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ABB i-bus KNX Product Manual
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ABB i-bus KNX Product Manual

ABB i-bus KNX Product Manual

Light controller with sensor lr/s with lf/u, intelligent installation systems
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Summary of Contents for ABB i-bus KNX

  • Page 1 ® Product Manual ABB i-bus Light Controller with Sensor LR/S with LF/U Intelligent Installation Systems...
  • Page 2 This manual describes the function of the Light Controller LR/S x.16.1 with the corresponding Light Sensor LF/U 2.1 with the application program Control Dim xf 1-10V/1.0 (x = 2 and 4 outputs). Subject to changes and errors excepted. Exclusion of liability: Despite checking that the contents of this document match the hardware and software, deviations cannot be completely excluded.

  • Page 3: Table Of Contents

    Per output for function Block ............91 3.3.6 Per output for function Light control ..........92 3.3.7 Per output for function Slave mode..........96 3.3.8 Per output for function Staircase light ..........97 3.3.9 Per output for the Diagnostics............98 © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 4 Lighting intensity................144 A.4.2 Light density .................. 145 Energy efficiency potential with domestic and intelligent installation systems............146 LR/S x.16.1 scope of delivery ............147 LF/U 2.1 scope of delivery ............... 147 Ordering information ................ 148 © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 5: General

    1-10V interfaces – be introduced as a master in a KNX lighting ® system which integrates a wide range of components, e.g. ABB i-bus Switch/Dim Actuators SD/S, DALI Gateways DG/S or Universal Dim Actuators UD/S, into an energy efficient constant lighting control system.

  • Page 6: Product And Functional Overview

    The minimum requirement is version ETS2 V1.3. Preferably the most up-to-date version should be used. Important The Light Sensor of type LF/U 1.1 is not suitable for use on the Light Controllers LR/S 2.16.1 or LR/S 4.16.1. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 7: Properties Of The 1-10 V Interface

    1. The ballast is turned on with an open circuit contol line. The luminary should ignite at full intensity. 2. Short-circuiting the control line, e.g., with a wire jumper (observe second point!). The lamp should now dimm down to the minimum brightness. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 8 Isolation of the ballasts is carried out via the switch contact in the control device. • The maximum loading of the control device must observed: 1. Loading of the 1-10 V control line. 2. Maximum switching capacity of the output circuit, including consideration of in-rush currents. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 9: Device Technology

    (MDRC) in ProM Design for installation in the distribution ® board on 35 mm mounting rails. The connection to the ABB i-bus implemented via a bus connection terminal on the device shoulders. The LR/S can control dimmable electronic ballasts or transformers with a 1-10 V interface via two or four outputs –...
  • Page 10 0.2…4 mm stranded, 2 x (0.2-2.5 mm Connections load circuit ferrules without/with plastic sleeves 0.2…6 mm solid, 2 x (0.2-4 mm TWIN ferrules Without 0.25…2.5 with 0.25…4 mm Tightening torque 0.5…2.5 mm Maximum 0.8 Nm © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 11 AC5a – Switching of electric discharge lamps These switching performances are defined in the standard DIN EN 60947-4-1 Contactors and motor-starters - Electromechanical contactors and motor-starters. The standard describes starter and/or contactors which previously preferably used in industrial applications. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 12 320 A (600 μs) Maximum peak inrush-current I 200 A 18 W (ABB EVG 1 x 58 CF) Number of electronic ballasts (T5/T8, single element) 24 W (ABB EVG-T5 1 x 24 CY) 36 W (ABB EVG 1 x 36 CF)
  • Page 13 The programming requires ETS2 V1.3 or higher. If ETS3 is used a *.VD3 or higher type file must be imported. The application program for the ETS2/ETS3 can be found at ABB/Lighting Devices/Illumination and Light Sensors/Control Dim xf 1-10V/1, (x = 2 or 4, number of outputs).

  • Page 14: Connection Schematics

    Light Sensor. In all three fault scenarios (open circuit, short circuit and incorrect polarity) the value read via the object Sensor value is equal to 0. This value corresponds with the value of absolute darkness. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 15: Dimension Drawings

    ® ABB i-bus Device technology 2.1.3 Dimension drawings LR/S 2.16.1 LR/S 4.16.1 Dimensions LR/S 2.16.1 LR/S 4.16.1 72 mm 108 mm Width 4 space units 6 space units * MW = module width © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 16: Light Sensor Lf/U 2.1

    2-3 m IP 20 to DIN EN 60 529 Enclosure to DIN EN 61 140 Safety class Overvoltage category III to DIN EN 60 664-1 Isolation category Pollution degree 2 to DIN EN 60 664-1 © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 17 Deviations may also occur if the Light Sensor is influenced by direct or reflected light falling on it which is not influenced or only slightly influenced by the surfaces in the detection range of the Light Sensor. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 18: Connection Schematics

    100 mV depending on the brightness. If 0 V is also measured at normal brightness, this is due to an open circuit, short circuit or inverse polarity fault or a defective sensor. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 19: Dimension Drawing

    ® ABB i-bus Device technology 2.2.3 Dimension drawing LF/U 2.1 Dimensions For installation in 60 mm flush Flush mounted mounted box device 54 x 20 (Ø x H) Dimensions © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 20: Polar Diagram

    Light Sensor with transparent rod Light Sensor with white coating Ceiling Ceiling The diagrams show the light sensitivity of the sensors in the room. The percentage values refer to the maximum sensitivity of the Light Sensor. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 21: Assembly And Installation

    Device technology Assembly and installation The ABB i-bus Light Controllers LR/S x.16.1 are suitable for installation in the distribution board or small enclosures for fast installation on 35 mm mounting rails to DIN EN 60 715. The mounting position of the Light Controller can be selected as required and no auxiliary voltage is required.

  • Page 22: Description Of The Inputs And Outputs

    Lux value in the room. In all three fault scenarios – open circuit, short circuit and incorrect polarity – the value read via the object Sensor value is equal to 0. This value corresponds with the value of absolute darkness. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 23: Assignment Of The Physical Address Of A Knx Device

    KNX device ® The assignment of the address of the ABB i-bus Light Controller is carried out via the ETS and the programming button on the device. The device features a programming button located on the edge of the device for assignment of the physical device address.

  • Page 24: Supplied State

    Corrosive materials or solvents should never be used. In order to avoid negative influence on the brightness detection it is necessary to be very careful when cleaning the rods of the Light Sensor. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 25: Commissioning

    You will require a PC or Laptop for parameterisation with the ETS (from ® ETS2 V1.3) and a connection to the ABB i-bus , e.g. via an RS232 or USB interface. If ETS3 is used a *.VD3 or higher type file must be imported.
  • Page 26 Scenes (8 bit scene) Assignment of the output in up to 18 scenes Forced operation 2 bit coded forced operation 1 bit forced operation recall Behaviour after bus voltage recovery Blocking, block output via 1 bit object © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 27 Resolution of the status response (feedback) Additional functions - Slave mode e.g. for integration in the constant lighting control - Staircase lighting Prewarning via dimming and/or KNX object Staircase lighting time via the bus Legend: = property applies © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 28: Parameters

    ETS user interface if all parameters are used. If in the following the object Switch or Brightness value is mentioned, they also apply for the objects Switch/Status or Brightness value/Status. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 29: Parameter Window General

    However, the telegrams are not processed. The outputs remain unchanged. No telegrams are sent on the bus. After the sending and switching delay, telegrams are sent and the states of the outputs are set to correspond to the parameterisation or the communication object values. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 30 Limit number of telegrams Options: In order to limit the bus load caused by the device, it is possible to parameterise a limit on the number of telegrams. • yes: The following parameters appear: © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 31 A new period commences at the end of the previous period. The telegram counter is reset to zero and sending of telegrams is allowed again. The current object value is always sent at the time of transmission. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 32: Parameter Window Light Sensor

    Light Sensor B is allocated to output B. On the 4-fold LR/S the additional Light Sensor C is allocated to output C and Light Sensor D is allocated to output D. • yes: The parameter window changes: © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 33 This setting ensures that constant lighting control requires the least possible level of artificial lighting. This achieves the largest possible conservation of energy. However, the brightness at many locations in the room is very likely below the target brightness level. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 34 Furthermore, no direct incidence of light and no reflections may influence the Light Sensor. For further information see: Placing of the Light Sensor. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 35: Parameter Window X: General

    In these parameter windows the properties of the Constant lighting control are parameterised. • Slave mode in lighting control: The output of the light controller is defined as a slave. This slave output must then be forcibly operated by a master. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 36 Additional function runs: The Control controls, the Staircase light runs and the Slave mode receives brightness values from the master. With corresponding parameterisation of the switching commands the additional functions can be set to standby mode. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 37 With this parameter the response of the switching state can be inverted. With an inverted response the object Status switch features the following values: 0 = lighting (output) is on 1 = lighting (output) is off © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 38 As a result the bus load can be reduced significantly. This defines the time intervals at which the brightness values are sent on the bus. The disable time only relates to the status objects Status Brightness value and Brightness value. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 39 Thus the lamps are controlled with a brightness value of 100 %. A prerequisite is a closed relay contact of the output. Note Constant lighting control is no longer possible if the bus voltage fails. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 40 Value object "Switch" on bus voltage recovery has a higher priority than the parameter in the parameter window X: Slave, “Slave mode after supply voltage recovery”. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 41: Parameter Window X: Function

    This function is useful for example if the settings made by the user are to be reset and the lighting is to be set with a defined brightness value. The special properties of the presets are defined in the X: Presets parameter window. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 42 100 % (255), 99 % (252)…0 % (Off) The brightness value applied for switching on the lighting of the output during activated forced operation, can be parameterised with this parameter. Forced switch off of the output is also parameterised. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 43 2 bit control: A 2 bit Forced operation object is enabled. If the Light Controller receives a telegram with the value 2 or 3 via this object, the output of the Light Controller is forcibly operated. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 44 OFF and remains inhibited until forced operation is again deactivated. • switch on by force (value 3): The output is switched on and controlled with the parameterised brightness for forced operation in the ETS. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 45 This means that a characteristic adjustment must be set in the output of the Light Controller or in the external slave. In a master/slave combination of LR/S x.16.1 and DG/S 1.1 or DG/S 8.1, a characteristic adjustment may not be transferred to the DG/S. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 46: Parameter Window X: Switch

    Switch or Switch/Status object receives the telegram value 1. • last brightness value: The brightness value before the last switch off is restored. This is at the least, the brightness value of the lower dimming value, see parameter window Dimming. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 47 The set dimming time relates to the full dimming range of 0 % to 100 %. Note The reaction of the Light Controller with activated light control is parameterised in the parameter X: Control X: Control Operating. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 48: Parameter Window X: Dimming

    During slave operation, when setting a brightness value and when recalling a scene or preset, the value limits which are parameterised in the parameter window apply. X: Value The dimming value is independent of the value or control limit. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 49 Allow switching on via relative dimming Options: This parameter determines if switched off lighting can be switched on by a Brighter dimming telegram. • no: The output must be switched on before dimming. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 50 The value is overwritten by a download. With a bus voltage failure the value of the change dimming speed via this object is lost, and at bus voltage recovery the value is overwritten with the original value parameterised in the ETS. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 51: Parameter Window X: Value

    Dimming value which is parameterised in the parameter window and which applies for the dimming, switching and X: Dimming staircase lighting function. • Control limit which is parameterised in the parameter window and which applies during lighting control. X: Control © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 52 If a brightness value is received during a dimming process, the dimming process is stopped and then a new brightness value is implemented. Note The reaction of the Light Controller with activated light control is parameterised in the parameter X: Control X: Control Operating. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 53: Parameter Window X: Presets

    With the first recall of a preset the current state (brightness value) is stored. At the same time; it does not matter which of the four presets are recalled. Further preset recalls do not initiate a renewed save. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 54 With the parameterisation restore value before first preset call or reset to parameterised value before preset 2, saving of the preset concerned has no effect. The saved value is not recalled but rather the parameterised function is undertaken. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 55 This parameter enables the object Set preset 1 and 2. It is thus possible to store the currently set brightness value as the new preset value. Telegram value 0 saves preset 1, whereas telegram value 1 saves preset 2. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 56: Parameter Window X: Scene (1) To X: Scene (6)

    If a scene number is received via the object 8 bit scene, the stored scene value (brightness value) is recalled. Alternatively, the possibility exists to store the current brightness value as the new scene value. For further information see: Code table 8 bit scene telegram © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 57 Time to set new brightness value “Transition time” in s [0...65,535] Options: 0...3...65,535 With this parameter the transition time which is required until the scene brightness value is reached is set. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 58 Using this parameter a further parameter window X: Scene (y) is enabled. Scene assignments can be made here. Note With the execution of the scene the defined value limits are considered in the parameter window Value. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 59: Parameter Window X: Charact. Adj

    Accordingly, additional parameters appear with which the individual X/Y values are to be entered to suit the parameterised number of value pairs. X0 lower sensor value (input) Options: 1…255 Y0 Adjusted brightness value (output) Options: 1…255 © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 60 This means that a characteristic adjustment must be set in the output of the Light Controller or in the external slave. In a master/slave combination of LR/S x.16.1 and DG/S 1.1 or DG/S 8.1, a characteristic adjustment may not be transferred to the DG/S. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 61: Parameter Window X: Control

    1-10 V devices which are connected to the output of the LR/S x.16.1. Via the master/slave function additional luminaries can be integrated into the lighting ® control of the LR/S, e.g. DALI luminaries via an ABB i-bus DALI Gateway ®...
  • Page 62 Bus voltage recovery directly after bus voltage recovery. If the switch object is written with a 0 at bus voltage recovery, the lighting will be switched off again and the light control will go to standby mode. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 63 In the parameter window Light sensor you can parameterise if the smallest, the largest or the average sensor values are used for Light control calculations. For further information see: Constant lighting control © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 64 Artificial lighting calibration must always be undertaken. The sequence of daylight and artificial light calibration is not in any desired order. Calibration with artificial light must be performed before calibration with daylight. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 65 It is possible that a Light Controller also controls other operation dimming actuators. In this case the Light Controller (Master) also controls other Dimming Actuators (slaves) via the object Brightness value of slave or other channels internally directly in the LR/S. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 66 • medium: The Light Controller commences with sending dimming steps at medium speed (< 3 seconds) to achieve the setpoint. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 67 10 % the message Attention: illuminant charact. is displayed. If a brightness value is recalled which is less than the lower limit, the Light Controller sets the lower limit for the output. This value is reported back on the bus. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 68 In this way it is possible to parameterise switch off dependent on the setpoint deviation. In this way continuous switch on and switch off is avoided. This causes interference and damages the luminaries. The following parameter appears: © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 69 This should be selected if no daylight calibration is to be performed, e.g. the natural brightness is not sufficient or no shading possibilities are available to set the setpoint during daylight. Both parameters are enabled: © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 70 Light Controller are not overwritten by mistake and that a renewed calibration is required. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 71: Parameter Window X: Control Dynamics

    This parameter defines the step time of a control step in the start up phase. The smaller the step time, the faster that the control steps are applied with their increment size (brightness). The Light Control quickly approaches the setpoint. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 72 Constant lighting control Control deviation for high increments (max. control step) Options: 10…30…255 This value represents the control divergence (difference between the setpoint and actual value) up to which the maximum increment can be controlled. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 73 In this way continuous control with the respective changes in brightness is avoided. This generates a smoother and less abrupt response and considerably reduces the bus load with a master/slave control. For further information see: Constant lighting control © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 74: Parameter Window X: Control Operating

    The light control is in standby mode and recommences with light control via an ON command or when a telegram with the value 1 is again received on the activate control object. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 75 The light control can be reactivated by an ON telegram or via the object activate control. • Restart control with brightness value: With activated light control the switch on brightness and light control are restarted with an ON command. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 76 The last brightness value is the constant brightness value which existed when light control was switched off. If no last brightness value is stored, a 100 % or maximum brightness is assumed. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 77 This function should re-establish the same level of lighting for persons who leave the room and return after a brief period. It is particularly useful if the lighting is automatically switched by a presence or motion detector. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 78: Parameter Window X: Slave

    In slave mode the output of the Light Controller follows the brightness value provided by the master output via the object Brightness value of slave. ® In this way the output of another ABB i-bus device can be integrated into the constant lighting control of the Light Controller.
  • Page 79 Slave mode can be deactivated: With active slave mode it is ended with a dimming command and dimming is undertaken. The slave more is latent and waits until a renewed activation via the object Activate slave mode. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 80 Slave mode after voltage recovery described here. If in the parameter window the output has been parameterised as X: General a slave and if the outputs are parameterised individually, a further parameter appears: © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 81 The internal master function is selected if one of the options Output x, Output y or Output z is selected. It must be considered that the selection of an output is offered when it is no longer parameterised as a master. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 82: Parameter Window X: Staircase Light

    Time duration in sec [0…65,535] Options: 0…180…65,535 This parameter determines the time duration for which the staircase lighting is switched on with the staircase light brightness. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 83 If an ON telegram is received during the dimming time, the staircase light time is retriggered. • yes (retriggerable): The staircase light time is reset each time by an ON telegram and starts to count again each time. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 84 During the dimming time additional warning is possible by setting the object Warning staircase lighting to 1. Thus for example, a pushbutton LED can be controlled or a warn signal initiated which informs concerning the impending staircase lighting switch off. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 85: Communication Objects

    If the additional function is deactivated (by sending of a 0 to the object activate xy), the respective bit of the object Status function is automatically 0. 1, 2, 4…9 Free not assigned © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 86: Per Output

    X: General or two separate objects are available for the switch and feedback. An inversion of the switch status can also be parameterised. The numbers of the objects apply for outputs A to D. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 87 Dim values which are above or below the max. or min. dimming values will not be received, the parameterised max. or min. dimming values remain as they are with further dimming. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 88 Brightness value, the status is sent. Other brightness values, setting commands, e.g. by scene or preset recalls only trigger sending of the status with a status change. The numbers of the objects apply for outputs A to D. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 89 Forced operation has a higher priority than blocking an output. The state of the bus voltage can be parameterised. For further information see: Parameter window X: Function The numbers of the objects apply for outputs A to D. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 90 Forced operation has a higher priority than blocking an output. The state of the bus voltage can be parameterised. For further information see: Parameter window X: Function The numbers of the objects apply for outputs A to D. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 91: Per Output For Function Preset

    (or Preset 3 value). The value 1 saves the current brightness value as Preset 2 value (or Preset 4 value). Telegram value: 0 = Set preset 1 or preset 3 1 = Set preset 2 or preset 4 The numbers of the objects apply for outputs A to D. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 92: Per Output For Function 8 Bit Scene

    A telegram with the value 1 which is received via this object resets all scene values to the standard values parameterised in the ETS. Telegram value: 0 = no reaction 1 = overwrite scene values with standard value The numbers of the objects apply for outputs A to D. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 93: Per Output For Function Block

    After bus voltage recovery or download the blocking is removed and the must be reset if required. Telegram value: 0 = remove block 1 = block active The numbers of the objects apply for outputs A to D. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 94: Per Output For Function Light Control

    0 = Immediately resets the readiness to receive a telegram for the objects Calibration daylight and Calibration lighting, i.e. telegrams to the objects Calibration lighting and Calibration daylight are not carried out. The numbers of the objects apply for outputs A to D. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 95 The sequence of daylight and artificial light calibration is not in any desired order. Calibration with artificial light must be performed before calibration with daylight. The numbers of the objects apply for outputs A to D. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 96 255 = 100 % Via the master/slave function additional luminaries can also be integrated with the Light ® Controller of the lighting control of the LR/S, e.g. DALI luminaries via an ABB i-bus DALI ® Gateway DG/S or other 1-10 V luminaries via the ABB i-bus Switch/Dim Actuators SD/S.
  • Page 97 During normal operation it is advisable to remove the T flag to prevent unnecessary bus loads. 33,58, Free not assigned 83,108 The numbers of the objects apply for outputs A to D. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 98: Per Output For Function Slave Mode

    In this case the value limits are set. Telegram value: = OFF output is switched off, slave mode remains Active. … 255 = 100 % The numbers of the objects apply for outputs A to D. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 99: Per Output For Function Staircase Light

    If a forced operation is activated during the prewarning, the prewarning is reset and a 0 is written into the object Warning staircase lighting and a telegram with the value 0 is sent on the KNX. The numbers of the objects apply for outputs A to D. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 100: Per Output For The Diagnostics

    Activate xy (xy = light control, slave mode for light control or staircase lighting time). If the additional function is deactivated (by sending of a 0 to the object activate xy), the respective bit of the object Status function is automatically 0. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 101 The state of the additional function (staircase light operates, Light Controller controls or the slave does not contain a brightness value from the master) is indicated in the object Status function (No. 3). The numbers of the objects apply for outputs A to D. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 103: Planning And Application

    Light Controller is required for the calculation of the maximum number of ballasts. Each output should be considered individually. A mutual influence between the outputs must not to be considered. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 104: Load Current Influence

    Maximum peak inrush-current I If these limit values are exceeded the relay will be destroyed, e.g. it will weld. Example ABB EVG 1 x 58 CF: Peak inrush current Ip = 33.9 A (147.1.μs) For the LR/S 4.16.1 Light Controller this means:...

  • Page 105: Control Current Influence

    The polarity must be observed when the control line is connected. If the polarity is reversed, the ballast can not be dimmed and the minimum dimming value is set. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 106: Function Chart

    Forced operation Block Evaluation KNX bus voltage failure / recovery Objects: Status Brightness value, Brightness value of slave Characteristic correction Brightness value Switch relay 1-10 V output Status Switch Brightness value and Brightness value of slave © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 107: Staircase Lighting Time

    Dimming value Brightness behaviour with basis brightness = 0 Base brightness x % Dimming value Brightness behaviour with a basis brightness not equal to 0 = duration of the staircase lighting function = dimming time (prewarning) © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 108 In this example, a dimming with the corresponding prewarning is parameterised. The prewarning is visualised by the dimming. At the same time, the object Warning staircase lighting can be switched as a project-specific warning (e.g. optical or acoustic warning). © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 109 T , the staircase lighting time is added to the remaining period. Dimming T (warning time) is not changed by "pumping up" and is added to the extended (x times T ) staircase lighting time. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 110: Preset Description

    Object Set Preset 1 and 2 = 0 Save preset 2 Object Set Preset 1 and 2 = 1 A similar behaviour applies for preset 3 and 4 with the objects Set preset 3 and 4 and Recall preset 3 and 4 © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 111 A similar behaviour applies for preset 3 and 4 with the objects Set preset 3 and 4 and Recall preset 3 and 4 © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 112: Bit Scene

    The information (brightness value and transition time) is not stored in the ® pushbutton, but rather in the Light Controller and the other ABB i-bus devices in the system. All scene devices, such as an output of the Light Controller, are addressed by the same group address. It is sufficient to send a single telegram to recall the scene with all outputs involved.
  • Page 113 KNX each time they are to be retrieved. Note The scene numbering 1 to 64 is retrieved via the KNX with a telegram number 0 to 63. Refer to the code table for the corresponding scene coding. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 114: Characteristic Adjustment

    The value, dimming and brightness values are used before the transformation. Through the transformation a setting signal may result for the lamps which is less than or greater than the maximum or minimum brightness values. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 115: Differing Light Strips

    X: Charact. adj. 4 and entered for the above mentioned offset of the following values: X0 = 1/Y0= 1, X1 = 20/Y 1 = 1, X2 = 254/Y2 = 235, X3 = 255/Y3 = 255 © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 116 3 and the following values are entered: X0 = 1/Y0= 20, X1 = 235/Y 1 = 254, X2 = 255/Y2 = 255 Brightness control output Adjustment curve Slave Normal curve Master Object Brightness value of slave © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 117 This means that a characteristic adjustment must be set in the output of the Light Controller or in the external slave. In a master/slave combination of LR/S x.16.1 and DG/S 1.1 or DG/S 8.1 a characteristic adjustment may not be transferred to the DG/S. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 118: Constant Lighting Control

    In this case the artificial light is completely switched off by the Light Controller. If the level of daylight is not sufficient for the setpoint, artificial lighting is added until the setpoint brightness is achieved. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 119 This behaviour ensures that only energy necessary to ensure the optimum level of brightness is used. The energy consumption can be reduced further ® if additional presence detectors, e.g. ABB i-bus Presence Detectors BW/S or Presence Detector PM/A are integrated into the system. In this way the light and the light control can only be switched on if there are persons located in the room.

  • Page 120: Constant Lighting Control Properties

    Interference of the artificial lighting calibration caused by daylight has the effect that the Light Controller assumes that the illumination can produce a larger brightness level than is actually the case. The Light Controller will set a lower level of brightness in control operation. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 121 If the user returns after a short time (within the adjustable follow-up time) the lighting is automatically set again to the maximum brightness value and the light control remains active. The temporary setpoint set by the user, e.g. by dimming, remains active. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 122 Further luminaries can be integrated into the constant lighting control which are not directly connected to the Light Controller. These for example, can be ® DALI lamps via an ABB i-bus KNX DALI Gateway or a dimmer. These components are controlled directly as so-called slaves directly by the Light Controller (= master).

  • Page 123: Positioning Of The Light Sensor

    Light Sensor is influenced by direct or reflected light falling on it which is not influenced or only slightly influenced by the surfaces in the detection range of the Light Sensor. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 124: Commissioning/Calibration Of The Constant Lighting Control

    When this constant brightness value has set, the object Enable calibration must be used to switch the objects Calibration lighting and Calibration daylight in a ready to receive state by sending a telegram with the value 1. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 125 The end of artificial lighting calibration is indicated when the value 0 from the object Calibration lighting is sent on the bus. The T flag must be set for this purpose. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 126 Interference of the artificial lighting calibration caused by daylight has the effect that the Light Controller assumes that the illumination can produce a larger brightness level than is actually the case. The Light Controller will set a lower level of brightness in control operation. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 127 0 by the Light Controller. If a shading device is not available for use or the daylight is not sufficient, a manual daylight calibration can be undertaken. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 128 For this purpose the burn-in time (see section 4.7.4) of the luminaries must be considered and already completed. Consider also that some fluorescent lamps only develop their full lighting intensity a few seconds after being switched © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 129 The calibration should be performed preferably at two measurement points, e.g. at a setpoint of 500 lx, the light control should be performed in daylight from about 200 lx and 400 lx. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 130 This is independent of if the calibration has been performed manually or automatically. The artificial lighting and daylight calibration must be performed again with a change of the Light Sensor arrangement. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 131: Effect Of Ageing On Lamps

    During the burn-in time which usually lasts between 50 and 100 hours, the luminaries must be operated at 100 % brightness. The burn-in time of a luminaire can be obtained from the manufacturer. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 132: How Does Brightness Detection Function

    In principle, simplified light control can appear as follows. In the following example, the setpoint brightness is achieved starting from an actual brightness level to a setpoint brightness level in three steps: Brightness Setpoint brightness Y = increment Actual brightness 3 x step time Time © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 133 Dynamics. The parameter window X: Control Dynamics is visible X: Control if in the parameter window the parameter Changing brightness X: Control during lighting control is set to individual setting. The parameterised variables are written in the following illustration. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 134 In this way continuous control with the respective changes in brightness is avoided. This generates smoother and less abrupt response and considerably reduces the bus load with a master/slave control. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 135 Step time for slow approach [1 s…10 s] Control deviation for medium dimming speed [0…50] Maximum increment size of a control step [1…10] Control deviation for high increments (max. control step) [10…255] Control deviation for high increments [0…30] © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 136: Slave Mode

    If the master sends the brightness value 0 the lighting is switched off. The behaviour of the slave mode after bus voltage recovery can be parameterised. ® An integration of further ABB i-bus components in the Light Controller can typically appear as follows: © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 137: Behaviour With Bus Voltage Failure, Recovery, Download And Ets Reset

    / or does not control). If the parameter restore status before failure is selected, the value of the object Switch before bus voltage failure is written again to the object Switch after bus voltage recovery and the function complying to the value is undertaken. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 138 This is independent of if the calibration has been performed manually or automatically. The artificial lighting and daylight calibration must be performed again with a change of the Light Sensor arrangement. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 139 ® ABB i-bus Planning and application © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 140 ® ABB i-bus Planning and application © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 141: Interdependence Of The Functions

    The parameterized behaviour with bus voltage failure or recovery acts directly on the switching contacts and thus has the highest priority. A graphic representation with the active principles of the priorities is described in chapter Function chart in a flow chart. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 143: A Appendix

    The following table indicates the telegram code for an 8 bit scene in hexadecimal and binary code with the first 64 scenes. Normally when retrieving or storing a scene an 8 bit value must be sent. © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 144 – – 253 FD – – – – – – – – – – – – – – – – – – 170 AA – – – – – 171 AB – – = applicable © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 145: A.3 Table For The Object Status Function

    Note: The information regarding if the additional function is actually active can be queried via the first bit of the status byte of the output, or directly via the respective object Activate xy (xy = control, staircase light, slave mode). © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 146: Terminology In Lighting Technology

    This is not an ABB-specific phenomena bit rather is the case for all constant lighting controls which function according to this principle. Different lighting technology terms are explained in the following to improve understanding of what is involved.

  • Page 147: A.4.2 Light Density

    90-100 cd/m The luminance is defined as follows: L = I / A L = light density in cd/m I = luminous intensity in cd A = surface area in m © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 148: Energy Efficiency Potential With Domestic And Intelligent Installation Systems

    ® ABB i-bus Appendix Energy efficiency potential with domestic and intelligent installation systems Graphic representation of the study results of the ZVEI report concerning potential for savings using interdisciplinary intelligent installation systems. © 2008 ABB STOTZ-KONTAKT GmbH...

  • Page 149: Lr/S X.16.1 Scope Of Delivery

    ® ABB i-bus Appendix LR/S x.16.1 scope of delivery The ABB i-bus® KNX Light Controller LR/S is supplied together with the following components. Please check the items received using the following list. • 1 pcs. LR/S x.16.1 , MDRC •...

  • Page 150: Ordering Information

    Light Controller, 4-fold, MDRC, 2CDG 110 088 R0011 0,33 LR/S 4.16.1 6648 99 Light Sensor, FM 2CDG 110 089 R0011 LF/U 2.1 6641 65 MB = module width Not suitable for LR/S 2.2.1 and LR/M 1.6.1 © 2008 ABB STOTZ-KONTAKT GmbH...
  • Page 152 The technical details in this publication are subject to change without notice. Your KNX-Partner Your EIB- Partner www.abb.com/knx...

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