Quoted Text
You soldered that little doohickey?
Kimmo
Hi Kimmo,
Yep, it's all soldered together. Except for the size, it wasn't a particularly hard assembly to make.
Here's an excerpt from the Voyager instructions showing how the parts of the wicket latch fit together.
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First, for all of the work on the wicket latch, I used VERY small chips of solder and liquid flux. I use a butane torch for all my soldering work.
The technique for heating these very small parts could be called "Indirect Conduction Heating." I use a pair of fine-tipped tweezers to hold the parts, clamping the solder joint while supporting the work. I use the butane torch to heat the tweezers near their tips. The heat transfers through the tweezers to the small PE parts. When they get hot enough, the solder chip will melt and flow.
If you try to heat these very tiny brass parts directly, you run the risk of burning them or melting them. However, using the indirect, conduction heating method, the PE parts are never damaged.
I started by bending the "wings" on part E43. I then folded the bolt details over and soldered them in place. To solder the bolts, I held them tight to the surface of E43 with fine-tipped tweezers, applied a small drop of liquid flux and a VERY small solder chip. I heated the joint using the indirect conduction heating method.
I then cleaned up parts E36 and E55. I straightened a piece of brass wire and cut two pieces about a cm long and threaded the wire through E43 to connect parts E36 and E55. I then threaded the second piece of wire through the outer holes in E36 and E55.
Using my fine-tipped tweezers, I grasped both pieces of wire between parts E36 and E55 allowing part E43 to hang freely. The shape to part E36 held E43 more or less level.
With the two pieces of brass wire held in the tweezers, I used another pair of tweezers to push and twist the wires and PE parts into alignment. I then applied a small drop of flux and a small chip of solder to the joint with the wire and parts E43 and E36.
I heated the tweezers and melted the solder by indirect conduction heating.
Without releasing the tweezers, I then made some small adjustments in alignment, turned the assembly over and repeated the soldering at the joint of the wire and parts E55 and E43.
I used a drop of lacquer thinner and a small nylon brush to remove the excess flux. I then cut the wires on one side to length and sanded their ends even and flat. I used tweezers to grip the part in the center at the wire hinge pins, and then cut and sanded the wires on the other side.
The small clevis, part E56 was simply bent to shape and slipped over a piece of wire a couple of cm's long. A small drop of flux and a chip of solder were applied to outside of the wire-part joint on one side. With the opposite side of the wire in the tweezers, I used the indirect conduction heating technique.
The melted solder always runs or flows towards the heat source, so by heating the opposite side of the wire, the solder flowed into the wire-part joint.
I flipped the part around in the tweezers and repeated the soldering process for the other side of the part. Any solder drawn from the first joint back towards the tweezers (the indirect heat source) could be considered excess and not necessary.
Again, I cleaned the flux away with a drop of lacquer thinner and trimmed the ends of the wire on either side of the clevis.
I slipped the clevis (part E56) onto the end of the lever (part E36) and glued the latch assembly to the tank using an acrylic glue. The PE hook on the wicket, kit part B7, PE part E44, was used to align the latch.
Solder is your friend when it comes to all things PE!
Happy modeling!