SDIM Load Configuration |
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Click on the SDIM control gear item in the Devices View.
If the Properties view is not already open, select View > Properties, or press F4.
It may be useful to name the item according to its location or purpose:
In the Common section, click in the Name field.
Enter a name for the device .
Click . The device is renamed in the Devices view.
Click in Groups field.
Enter the group to be assigned to the item.
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Click .
In the Loads section, click in Groups To Append field.
Enter the group to be assigned to the item.
This will maintain the current grouping.
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Click .
This is the level/ scene that the channel will go to when the router and/or control gear is powered on.
You can set this channel to power on to a specific scene, level, last level before fail, off, or the minimum, maximum or system fail levels.
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Click in the Power On This Channel To field.
Click and select a lighting setting for the channel to power on to.
Click .
This is the minimum level that the channel will achieve, no matter what scene is called or level is set. For example, if you set a minimum level of 50 % and call scene 4 (at 25 % level), the channel output level will be 50 %.
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Click in the Min Level field.
Enter a percentage value (1 %–100 %).
Click .
This is the maximum level that the channel will achieve, no matter what scene is called or level is set. For example, if you set a maximum level of 50% and call scene 2 (at 75% level), the channel output level will be 50 %.
Click in the Max Level field.
Enter a percentage value (1 %–100 %).
Click .
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The circuit power loading can be set when a device does not calculate its own power consumption. Calculate the total power consumption of all the lamps connected to the device and enter this amount in this field (this will be an estimation of the total power consumption of the load ).
Click in the Circuit Power Loading field.
Enter a value in the range of 0 to 16384 W (0.25 W resolution).
Click .
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The circuit power factor can be set when a device measures its own power consumption. The Imagine SCR Dimmer (HES9200), Sine Wave Dimmer (HES92060), Imagine Transistor Dimmer (HES92220) and Current Monitor Unit calculate their own power consumption.
The power factor of an AC electrical circuit is defined as the ratio of the real power to the apparent power.
Real power is the capacity of the circuit for performing work in a particular time. The unit is watts (W).
Apparent power is the product of the current and voltage of the circuit. The unit is volt-ampere (VA).
Due to energy stored in the load (control gear) and returned to the source, or due to a non-linear load that distorts the wave shape of the current drawn from the source, the apparent power can be greater than the real power.
In an electric power system, a load with a low power factor draws more current than a load with a high power factor, for the same amount of useful power transferred. The higher currents increase the energy lost in the distribution system, and require larger wires and other equipment. Because of the costs of larger equipment and wasted energy, electrical utilities will usually charge a higher cost to industrial or commercial customers where there is a low power factor.
Click in the Circuit Power Factor field.
Enter a value between 0 and 2.55.
Click .
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This field is used to flag a problem if the power consumption falls below this value, when the output level is at 100%. For example, if 1kW of mains tungsten lamps are installed on this channel, a good value for minimum expected power may be 800 W.
Click in the Minimum Expected Power field.
Enter a value between 0 and the maximum expected power value (which is in the range of 0 to 16383.75 W, see below).
Click .
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This field is used to flag a problem if the power consumption rises above this value, when the output level is at 100 %. For example, if 1kW of mains tungsten lamps are installed on this channel, a good value for maximum expected power may be 1200 W.
Click in the Maximum Expected Power field.
Enter a value between the minimum expected power value and a value up to 16383.75 W.
Click .
By default, the load table and minimum fade time are set at the device. To enable the load table and minimum fade time to be set in Designer:
Click in the Load Table and Minimum Fade Time Set At Device field.
Click and select False.
Click .
The following table shows the load table for all products:
Old products |
Current monitor unit |
HES92220 Transistor dimmer |
Output unit |
HES92000/ HES92020 SCR dimmer |
Ambience 4 SCR dimmer |
458 SCR dimmer |
458/OPT4 options module |
Non-dim |
Table 0 |
Non-dim |
Switched 0/10 Volts sink |
Non-dim |
Non-dim |
Non-dim |
Switched 0/10 Volts sink |
Tungsten Linear |
Table 1 |
Tungsten Linear |
Analogue 1–10 Volts sink |
Tungsten Linear |
Tungsten Linear |
Tungsten Linear |
Analogue 1–10 Volts sink |
Tungsten Square |
Table 2 |
Tungsten Square |
Analogue 0–10 Volts sink |
Tungsten Square |
Tungsten Square |
Tungsten Square |
Analogue 0–10 Volts sink |
Tungsten S-Law |
Table 3 |
Tungsten S-Law |
Tungsten S-Law |
Tungsten S-Law |
Tungsten S-Law |
PWM+ |
|
EL-FD pulse |
Table 4 |
El tx with lamp warm |
Analogue 3.5–10 Volts |
EL-FD pulse |
EL-FD pulse |
DALI logarithmic |
PWM– |
EL-FD |
Table 5 |
Electronic transformer |
PWM switched |
EL-FD |
EL-FD |
Old 452 |
DALI broadcast |
Cold cathode |
Table 6 |
Tungsten low power |
Cold cathode |
Cold cathode |
Reserved |
DSI |
|
Reserved |
Table 7 |
Reserved |
DSI switched |
Reserved |
Reserved |
Reserved |
Reserved |
3 Wire |
Table 8 |
El tx switched |
PWM with relay delay |
3 Wire |
3 Wire |
Reserved |
Reserved |
The load table can only be set when the Load Table and Minimum Fade Time Set At Device field is set to False (see above).
Click in the Load Table field.
Click , and then select a load type.
Click .
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Click in the Minimum Fade Time field.
Click , and then select a minimum fade time from 20 milliseconds, 150 milliseconds, 500 milliseconds and 1 second. Note that the default is 1 second.
Click .
By default, override is set in Designer. To enable override to be set at the device:
Click in the Override Set At Device field.
Click , and then select True.
Click .
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Click in the Override Level field.
Enter a value between 1 % and 100 %.
Click .
By default, switch on and hysteresis is set in Designer. To enable override to be set at the device:
Click in the Switch On and Hysteresis Set at Device field.
Click and select True.
Click .
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The channel will not switch on unless it receives a command to go to or above this level. See related Hysteresis section below.
To set the switch on level:
Click in the Switch On Level field.
Enter a value between 2 % and 64 %, in 2 % steps.
Click .
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Hysteresis is used to affect the level at which the channel switches off. When hysteresis is on, the switch off level is 80 % of the switch on level. At or below the switch off level, the channel will be off. For example, if the switch on level is 50 %, and the signal rises to this level or above to turn the channel on, then if the signal falls to 40 % or below, the channel turns off.
To enable Hysteresis:
Click in the Hysteresis field.
Click , and then select True.
Click .
To lock the load table, minimum fade time, override, switch on and hysteresis settings, so that they cannot be changed at the device:
Click in the Lock Settings field.
Click , and then select True.
Click .
You can change the type of device that is expected to be found at this address.
Click in the Expected Device Type field.
Click , and then select from all the valid SDIM device types.
Click .
The device is now configured and ready for use in the lighting system .