Skip to content

DeWalt Screwdriver Holder

The GYRO screwdriver is the tool you reach for twenty times a day and then can never find, because it is round, it rolls, and it does not stand up. This gives it somewhere to live: a small square plate that screws to a wall, a cabinet door or the back of a bench, with a sleeve on it that the driver drops straight into. Two screws, ten grams of filament, and it stops migrating.

The part

One printed piece, exported from Fusion 360. Every number below is measured off the STEP file in this folder, so you can check the fit before you spend an hour of print time on it.

FeatureDimension
Base plate38.1 × 38.1 mm (1.5 in square), 6 mm corner radii
Plate thickness1.0 mm
Sleeve outside diameter24 mm
Sleeve bore20 mm, through, with a 1 mm rounded lead-in at both ends
Sleeve length20 mm, centred on the plate
Wall thickness2 mm
Overall height25 mm
Mounting holes2 × Ø3 mm on the centreline, 5 mm in from each end (28.1 mm apart)
Head reliefØ8 mm × 0.75 mm deep around each hole

The sleeve is a plain through-tube, not a cup. Mount the plate on a vertical surface with the bore running up and down and the driver goes in nose-first and hangs on whatever part of it is wider than 20 mm; mount it flat and the sleeve becomes a scabbard you slide the tool into sideways. Either works — the two screws sit directly in line with the bore, which is the arrangement you want when a tool is hanging off it.

This is the driver mount. There is no bit rack in the model — the bore is one open sleeve and nothing else. If you want bits on the same plate, that is a change to the .f3d, not a second file in this folder.

Parts

Some links below are Amazon affiliate links. As an Amazon Associate I earn from qualifying purchases — at no extra cost to you. It helps keep these guides free. Outside the US, they should send you to your own Amazon store; if one doesn't, searching the part number there will find it.

And the tool it is built around, which is not part of the build: the DEWALT GYRO 8V MAX screwdriver and a 71-piece DEWALT bit set to feed it.

Print it exactly as exported — plate flat on the bed, sleeve arching over it. Nothing else is worth trying: stood on end the plate has no support under it and the whole thing is a 25 mm tower on a 1 mm base.

SettingValue
Layer height0.2 mm — the 1 mm plate comes out as five whole layers
Walls / perimeters4
Infill25%
SupportsNone
MaterialPLA+, or PETG for a hot space
OrientationPlate on the bed, as exported

The wall count is what carries the load here, not the infill — a 2 mm sleeve wall is five extrusion widths on a 0.4 mm nozzle, so four perimeters makes it very nearly solid and the infill percentage barely matters.

PETG if it lives anywhere warm. The plate is 1 mm thick and it is holding a weight that never comes off. PLA creeps under a constant load once a garage gets into the thirties, and the failure is slow enough that you will not notice until the sleeve is drooping.

The top of the bore is a 20 mm unsupported arch and will sag a little as it closes over. That is fine — it is a clearance sleeve, not a bearing, and the sag is at the top where nothing bears. If you want it clean, turn supports on for the bore only and pull them out afterwards; the 1 mm lead-in radius at each end makes them easy to get a fingernail behind.

Mounting

  1. Measure the driver first. Callipers on the part of the barrel you want sitting in the sleeve. Under 20 mm and you are done; over it and you want to open the bore in the .f3d before printing rather than after.

  2. Print it, then test-fit dry. If the bore is tight, a couple of passes with a round needle file or a rolled strip of sandpaper takes the sag off the top of the arch. Do this before it is on a wall.

  3. Mark the holes. Two, on the centreline, 28.1 mm apart. Hold the plate where you want it and mark straight through it — that is faster and more accurate than measuring, and the plate is thin enough to see through.

  4. Fix it down with the bore vertical if the tool is going to hang in it, or horizontal if you are laying the tool in sideways. Snug the screws, then stop.

  5. Drop the driver in and check it clears the wall. Twenty-five millimetres of standoff is not much, so if your driver has a fat grip section, mount the plate somewhere with nothing above or below it.

The shoulder the screw head lands on is only 0.25 mm thick — the Ø8 mm relief takes the plate down to almost nothing around each hole. It is there so the head sits flush, not so you can crank on it. Tighten these by hand until they stop turning easily and no further, and put a washer under each head if you have one. Overtighten and the head pulls straight through the plate.

Changing the bore

The Fusion source is in the folder, not just the mesh, so this is a five-minute edit rather than a remodel. The bore is a single 20 mm circle and the sleeve’s outside is a 24 mm one concentric with it — change the bore and push the outside out by the same amount to keep the 2 mm wall, or leave the outside alone and accept a thinner one down to about 1.6 mm before it stops being worth printing.

The same file is the right starting point for anything else round and homeless — a glue gun, a soldering iron, a torch. The plate and the screw spacing do not care what is in the sleeve.

Files & downloads

Printable parts

Loading 3D model…
Drag to rotate · Scroll to zoom · Right-click to pan

Parts marked from CAD are tessellated from the STEP files below, for previewing only — approximate where the STEP is exact. Download the STEP for the real model.

CAD source

The design itself, if you want to change it rather than print it. A STEP file is exact geometry and opens in almost anything; a Fusion 360 archive keeps the modelling history, so you can go back and edit the sketch that made the part.

Every file for this project on GitHub →