Exploded view, rendered from the production components
The only part that faces the wall
Brushed steel, screwed down over the movement, with a keyhole slot cut straight into the plate rather than a separate hanger bolted on, and an access window for setting the time. It sits flush, so the clock hangs flat instead of tilting forward off a hook.
101 — The keyholeCut straight into the plate. No bracket holds the clock off the wall, so it hangs flat.202 — The time wheelThe black wheel turns the hands. You reach it with the clock still on the wall.303 — The date switchThe second wheel steps the date, one through thirty-one, without taking anything apart.
The side that faces your wall. Follow the markers, one to three.
The one part that decides whether it ticks
Our high-torque sweep module. A stepper motor advances once a second and you hear every one of them; this drives a continuous glide and makes no sound at all. It is the component the demonstration further up this page is about.
Our clock
Continuous glide
Our Gen-II high-torque module drives an unbroken sweep, rated below 10 dB. It reads like the high-beat frequency of a mechanical escapement and you cannot hear it across a room.
A typical quartz clock
One step per second
The hand jumps between markers and stops dead on each one. On a clock this size the movement carries an audible tick into the room with it.
The part nobody expects to find
A printed ring numbered 1 to 31, geared to the movement and turning once a day behind the dial. Almost no wall clock carries one, because almost no wall clock is trying to be faithful to anything.
Thirty-one positions on one disc, changing itself at midnight — stepped under the aperture the way a watch does, the seconds hand gliding past it. Illustration of the mechanism, not a live clock.
Where the lume lives
Photoluminescent phosphor applied in depth into each marker rather than printed flat onto the face. The markers stand proud of the surface inside polished surrounds, which is why they catch light across a room and still read in the dark.
Lights offThat is the lumeEvery marker and both hands are filled with photoluminescent paint. Daylight or a lamp charges it; in the dark it stays readable for about three hours, then fades. No battery, no backlight.
Longer than a wristwatch is wide
Hour, minute and a sweep second, finished separately and fitted by hand. At this diameter a minute hand is long enough that its own weight loads the movement differently at six o’clock than at twelve, which is why the module is specified with torque to spare.
DaylightLights outUV reactiveThe same phosphor takes a charge from daylight, a lamp or a UV torch — and gives it back for about three hours.
Hour, minute and second hand before fitting. Drag the divider — the pale inserts are the same phosphor as the markers.
A lens, not a sticker
The magnifier over the date is a ground glass element set into the crystal itself, not a printed circle or a plastic dome glued on afterwards. It is the detail most tributes skip, and the first one anyone who knows the reference goes looking for.
Flat crystal
Ground lens — 2.5×
The pair above is drawn, not photographed: the date is rendered once and redrawn at exactly 2.5× inside the lozenge, so the ratio is structural rather than eyeballed. The photograph is the clock glass itself, before it goes into a case.
One front assembly, not a ring clipped on
Case band and bezel come together as a single unit rather than a bezel pressed on at the end, so there is no seam to work loose and nothing to rotate out of alignment. Everything above drops into it from the front, and the back plate closes it.
101 — The technicianSomeone is standing at the machine the whole time, watching the cut. Nothing here runs unattended.202 — The toolingThe spindle that puts the coin edge on. Every flute is cut by this tool, one pass at a time.303 — The finished bezelPressed, faced and drilled — off the machine and ready for its printed insert.
Bezel blanks — coin edge cut and profiled in-house. Follow the markers, one to three.