7.L602 and PCD7.L603 room controllers

The polarity of the power supply at the supply terminal MUST be the same for all devices of this type.

If either of the two wires from the AC transformer is connected to GND, this wire must also be connected to the terminal labelled GND on all additional devices.


6-13


If not, there is a risk of a short-circuit, and the devices may be damaged.

S-Bus

Technical data

Type description

PCD7.L602

/

PCD7.L603

24V

S-Bus



PCD7.L602

/

PCD7.L603

24V



correct

PCD7.L602

/

PCD7.L603

24V

Transformer

24V AC

230V AC



PCD7.L602

/

PCD7.L603

24V

Transformer

24V AC

230V AC

wrong

6


6-14


Technical data

Type description


230 V

AC room controller

with 2 Triac outputs, 2 0

…

10 V outputs incl. 24 VAC supply, relays for electric heating

and

3-step fan control (230 V

AC

)

Designation Terminal Description

Power supply

Power supply to valves

Outputs

Fan

Valves Y1/Y2

Valves Y3/Y4

Electric heating

Inputs

Window contact

Communication

Communication

Interface

Transmission rate

Serial bus

L, N

24 V

N, V1, V2, V3

Y1,Y2

Y3,Y4, GND,

24 VAC

K1,K2

E1, window contact

230 VAC, 100 mA typ. No current to Triac outputs

Y1/Y2.

24 VAC

E2, aux input Additional digital input for floating contacts.

E3, Aux 0…10 V Voltage input 0...10 V for optional use via S-Bus.

/D, D

RC

230 VAC, 3 A (AC3) max. for direct control of a

3-step fan.

Triac outputs, 24 to control 2 valves with PWM signal or one 3-point valve. Maximum output power for 24V outputs (together with valve supply) is 7 VA

Constant voltage outputs 0…10 V, 2 mA max. to control 2 valves, incl. 24 V valve supply.

Floating relay contact 230 VAC, 10 A max.


Additional input

Voltage input


Potentiometer

Voltage output

Operating status

P1, Poti

5 V

R, LED


Voltage output 5 V to supply the potentiometer on terminal P1.

Voltage output 5 V, 2 mA max. Comfort mode =







6-15

6


Technical data

Type description

Note



6

The overall power consumption of the valves have to be a maximum of 7 W. This should be noted particularly for applications where multiple valves are considered to be controlled simultaneously. If the accumulated power consumption of the valves in the planned configuration is beyond 7W, there are two possibilities: the use of valves with low power consumption or the use of the 24 V

AC

version of the controller (PCD7.L603) with a extern transformer.


6-16


6.3 Parameterisation tools

6.3.1 Manual parameterisation tool PCD7.L679

Technical data

Parameterisation tools

Local parameterisation aid in the form of a room control unit with RC-Bus interface to read and modify parameters. The PCD7.L679 communicates directly with the room controller and can be used for parameterisation anywhere there is no available network connection to a higher-level control system.

Pin allocation

Interface

Serial bus

Terminal

RC

Description

The PCD7.L679 is connected to the room controller with the PCD7.L670 directly to the controller, or where extension modules are used for light and shade, to the last module. The

PCD7.L670 connecting cable is preconfigured at both ends and is 10 m long. The maximum length between the room controller and the room control unit must not exceed 11 m.

Configuration

The parameters are selected by entering a letter and a numeric code. Parameters in group "L" can be read, while parameters in group "E" can also be modified.

The module starts up when it is connected to the the room controller in the read group with the first parameter, and display shows "L.01".

6

The small round button is used to switch between reading end editing parameters.

The arrow keys are used to select the desired parameter. The parameter is retrieved with the oval key. Pressing the key again returns to the parameter selection menu.


6-17


Technical data


Parameter description valid for:

PCD7.L600

PCD7.L601

PCD7.L602

PCD7.L603

PCD7.L604

Read parameters

L.01 Occupancy: 0=Absent, 1=present

L.02 Current set-point

L.03 Current temperature (actual)

L.04 Current fan speed: OFF, AUTO, 1, 2, 3

L.05 Set-point adjustment+/-3.0°C, resolution 0.5°C

L.06 Not used

L.07 Not used

L.08 Window contact polarity: 0: Make contact, 1: Break contact

L.09 Status of window contact: 0: All windows closed, 1: Window(s) open

L.10 Not used

L.11 Change-over status: 0:Heat, 1:Cool

L.12 Application mode (see Cap. 3.2.2)

L.13 Contact on terminal E2: 0:Contact closed, 1:Contact open

L.14 Window contact status on terminal E1: 0:Contact closed, 1:Contact open according to contact polarity, cf. L/E.08

L.15 Selection of room temperature sensor:

0: Digital or mobile room control unit.

1: Analogue temperature measurement with sensor on terminal S

2: Room temperature received from network

L.16 Not used

L.17 Not used

L.18 Network address [1 … 250]

L.19 Not used

L.20 RS-485 Bus baud rate when controller restarted:

21

9

18

36

73

115000 baud

38400 baud

19200 baud

9600 baud

4800 baud

(All other values cause communication errors)

See section on Communication

L.21 Not used

L.22 Control of heating/cooling valves:

0: PWM on Y1/Y2

1: 0…10 V on Y3/Y4

4: 3-point at Y1=Open valve / Y2=Close valve

(other values undefined)

L.23 Not used

L.24 Not used

L.25 Measurement on terminal E3: 0.0V…10.0V

L.26 Not used

L.27 Not used

L.28 Not used

L.29 Not used

L.30 Not used

6


6-18


Edit parameters

E.01

Occupancy: 0=Absent, 1=present

E.02

Not used

E.03

Temperature (actual): +/-10K adjust., resolution 1°C

E.04

Fan speed: OFF, AUTO, 1, 2, 3

E.05

Set-point adjustment: +/-3.0°C, resolution 0.5°C

E.06

Not used

E.07

Not used

E.08

Window contact polarity: 0: Make contact, 1: Break contact

E.09

Not used

E.10

Not used

E.11

Not used

E.12

Application mode (see Cap. 3.2.2)

(Value 11-20 not defined)

E.13

Not used

E.14

Not used

E.15

Selection of room temperature sensor:

0: Digital or mobile room control unit.

1: Analogue temperature measurement with sensor on terminal S

2: Room temperature received from network


E.16

Not used

E.17

Not used

E.18

Network address [1 … 250]

E.19

Not used

E.20

Not used

E.21

Not used

E.22

Control of heating/cooling valves

0: PWM on Y1/Y2

1: 0…10 V on Y3/Y4

4: 3-point at Y1=Open valve / Y2=Close valve


E.23

Not used

E.24

Not used

E.25

Measurement on terminal E3: (for actual value, see L.25)

E.26

Not used

E.27

Not used

E.28

Not used

E.29

Not used

E.30

Not used

Technical data


6


6-19


A Annex

A.1 Icons

In manuals, this symbol refers the reader to further information in this manual or other manuals or technical information documents.

As a rule there is no direct link to such documents.

This symbol warns the reader of the risk to components from electrostatic discharges caused by touch.

Recommendation: Before coming into contact with electrical components, you should at least touch the Minus of the system (cabinet of PGU connector). It is better to use a grounding wrist strap with its cable permanently attached to the

Minus of the system.

This sign accompanies instructions that must always be followed.

Appendix

Icons

Explanations beside this sign are valid only for the Saia PCD

®

Classic series.

Explanations beside this sign are valid only for the Saia PCD xx7 series.

A


A-1


A.2 Order codes

Type Description

Room controllers

PCD7.L600


PCD7.L601

230 VAC room controller with 2 Triac outputs, 2 0…10 V outputs, relays for electric heating and 3-step fan control

PCD7.L603

24 VAC room controller with 2 Triac outputs, 2 0…10 V outputs, relays for electric heating with 3-step fan control (230 VAC)

PCD7.L604

230 VAC room controller with 2 Triac outputs, 2 0…10 V outputs incl. 24 VAC supply

(7W), relays for electric heating and 3-step fan control

PCD7.L610


PCD7.L611

230 VAC room controller with 2 Triac outputs, 2 0…10 V outputs,

Relays for electric heating and 3-step fan control

PCD7.L614

230 VAC room controller with 2 Triac outputs, 2 0…10 V outputs incl. 24 VAC supply

(7W), relays for electric heating and 3-step fan control

PCD7.L615

Dual 230 VAC room controller for radiator/cooled ceiling combinations and VAV applications, 4 Triac outputs, 2 0…10 V outputs, 2 relays for electric heating and independent interfaces for digital room control devices

PCD7.L681

230 VAC room controller with 2 Triac outputs, 2 0…10 V outputs, relays for electric heating and 3-step fan control

Extension modules for light and shade

PCD7.L620

Extension module to control 2 light bars

PCD7.L621

Extension module to control 2 light bars and 1 blind motor

PCD7.L622

Extension module to control 3 blind motors

PCD7.L623

Extension module to control 2 blind motors 24 VAC with blade movement

Room control units

PCD7.L630

Temperature sensor

PCD7.L631

Temperature sensor and set-point setting

PCD7.L632

Temperature sensor, set-point setting, presence sensor and LED

PCD7.L640

Temperature sensor and set-point setting

PCD7.L641

Temperature sensor, set-point setting, presence sensor and LED

PCD7.L642

Temperature sensor, set-point setting, presence sensor, LED and fan control

PCD7.L643

Temperature sensor, function keys and LCD display for HeaVAC functions

PCD7.L644

Temperature sensor, function keys and LCD display for HeaVAC and light and shade functions

Appendix

Order codes

A


A-2


Type Description

PCD7.L660

IR remote control with LCD display, temperature sensor and wall mounting for fixed use

PCD7.L661

IR receiver

PCD7.L662

Wireless remote control with LCD display, temperature sensor and wall mounting for fixed use

PCD7.L663

Wireless receiver

PCD7.L664

Optional wall mounting for mobile use

PCD7.L665

IR (infra-red) receiver with multi-sensor for temperature, presence and brightness for

PCD7.L660

PCD7.L666

IR and wireless receiver with multi-sensor for temperature, presence and brightness for PCD7.L660/L662

Expansion modules to connect third-party devices

PCD7.L650

Expansion module to connect up to 8 external contacts for light & shade

PCD7.L651

Wireless receiver to connect EnOcean room control devices

Accessories

PCD7.L670

Connecting cable for room control units RJ 9 / RJ 9, 10 m

PCD7.L671

Connecting cable for room control units RJRJ 11 / cord, 10 m

PCD7.L672

Connecting cable for room controller / extension modules RJ 11 / RJ 9, 0.3 m

PCD7.L673

Set of connecting cables for digital room control units, 3 × RJ9 and 1 × RJ11, length

11 m

PCD7.L679

Manual control unit for room controller configuration

Appendix

Order codes

A


A-3


A.3 Address of Saia-Burgess Controls AG.

Saia-Burgess Controls AG.


Bahnhofstrasse 18

3280 Murten

Tel: +41 26 / 672 72 72

Fax: +41 26 / 672 74 99

E-mail: [email protected]

Homepage: www.saia-pcd.com

Support: www.sbc-support.com

Postal address for returns from customers of the Swiss Sales office:


Service Après-Vente

Bahnhofstrasse 18

3280 Murten

Appendix

Adress

A


A-4

SBC PCD7.L6xx room controller Owner's Manual

Manual

PCD7.L6xx room controllers

0 Content

1 Overview

2

Commissioning instructions

3 Function

FBox inputs FBox FBox outputs

4

Example applications

5

Register usage

6

Technical data

correct

wrong

A Annex

Saia-Burgess Controls AG.

Saia-Burgess Controls AG

Postal address for returns from customers of the Swiss Sales office:

Related manuals

Table of contents

SBC PCD7.L6xx room controller Owner's Manual

Manual

PCD7.L6xx room controllers

0 Content

1 Overview

2

Commissioning instructions

3 Function

FBox inputs FBox FBox outputs

4

Example applications

5

Register usage

6

Technical data

correct

wrong

A Annex

Saia-Burgess Controls AG.

Saia-Burgess Controls AG

Postal address for returns from customers of the Swiss Sales office:

Related manuals

SBC

PCD7.L60x-1 room controller up to FW SV2.12

SBC

PCD7.L6xx room controller

saia-burgess

PCD7.L641

SBC

PCD7.L6xx room controller

SBC

PCD7.L60x-1 Room controller from FW SV2.13

SBC

PCD7.L6xx room operation device

SBC

Replacement procedure of PCD7.L60x

SBC

Single Room Controller

SBC

PCD7.L60x-1 room controller up to FW SV2.12

SBC

PCD7.L60x-1 room controller up to FW SV2.12

Table of contents