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Who This Checklist Is For
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Step 1: Measure the hardware itself, not the spec sheet
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Step 2: Pick the bit by total cost, not sticker price
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Step 3: Test-drill on the same material — the most skipped step
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Step 4: Set a physical depth stop
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Step 5: Drill at the right speed and clear the chips
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Step 6: Install the hardware — and know how to handle a stripped screw
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Step 7: Verify hole placement and label the door
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Things I still get wrong (and what to watch for)
Who This Checklist Is For
I've been handling cabinet and millwork production orders for a mid-size shop for about 9 years. In that time I've personally made — and written down — 14 significant hardware-placement mistakes. Total waste: roughly $6,800 in materials, rush replacements, and rework. Not a badge of honor. Just the reason this list exists.
This checklist is for the person at the bench with a hardware spec sheet and a cabinet door, trying to figure out exactly where the hinge cup goes. It covers concealed hinges, drawer slides, pulls, and knobs. Seven steps, roughly 30-45 minutes for a standard base cabinet. And yes, there's a step for when a screw strips out halfway through and you have to extract it without scarring the face frame — because that happens, and nobody talks about it.
A quick note on scope: my experience is mostly frameless and face-frame cabinets in plywood, MDF, and particleboard. If you're working with solid hardwood doors or exotic materials, your experience might differ at a few of these steps.
Step 1: Measure the hardware itself, not the spec sheet
Hardware specs are printed by people who have never had to return 40 drilled doors. The spec says the hinge cup is 35mm with a 2.5mm offset? Great. Measure the actual hinge in your hand anyway.
Why: I learned this the hard way in September 2022. We ran a 50-piece order using a template built from the manufacturer's spec sheet. The hinges in that shipment had a slightly different cup depth — about 1.5mm off. The doors still closed, but they didn't sit flush. We ended up re-drilling all 50, plugging the old holes, and refinishing. Cost: about $940 in material and a 6-day delay. That's when I learned to caliper the actual part, every batch.
The fix is stupid-simple: take one hinge out of the box, caliper it, compare to spec. If it's off, adjust your setup before you touch the first cabinet door. Takes 90 seconds. Saves a week.
Step 2: Pick the bit by total cost, not sticker price
Here's where I'll get on a soapbox for a second. The drill bit isn't the expensive part of this job. The cabinet door is. And a cheap bit that wanders, burns, or dulls after 12 holes is the most expensive tool in the shop, because it turns a $30 door into scrap.
I used to buy the $6 brad-point bits. Then I tracked it: on a 40-door run, we went through 6 bits, and 11 doors had tear-out around the cup hole that needed filler and touch-up. The filler and touch-up time alone was about 3 hours. At our shop rate, that's more than the "expensive" bits cost.
We switched to freud tools — specifically their drill bits for the hinge cup and shelf-pin work — about two years ago. More per bit, yes. But I get 3-4x the holes per bit before it starts burning, and the brad point holds center on melamine without a pilot. The TCO math isn't close. I'm not saying they're the only option — I haven't run every brand out there — but on our runs, the math flipped.
Same logic applies to freud saw blades when you're cutting the door and panel stock before drilling. A dull blade leaves a fuzzy edge, which makes your measurement marks harder to read and your hole placement less precise. We keep a dedicated freud saw blade for finish cuts and swap it before it starts dragging. The blade cost is real. The rework cost is worse.
What I mean is that the "cheapest" tool isn't the one with the lowest price tag — it's the one that gets you through the job without a scrap pile. I now calculate total cost per hole, not cost per bit, before I order anything for the bench.
Step 3: Test-drill on the same material — the most skipped step
If you only take one thing from this article: drill a test hole in a cut-off of the exact material you're about to drill. Not "similar." Exact.
Particleboard and MDF behave differently. Plywood has voids. Melamine chips if you look at it wrong. A bit speed that's clean in solid oak will burn a dark ring in MDF. I keep a labeled bin of offcuts next to the bench for this purpose. It's a small habit that catches a lot of errors before they become a stack of bad doors.
On the test piece, check three things: tear-out at the entry, blow-out at the exit, and hole diameter. If any of those are off, adjust speed or bit before drilling the real thing. This is the step most people skip because it feels like a delay. It's not — it's the cheapest insurance in the shop.
Step 4: Set a physical depth stop
Most drill presses have a depth stop. Use it. If you're drilling by hand, wrap tape around the bit at the target depth. The hinge cup on a 35mm concealed hinge usually needs a specific depth — too shallow and the hinge won't seat; too deep and you've punched through the door face.
I don't trust my eyes on depth. I trust a stop collar or a tape wrap, and I check it on the test piece first. This is the step that feels unnecessary right up until the moment you drill 2mm too deep and see daylight on the face of a finished door. Granted, it adds a few seconds per hole. But a scrapped door costs a lot more than a few seconds.
Step 5: Drill at the right speed and clear the chips
Forstner bits and brad-point bits want a moderate speed and steady pressure. Too fast and you burn the material; too slow and you get chatter. The biggest mistake I see — and made for years — is not clearing chips. On a deep cup hole, the chips pack into the flutes, the bit heats up, and the next thing you know you've got a burn ring that won't sand out without changing the hole diameter.
Pull the bit out every 1/4 inch or so on deep holes. Let it clear. It adds maybe 10 seconds per hole and saves the door.
Step 6: Install the hardware — and know how to handle a stripped screw
Once the holes are drilled, you're mounting hinges, slides, and pulls. This is where a different kind of mistake happens: over-torquing a screw into particleboard or a soft hardwood and stripping the head or the hole.
If the screw head strips, don't muscle it. Get a stripped bolt socket set — the kind with the internal flutes that bite into the rounded head — and back it out clean. I keep a small set in the bench drawer specifically for hinge screws and drawer slide screws. (Should mention: the socket set is for the screw head, not the hole. If the hole itself strips, that's a different fix — glue and a hardwood plug, then re-drill.)
If you're installing into a material that strips easily, pre-drill the screw hole and use a hand driver for the last few turns. Impact drivers are great for framing; they're kind of a liability on cabinet hardware.
Step 7: Verify hole placement and label the door
Before the door goes into the finish queue, check the hole placement against the hardware. Open and close the door. Pull the drawer slide through its range. Look for binding, rubbing, or gaps. This is a 2-minute check that catches the error while the door is still on the bench, not after it's installed in a customer's kitchen.
Then label the door on the inside edge with the cabinet number and hinge side. You'll thank yourself at install. I didn't used to do this, and I once watched an installer spend 40 minutes figuring out which door went where because the labels were missing. That's a $60 problem caused by skipping a 10-second step.
There's something satisfying about a door that closes flush on the first try — no binding, no rubbing, no "we need to re-drill this one." After the $940 mistake in 2022, that flush close feels earned.
Things I still get wrong (and what to watch for)
Dull bits. A dull drill bit is like a dull 14 inch chainsaw chain — it forces you to push harder, which means less control, more heat, and a higher chance of wandering off your mark. If the bit is smoking or squealing, stop and swap it. Don't push through. I've made that mistake more than once, and it always ends with a burn ring or a blown-out hole.
Template drift. If you're using a reusable template, check it against the hardware every few weeks. Templates get dropped, clamped too hard, or just wear at the guide edge. A 1mm drift on a template becomes a 1mm error on every door after it.
Mixing hardware batches. If you're installing hinges from two different shipments, measure both. Manufacturers change suppliers. I've seen a 2mm cup-depth difference between two batches of the "same" hinge. This is exactly the kind of thing that happens quietly and costs you a weekend.
The TCO trap on "cheap" jobs. The quote with the lowest bit and blade cost per unit isn't the cheapest job. Add up bit replacements, rework time, filler and touch-up, and the occasional scrapped door. The math usually points the other way. I get why people go with the cheapest option — budgets are real, and it's easy to just look at the line item. But the hidden costs add up fast, and they don't show up until the job's already late.
This pricing and process was accurate as of Q1 2025 based on our shop's costs and a sample of roughly 300 cabinet orders. Tool prices and material costs change — verify current rates before you build a budget around these numbers.