
Marquee

Bezel

CPO #1

CPO #2

CPO #3 (pre-installation)

Side Arts are neon Spiders.


Turns out leaf-switches BY FAR out-perform micro-switches for speed! Who knew? Case in point: no one in my household using micro-switched pushbuttons could beat some of the default world records from Track and Field like games, which depend upon how fast you can push the buttons. Someone at MAMEWorld (edit: Yaggy) told me that was because the original T&F cabinets had leaf switches, not microswitches, which are more responsive due to not having to overcome the micro-switch springs. So I ordered some authentic leaf-switched pushbuttons from LizardLick Amusements to test this out. I installed just one of them on my "joystick and buttons" control panel, as pictured to the left. OMG! While playing on my very first quarter, using just that one button, I set the world record on the first three events in a row! (Of course the fourth event, the hammer toss, doesn't depend upon rapid button pushing, so it made no difference there.) Just to confirm I wasn't in some special spaz-trance mode, I replayed the next quarter using the old micro-switched pushbuttons, and it was my usual round of flubbed scores. The difference IMO is the leaf-switch needs to travel only a mere fraction of a millimeter with near-zero pressure changes, and will respond simply as fast as you can vibrate your twitchy muscles. The micro-switch has to travel its entire length to set, and then reset, requiring a larger fluctuation in pressure from resting to pressing, which simply limits how fast you can vibrate the button.



I went with MaLa for my front end. I tried many others, and MaLa was by the far the most powerful and also the most inuitive to configure, especially if you get all thier plug-ins like GameList Editor, LEDwiz, Layout Editor, Mature Alarm ;) and others. Game list are edited with automated right-clicks, layouts can drag-and-drop, and it can be customized with multiple emulators (or any .exe), multiple layouts for different menus, sounds, movies, pictures, and 3D models.
Black velour cloth covers the speaker shelf, which makes it impossible to see the speaker holes, and also appears so black there's no distracting glare at all like from formica or paint.
You read a lot about buying car speakers for the arcade cabinet, but I don't see why. I used the PC's speakers, which are actually a high quality set with tweeters and midrange speakers. I routered a recess in the speaker shelf to hold them in place, and routered the centers all the way through for the sound holes. Here you can see the speaker off-set to show off the recess and speaker hole (which is covered with black cloth).
This image shows the "L" adapter plugged into the neon transformer from the outside. This allows the "desktop" style transformer to be mounted inside the cabinet, and the neon light to plug in from the outside and rise up against the side of the cabinet. It took some fancy router work and a whole Sunday's worth of cussing to get it right, but it looks fantastic and all those swear-words paid off.
When looking for side art, I thought neon would look cool, and after hunting on the net, I realized at $34.95 the sculptures from "I Love Neon" were even cheaper than printed vinyl! Here you can see one of the neon light transformers attached to the inside of the cabinet, with its socket pointing outward so the neon light can plug into it. I took the bottom off of the transformer (it was designed to sit on a table), drilled holes in its case and screwed it directly to the cabinet. This holds the transformer (and the neon sculpture on the other side) securely in place.
I used Happ's Coin Door for the Home Arcade Cabinet, (part #40-0713-00, $32.95) which looks great, but doesn't have any switch mechanism. The coin return buttons push in, but don't do anything, so I rigged up a piece of wood with two Cherry switches attached to it. Now the coin-return plungers activate the switches. Works and looks fantastic. The "Player 1" coin return is being depressed in this photo (the one pictured on the right), and you can see it activating the switch, which serves as my "coin" buttons.
As part of my 3rd control panel, here is HAPP Controls' Pinball Universal Ball Shooter Assembly (part #95-0086-00 $13.99), seen here in resting position. At rest, it is pressing on a ‘normally closed’ push-button inside the control panel drum (thus opening the circuit). Pulling the assembly releases the button, thus closing the circuit and “charging” the shooter. Releasing the assembly then opens the circuit again, launching the emulated pinball with force equal to how long the assembly was held pulled out. An excellent simulation of the real thing, as players will pull the assembly out further (which takes longer) to fire the ball harder. It all looks and feels real. Yes, that plunger does bash the snot out of the push-button, and I'm sure it will break in a matter of time. And when the button breaks, a new pushbutton is about $2. In this photo you can also see the black flipper buttons, and white tilt buttons built into the sides of the third control panel. Notice the blue t-molding on the edge of the shot several inches away. On the third control panel, this gap between the cabinet outside (blue t-molding) and the control panel outside (where the buttons are) is large enough for the player to hold the machine like they are holding a pinball table, without having the buttons deface the clean outside of the cabinet itself.
ELECTRIC ICE push-button problem: As you can see in this photo, the Electric Ice Push-button cherry-switch holder protrudes too far laterally by only about 1/16 of an inch, and you can't screw your button-nut on as a result. It tips the nut as it's going on, and won't allow the threads to line up properly. I had to trim the cherry switch holders on every single one of them in order to use them. How that got past their production design folks I'll never know. They claim the switches are made from the same exact molds as Happ's buttons, but one obvious difference is Happ buttons don't have the LED lamp holder, so.... not sure what to make of that claim. Worse is all the parts are sold and packaged separately. After ordering all the various parts to get a working illuminated button, at over $7 a button, I wouldn't expect to have to do all my own soldering of resistors, bulb installation, and holder trimming. For less than $4 a button, I could have gotten a great looking illuminated button from Ultimarc that comes preassembled, resistored, and wired, with an optional chrome bezel at no extra charge! I wouldn't go with Electric Ice pushbuttons again.
The wires exit the axle through a hole drilled in the side of the cabinet, travel through a routered groove downward until they are beyond the radius of the rotating drum, then the wires go back into the cabinet. The unsightly groove full of wires was then covered with paper (so the wires wouldn’t stick to the tape), then wide masking tape, then the formica laminate was laid on the cabinet sides which hide the wire-groove entirely. I realize I’m screwed if I need to replace one of the wires, but they still pull back and forth, so I could thread a new wire in by pulling an old one out if I had to.
I made these pivots by using 1” floor flanges, fitted with a PVC threaded-to-fitted adapter, and inserting the PVC tubing. The fitting between the tubing and the adapter is lubricated with silicone oil so it rotates freely in the fitting. The crookedness of the panel you see in this photo was corrected after the picture was taken.
Here you see the concept in place. I used a 1” PVC pipe for the axle. Being hollow it also allows for the wires to get outside of the rotating drum by passing them inside it. The wires travel loose in the pipe for 14 inches, being restricted only at either end, meaning the maximum twist of 120 degrees is distributed out over that length, bring the actual twist on the wires to a minor 8 degrees per inch, well within the wire’s tolerance. The only wires that had to pass through this conduit were: 


