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The only improvement is, maybe, the chosen
SSR (Solid State Relay) :
SHARP S116S02 for 110V or
S216S02 for 220V, which require less current/voltage to be triggered and
accepts higher load (16Amp maximum with adequate heat sink).
These characteristics permit to preserve the local control components and
functionality.SHARP S216S02 was successfully tested on
220V installation. At this stage, I couldn't confirm that S116S02 work well
on 110V (all feedback are welcome).
Like for all modifications, take care of the
fact that you are working on "line voltage 120V/220V". Don't try to plug
your work until you closed the box and screwed it.
This page is for information only, all the
modifications that you perform on the original module are AT YOUR OWN
RISKS.
The first part explains how to proceed to
modify a lamp module (465) without changing its nominal voltage (110V).
The second part, gives
more info to convert the silent appliance module in 220V with European plug.
Modification to Silent appliance module |
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Take a standard Lamp Module (LM465).
The one used as sample is not a "true" X10,
but the PCB is the same |
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Prepare the required components :
1 x S116S02 (for 110V) or S216S02 (for 220V)
1 x 2K2 ohms resistor
1 x 22 µF polarised cap (35V)
S116S02/S216S02 could be purchased at
Digikey (for example) |
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Unscrew the module and remove (unsolder) the
Triac screwed on the heat sink |
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To have a better access to the PCB, unsolder
the two wires of the coil (they will be soldered back, later at their
original position).
Put the S116S02/S216S02 on the original heat
sink.
Screw it with bolt and nut. |
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On the PCB, remove R5 and R10 (close to the
bottom left hedge on the picture)
Before.... |
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After (not a hard work, almost no difference
except at the left bottom edge of the picture). |
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Prepare the 22µF capacitor and solder it at
the place of R5.
This component is polarized. It means that
the minus - leg should at internal side. Therefore, + sign should be closest
to the edge of the board. |
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Solder also a red thin wire on the leg of
the diode closest to the new capacitor (it will be the + wire to control the
SSR). |
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Result will look like this : |
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Cut one of the resistor wires to build a U
shape.
Solder it at the end. |
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Prepare the already assembled resistor by
soldering a black wire at the other side (black wire will be the minus (-)
SSR command) |
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Solder the "bridge" at the original place of
the R10. |
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We have successfully performed the "low
voltage" modification
Now for the main voltage : unsolder the
existing thick brown wire at "old" Triac side |
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Enlarge the existing hole previously used by
the Triac. |
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Solder a new wire to the drilled hole.
Connect the SSR using the 4 existing cables.
Thin black to the minus (-) terminal
Thin red to the plus (+) terminal
Thick brown close to the plug to the first ~
AC terminal
Thick brown replacing the Triac to the second ~AC terminal. |
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Don't forget to resold the two wires of the
coil. |
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Reassemble the plug, it's now ready to use.
On the basis of my knowledge, it works with
fluorescent lamp (but fluorescent could blink due to the sensing current
required by the local control), motor, lamp, heater,.... (no limitation as
far I know).
Note,
a very important point : S216S02 is designed for a
maximum load of 16 Amp WITH an appropriate HEAT SINK. The reused one gives
only the ability to hold a maximum of 500W.
No components limit the
current intensity (no fuse). It means that you could use it with greather
load BUT : you will smell the plastic box OR/AND blow the S216-S02. Take
care of the RISK of FIRE if you bypass the 500W limit.
If you want a 16 amp module, at least,
replace the coil with thick wire (without using a Triac, its added value is
very limited).
See a sample picture of 16 amp module below |
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