Build a Les Paul from Home-Center & Amazon Parts — Part 2: The Build

A page that walks through how to build your own electric guitar — for anyone who’s ever thought “I want to try making one myself!”

This page walks through the entire process of building a DIY guitar using nothing but tools and parts you can pick up at a home center or on Amazon.

* The series is split into [Part 1: Planning & Design] and [Part 2: The Build]. This page is [Part 2: The Build].
If you haven’t read [Part 1: Planning & Design] yet, I’d recommend starting there:

TOC

Build & Assembly [First Half] (1) — Glue up the lumber and rough-cut the shape

Did you get through [Part 1: Planning & Design]?
Now we’re finally diving into the actual build.

In this section we glue up the body and neck blanks and rough-cut the body and neck shapes.

Gluing up the lumber

First we glue up the body lumber bought at the home center to hit our target thickness.
(We’ll cut it to shape later.)

Body dimensions are shown below.

Les Paul body outline with overall dimensions in mm and inches

As I mentioned in Planning Part 5, here are the woods I went with:

(1) Body top: glued maple board, 350 mm (≈13¾″) wide x 600 mm (≈23⅝″) long x 20 mm (≈¾″) thick
(2) Body back: glued cherry board, 350 mm wide x 600 mm long x 20 mm thick

That gives a combined thickness of 40 mm (≈1⅝″) for (1)+(2). I wanted a touch more, so I sandwiched a 4 mm (≈5/32″) plywood sheet between them to bring it up.

Total thickness: 44 mm (≈1¾″).

Maple, cherry and 4 mm plywood boards stacked to reach the 44 mm body thickness

For the glue-up, I’m using the classic Titebond.
It bonds incredibly well.

Bottle of Titebond wood glue used for the body glue-up

Spread glue on each board, stack them, then clamp them tight.
Leave it like this for a day until the glue fully cures.

Body boards glued and held under clamps while the glue cures

Clamps off.
Three boards now act as one solid piece.

Three glued boards clamps removed, now one solid body blank

Body blank — rough cut

Now we cut the glued-up body blank to shape.

For now we just rough out the outline.
Sanding and shaping the surface curves comes later.

Print the blueprint at 1:1 scale, glue it onto the lumber, then follow the outline with a jigsaw.

Glue the blueprint onto the lumber

Here’s the body blueprint printed at 1:1 scale:

Guitar body blueprint printed at 1:1 scale

Cut around the outline with scissors.
Glue it onto the body lumber.
Regular paper glue is fine here — nothing fancy.

Body outline blueprint cut out and glued onto the wood

Blueprint glued to the wood.

Cut with the jigsaw

A jigsaw is a power tool that handles curves.

Use a curve-cutting blade and it’ll go through more smoothly.

Cutting the body outline on the wood with a jigsaw

<Heads up>
As shown below, the area where the body meets the neck gets really thin if you cut to the final shape — thin enough that it can snap.
So leave the area marked (3) below uncut for now — we’ll trim it after the neck is glued on.

Diagram marking area (3) near the neck joint left uncut to avoid a thin, breakable section

Follow the glued-on blueprint and start cutting.

Cutting along the glued-on blueprint outline with the jigsaw

Mostly cut.

Body blank mostly cut to the rough outline

Inside-curve sections like the next photo are awkward — making relief cuts first makes life easier.

Relief cuts made into an inside-curve section before jigsawing

Body shape rough-cut, done.

Body shape rough-cut and complete

Cutting and gluing up the neck blank

Body done — now the neck. Cut and glue up.

As I mentioned in [Part 1: Planning & Design], the neck is glued up from three pieces, like this:

Diagram of the neck glued up from three pieces of wood

First, cut the lumber to match the template.

Cutting the neck lumber

Mark the cut lines on the wood with a pencil.

To do that, cut out the side-view blueprint with a utility knife and lay it on top of the wood.

Side-view neck blueprint laid on the wood to mark the cut lines

Then trace the shape onto the wood with a pencil.

Neck shape traced onto the wood in pencil from the side-view blueprint

Cut along the traced line.

For this I used a circular saw and a jigsaw.
The circular saw gives cleaner straight cuts, but a jigsaw alone will get the job done too.

Run the circular saw along a straight guide…

Running a circular saw along a straight guide to cut the neck lumber

Straight cuts come out cleaner with a circular saw, but a jigsaw works too.

For the tighter areas, switch to the jigsaw.

Cutting tighter neck areas with a jigsaw

Three pieces cut out.

Three neck pieces cut out from the lumber

Problem though: in this state the headstock isn’t wide enough (see below).

Diagram showing the headstock area is not wide enough as cut

So I added little side pieces to bulk it out.

Small side pieces added to the headstock to widen it

Neck pieces cut.

Gluing up the neck

Same as the body — Titebond.

Prep:
Rough up the mating surfaces with coarse sandpaper (I used #80).
The light scratches give the glue more to grab onto.

Neck pieces cut, then mating surfaces roughened with #80 sandpaper for a stronger glue joint

Glue-up:
Spread Titebond.
(I’m wearing rubber gloves so I don’t gunk up my hands.)

Spreading Titebond glue on the neck pieces while wearing rubber gloves

Doing all three at once felt risky, so I started with two.

Glue them together, then clamp.

Two neck boards glued together and clamped

Two boards bonded.

Two neck boards bonded into one piece

Glue up the third piece the same way, clamp, and wait for it to set.

You end up with a solid neck blank like in the photo.

The three glued pieces forming a solid neck blank

One snag: the cuts weren’t quite to spec, so the headstock end came out with a dip in the middle (see photo).
Plan was to sand it flat later.
→ Spoiler: I gave up on flattening it and just left the dip.
It doesn’t affect anything functional, so I called it good.
I’m calling it “design”!

Dip in the middle of the headstock end from an off-spec cut

Smooth the top face — where the fretboard glues on — with a sander.
I used a powered orbital sander.

Smoothing the neck's top face with a powered orbital sander

Neck blank cut and glued up.
Final shaping happens after the truss rod is installed.

Neck blank cut and glued up, ready for later shaping

Build & Assembly [First Half] (2) — Cutting the truss rod channel

The truss rod (covered in Planning Part 1) is the metal rod buried inside the neck — turning a bolt at one end lets you adjust neck relief.

Now we cut the channel that holds it.

Tool: trim router (laminate trimmer)

This step is hard to do without a trim router — it’s basically essential for guitar building.

First, mark the fretboard position. Lay the fretboard drawing on top of the neck blank,

Fretboard drawing laid on top of the neck blank to mark its position

and mark its outline in pencil.

Fretboard outline marked on the neck blank in pencil

I set the truss rod so its end pokes out about 10 mm past the end of the fretboard.

Truss rod positioned about 10 mm past the fingerboard end, with inch equivalent

Before cutting the channel, I measured the truss rod itself.
It came out to 6 mm (≈¼″) wide and 8.8 mm (≈11/32″) deep, as shown below.

Truss rod cross-section measuring 6 mm wide and 8.8 mm deep with inch equivalents

Now route the channel.

Clamp the workpiece down.

Then clamp a straight piece of wood next to it as a guide for the router (see below).
You can’t freehand a straight channel — you need that fence.

Straight guide board clamped beside the neck as a router fence for the truss rod channel

Heads up: don’t try to plunge the full depth in one pass — it overloads the router and is dangerous. Take it down ~3 mm at a time.

Switch the router on and run it along the guide.

Running the trim router along the guide to cut the truss rod channel in shallow passes

A few passes back and forth and the channel is cut.

Truss rod channel routed into the neck

Channel depth: 9 mm (≈⅜″).
Truss rod is 8.8 mm — good fit.

Measuring the routed channel depth at 9 mm to fit the 8.8 mm truss rod

The truss rod’s end is shaped differently and is wider — adjust the channel to match.

Diagram of the truss rod's wider, differently shaped end

Swap to a 10 mm bit and widen the end.

Widening the channel end with a 10 mm router bit

Drop the truss rod in to test fit.

Test-fitting the truss rod into the routed channel

Truss rod channel: done.

Build & Assembly [First Half] (3) — Cut the neck outline, drill the headstock holes

In this section we rough-cut the neck outline and then drill the holes for the tuning pegs.
Still rough-cut territory — back-of-neck shaping and final smoothing comes later.

Cutting the neck outline

Pencil in the cut lines.

Neck outline cut lines drawn on the wood in pencil

Cut with the jigsaw.
Follow the pencil lines.

Cutting the neck outline along the pencil lines with a jigsaw

One side of the neck shaft cut.

(Yes, the truss rod is still in there — no particular reason.)

One side of the neck shaft cut, truss rod still in place

Now the headstock.

Starting to cut the headstock outline

For curved sections like the one below, relief cuts make life easier.

Relief cuts made into the curved headstock section before cutting

Headstock cut.
The edges are still rough — we’ll clean those up later.

Headstock cut out with edges still rough

Outline cut, all the way around.

Neck outline cut all the way around

Fixing a headstock step (one-off repair)

* This step isn’t normally required. *

Because I built up the neck blank from glued boards, small dimensional errors left a step in the headstock area after glue-up (see photo).

Time to fix it.

The step’s pretty big though, so rather than try to flatten it completely I went for a smooth transition.

Step left in the headstock area after glue-up, needing repair

First I knocked the corner off at an angle with a chisel.

Knocking the headstock corner off at an angle with a chisel

Then smoothed it with sandpaper.

Smoothing the reshaped headstock step with sandpaper

Ended up like the next photo.

Honestly, this one I can totally call “design” (?).

Headstock step reshaped into a smooth transition

Did the same on the back.

The same smooth reshaping done on the back of the headstock

Drilling the tuning peg holes

Drill the holes for the tuners on the headstock.

Marking out the tuning peg holes on the headstock

Use a power drill.

Start with a small bit (around 2 mm) and step up the bit size gradually.

* Place a sacrificial board underneath when you drill.
Without backing, the back face tends to splinter (those nasty little burrs).

Drilling tuning peg holes with a power drill over a sacrificial backing board

One side’s tuner holes done.
(A little splintering on the back, but the tuners cover that area, so I’ll let it slide.)

Tuning peg holes drilled on one side of the headstock

Other side: same drill.

Tuning peg holes drilled on the other side of the headstock

Test-fit a tuner.
Slides right in.

Test-fitting a tuner into a drilled headstock hole

Holes drilled, done.

Build & Assembly [First Half] (4) — Fret slots and position-marker holes

Next up: the fretboard.
This section covers:

The fretboard blank:
– Thickness adjustment (8 mm to 6.35 mm / ¼″)
– Outline cut
– Cutting the fret slots
– Drilling position-marker holes

The thickness step is unnecessary if you ordered wood pre-cut to thickness, but I trimmed mine down with a router.

Adjusting fretboard thickness

For the fretboard, I cheated and went to a specialist shop (Aichi Wood) — I covered this back in “Planning Part 5: Wood prep.”

Since I broke the “Amazon or home center only” rule there, as a tiny act of penance (?), I’m doing the thinning myself — pretending I’d bought the wood from a home center and needed to thin it to spec.

The fretboard blank starts at 8 mm (≈5/16″) thick.
Target: 6.35 mm (¼″).

Fingerboard blank being thinned from 8 mm stock to a 6.53 mm target, with inch equivalents

Tool: trim router.
Clamp the workpiece down (as in the photo) and rout it down to thickness.

Clamping the fretboard blank and routing it down to thickness with a trim router

To keep the router moving level, I left a small section at the end un-routed (left photo below).
That little leftover bit gets trimmed off later with a chisel.

Fretboard blank with a small end section left un-routed to keep the router level

Finish with a sander to smooth the surface.

Sanding the fretboard surface smooth after routing

Now 6.3 mm thick.

Fretboard blank thinned to 6.3 mm

Cutting the fretboard outline

Cut the blank to the fretboard outline.

Cut out the fretboard outline from the blueprint and glue it to the wood.

Fretboard outline cut from the blueprint and glued to the wood

Cut along the paper.
This needs to be as straight as possible.
Options:

– Circular saw
– Jigsaw
– Hand saw
– Trim router

are all viable.

Circular saw: cleanest straight cuts when guided. If you have one, use it.
Jigsaw / hand saw: won’t be perfectly straight — you’ll have to clean up with a sander afterward.
Trim router: with a flush-trim (bearing) bit and a guide, you can route a perfectly straight edge.

I went with the trim-router method.
Bit: Makita flush-trim bit with bearing (No. D-08355).

As shown, clamp the fretboard blank on top of a guide board and let the bearing ride along the guide.

Trimming the fretboard's long sides with a bearing-guided flush-trim router bit

Both long sides of the fretboard, trimmed to the blueprint outline.

Both long sides of the fretboard trimmed to the blueprint outline

Now the ends.
You could rout these too, but here I went with a hand saw.
Stack a guide board on top and saw against it.

Cutting the fretboard ends with a hand saw against a stacked guide board

<Heads up>
If you saw this by hand, use a flush-cut saw (no set on the teeth).

What’s “set”?
Most saws have teeth that are bent slightly to alternating sides — that’s the set.
It widens the kerf so the blade doesn’t bind.

A no-set (flush-cut) saw has teeth that don’t poke out beyond the blade body, so it cuts in a perfectly straight line right at the edge of where you place it.

Fretboard ends cut cleanly with a flush-cut saw

Ends came out clean.

Fretboard cut to its finished outline

Cutting the fret slots

On to one of the most important steps in the whole build: cutting the fret slots.

Accurate fret position = accurate intonation.
Take your time here.

Verify fret positions

Lay a ruler from the nut position (= “fret 0”) and check that each fret line is in the right spot.

Holding a ruler against the glued-on blueprint…
turns out the printed fret positions don’t match what they should be by measurement!
The CAD file dimensions are correct and I supposedly printed at 1:1 — no idea what went wrong.

No choice: I marked the correct fret positions on top of the printout in pencil.

Correct fret positions marked in pencil over the printout after a spacing error

All 24 frets marked.
These hand-corrected marks become the source of truth from here on.

All 24 fret positions marked on the fretboard

Cutting the fret slots

Cut the slots with a fret saw — a guitar-specific tool.

Before reaching for the fret saw, score each fret position with a utility knife first.
* Going straight to the fret saw, the blade tends to wander off the line.

Scoring each fret position with a utility knife before sawing the slots

After the utility knife, deepen the score with an acrylic-sheet cutter (see photo).
That makes the fret saw track even better.

Deepening the fret score lines with an acrylic-sheet cutter

Enter the fret saw.
Important: cut a slot width that matches the fret you’re using.
(Or — same thing — buy frets that match the kerf of your fret saw.)

Diagram showing fret slot width must match the fret tang

For example, if your fret tang is 0.6 mm wide (see drawing), you want a fret saw that cuts a 0.6 mm kerf — slot width and tang width need to match.

Fret wire cross-section drawing with tolerances, all dimensions in mm

Now cut the slots.

Trace the slot a few times with the tip of the fret saw first, then once it’s tracking, lay the full blade in and saw down.

Cutting a fret slot into the fretboard with a fret saw

Cut to roughly 3-4 mm depth.

Finished fret slots cut about 3-4 mm deep across the fretboard

Fret slots — done.

Drilling position-marker holes (face)

Slots done — now the position-marker holes.

I’m using 6.35 mm shell-inlay dots on the fretboard face.
Acrylic dots tend to be cheaper than shell, by the way.

6.35 mm shell-inlay dots for the fretboard position markers

Just to be safe, I measured the dots:
6.2 mm diameter, 2 mm thick.

Inlay dot measured at 6.2 mm diameter and 2 mm thick, with inch equivalents

Inlay positions need to look clean (it’s purely visual), so I started with a center punch to make a dimple.

Marking the position-marker hole with a center punch to make a dimple

Then start small — like a 1 mm bit — and step up.

Drilling the position-marker holes, starting with a small 1 mm bit

Final pass with a 6 mm bit.

Final drilling pass for the position-marker hole with a 6 mm bit

Don’t go too deep — check depth with calipers as you go.
It’s fine if the dots sit a hair proud of the surface.
The fretboard gets sanded to a radius later, and that pass also takes the inlay tops down level.

All position-marker holes drilled along the fretboard face

All position-marker holes drilled.

Fretboard with all position-marker holes drilled

Build & Assembly [First Half] (5) — Glue the fretboard on

Glue the fretboard onto the neck.
But before that, install the truss rod for relief adjustment.

Installing the truss rod

Time to drop the truss rod into the neck.

The channel was already cut, so we just seat and fix the rod.

Seating the truss rod into the pre-cut channel in the neck

Fix it in place with a dab of CA glue (super glue).

Applying a dab of CA super glue to fix the truss rod in place

Drop CA glue on the end of the truss rod (see photo).

Dropping CA glue onto the end of the truss rod

Same on the other end.

Applying CA glue to the other end of the truss rod

Press it into the channel.

Pressing the truss rod down into its channel in the neck

Truss rod installed.

Glue the fretboard onto the neck

Now bond the fretboard to the neck.

This is when you really start feeling like it’s becoming a guitar.

The next photo shows the fretboard sitting on top of the neck (not glued yet).
This is the alignment we want.

Fretboard dry-fitted on top of the neck to check alignment before gluing

Anti-slip during glue-up (toothpick trick)

Once the glue is on and you start clamping, the fretboard wants to skate around on the wet glue and is hard to keep aligned.

The trick: pin the two together with a toothpick.
Use one of the position-marker holes you just drilled.
Drive the toothpick down through the marker hole and into the neck. (We snip it off later.)

Using a toothpick through a position-marker hole to pin the fretboard to the neck

Toothpick is 2.2 mm at its widest point.

Measuring the toothpick diameter: 2.2 mm at its widest point

It tapers toward the tip, so a 2 mm bit works for the pilot hole.

Stack the fretboard on the neck and clamp them.
Drill through the last-fret position-marker hole down into the neck.

Drilling position-marker holes with a 2 mm bit, with inch equivalent

Lift the fretboard off — the hole now extends into the neck.
Stick a toothpick into it.

Inserting a toothpick into the hole drilled into the neck as an alignment pin

* For even better alignment, do the same near the 1st-fret end. I only did the last-fret end this time.

Glue the fretboard down

Titebond again. Prep matters here.
Going in with a “it’ll be fine” attitude turns into a panic real quick (speaking from experience), so set everything up properly first.

Prep

Before laying glue, scuff up both mating faces with sandpaper.
It increases bond strength.

Use coarse paper (#80 worked for me) on the neck face.

Scuffing the neck's gluing face with coarse #80 sandpaper for a stronger bond

Same scuff on the underside of the fretboard.

Scuffing the underside of the fretboard with sandpaper before gluing

Use Titebond again. To make my life easier, I have these laid out:
– Titebond
– Rubber gloves (otherwise your hands turn into a mess)
– A damp rag (to wipe up squeeze-out)

Glue-up supplies laid out: Titebond, rubber gloves and a damp rag

Mask off areas you don’t want glue getting onto.
Tape over the truss rod and along the neck sides.

Masking off the truss rod and neck sides with tape before gluing

Get a scrap board ready to use as a clamping caul (so the clamps don’t dent the fretboard face).

Scrap board prepared as a clamping caul to protect the fretboard face

Prep done.

Glue-up

Lay down the Titebond.

Drop glue on the neck and spread it across the whole bonding surface with your hand.

Spreading Titebond glue across the neck's bonding surface by hand

Glue down — now peel off the masking tape over the truss rod.

Peeling the masking tape off the truss rod after spreading the glue

Lay the fretboard on top.
Drive the toothpick through the last-fret marker hole as your alignment pin.

Laying the fretboard onto the glued neck with the toothpick as an alignment pin

Sandwich the scrap caul on top of the fretboard (to protect the surface) and clamp down hard.
Crank those clamps — really tight is fine.

Without the toothpick the fretboard would slide all over the place.
I only used one toothpick (last-fret end), so the 1st-fret end could still drift, but it wasn’t bad — I was able to get it where I wanted without much fuss.

Clamping the fretboard to the neck with a scrap caul protecting the surface

Side view.

Side view of the fretboard clamped onto the neck during glue-up

Wipe up the squeeze-out with a damp rag.
Easier to clean now than after it’s cured.

Wiping away glue squeeze-out with a damp rag before it cures

Leave overnight.

Fretboard clamped to the neck and left to cure overnight

Fretboard glued to the neck.

Fretboard successfully glued onto the neck

Snip the alignment toothpick flush with nippers.

Snipping the alignment toothpick flush with nippers

That’s the fretboard glued to the neck.

And that wraps up the First Half!

Going OK so far?
What started as a stack of lumber is slowly turning into a guitar.

The Second Half has more part-by-part work, but it’s also where the neck and body finally come together — and it really starts to look like a guitar.
It takes time. No rushing. Just steady, careful work.

Honestly — getting all the way to the finish line with zero mistakes is basically impossible (in my case anyway).
Sometimes the right move is to just bite the bullet and redo something (in my case anyway).

OK — on to Build & Assembly [Second Half]!

Build & Assembly [Second Half] (6) — Routing the rear pickup cavity

The First Half was mostly neck work — now we move to the body.

First up: rout the cavity for the rear (bridge) pickup. (Circled in the image below.)

Design diagram with the rear bridge pickup cavity circled on the body

Tool: trim router.

Prepping the router setup

For the pickup cavity, we make a template first to guide the router.

1. Cut the “ideal pickup-cavity shape” out of an easy-to-machine sheet (like MDF) — that’s your template.
2. Stack it on top of the body and rout against it.

That’s the workflow.
For the template I used MDF.
Bought a 9 mm (≈⅜″) thick sheet at the home center (453 yen, about $3).

9 mm thick MDF sheet used for the routing template, with inch equivalent

The cavity holds the pickup, so I checked pickup dimensions first.

Pickups bought on Amazon (set of 2 for 6,730 yen (about $45)).

Dimensions are listed on the product page, but I measured to be sure.

Measuring the humbucker pickup dimensions with calipers before sizing the cavity

Then sized the cavity from there.
Roughly each side + 3 mm of clearance.
Target depth: about 25 mm (≈1″). (The pickup hangs from the front via screws, so as long as it drops fully into the cavity, you’re good.)

Pickup cavity dimensions in mm with inch equivalents

Mark the cavity outline on the MDF.

Marking the pickup cavity outline onto the MDF template

Now cut the opening.
Jigsaw — but first we need a starter hole for the blade. Drill it.

Drilling a starter hole for the jigsaw blade in the MDF template

With the starter hole drilled, slip the jigsaw blade in.
Cut along the marked line.

Cutting out the cavity opening in the MDF template with a jigsaw

Template opening cut.

MDF template with the pickup cavity opening cut out

Routing the cavity

Rout out the cavity.

Stack the template on top of the body and clamp them together.

MDF template clamped on top of the guitar body ready for routing

Drill out the rough waste first

Hogging out a deep cavity in one go is hard on the bit and risks snapping it.
So we plunge in a few mm at a time — and to make life easier, drill out as much waste as possible up front.
Lots of holes, like in the photo.

Drilling out the rough waste with many holes before routing the cavity

Rout to the template

Use a bearing-guided router bit (8 mm diameter) — see photo.

(In my case the cutter diameter is slightly smaller than the bearing diameter, so the cut sits a couple millimeters inside the template edge.)

Bearing-guided 8 mm router bit used to rout the cavity to the template

Time to rout.
Lower the bit ~3 mm at a time.

Routing the pickup cavity, lowering the bit about 3 mm per pass

Several passes later — down to the target 25 mm.

Pickup cavity routed down to the target depth of 25 mm

Because the bearing is larger than the cutter, the cut ends up a hair inside the line. To get out to the line, I made a follow-up pass with a 6 mm un-bearinged bit. Bit of a hack, but it worked.

Past a certain depth the bit can’t reach with the template still on, so remove the template and finish the deeper part directly.

Cavity routed to the design line.

Rear pickup cavity routed out to the design line

Drop the pickup in to test fit.

Test-fitting the pickup into the routed rear cavity

Sits perfectly.

Rear pickup cavity: done.

The neck (front) pickup cavity gets cut after the neck is mounted.

Build & Assembly [Second Half] (7) — Shape the neck

Get the neck ready to join up with the body.

The neck and fretboard are already glued together (see Build (5) — Glue the fretboard on):

Neck with the fretboard already glued on, ready to be shaped

First, snip the alignment toothpick off with nippers.

Snipping off the alignment toothpick with nippers

Flatten the neck-to-body joint face

The neck heel (the face that meets the body) needs to be flat.
It’s currently uneven (see photo) — sand it down to a flat plane.

Uneven neck heel that meets the body, needing to be sanded flat

Lay sandpaper on a flat reference (a flat board) and rub the neck face against it.
Spread your weight evenly so it doesn’t tilt.

Flattening the neck joint face by rubbing it on sandpaper laid on a flat board

Check often that you’re not sanding it crooked.

Checking the sanded neck joint face with a metal ruler for flatness

Lay a metal ruler across to check flatness.
Lengthwise and crosswise — both reading basically flat.

Metal ruler laid across the neck heel confirming a flat surface both ways

Flatten the neck sides

Now the neck sides.
Trim the sides of the neck flush with the fretboard edges (see photo).

The neck sides to be trimmed flush with the fretboard edges

I used the trim router.
The fretboard edge served as the guide.

Trimming the neck sides flush with a trim router, using the fretboard as a guide

The headstock end is done.
Small irregularities will get cleaned up later — leave them for now.

Headstock end of the neck side trimmed flush with the fretboard

Now do the heel end.

The fretboard “guide” runs out at the spot in the photo.
(I tried to keep routing past it and made the mistake described below. Past that point I’d recommend just sanding by hand.)

Point where the fretboard guide runs out near the neck heel

<Mistake>
I tried to keep routing where the fretboard didn’t extend, and ended up overshooting like this…

Mistake: over-trimmed neck side where the fretboard no longer guided the router

Lesson learned — switched to flattening with a sander.

Switching to a sander to flatten the neck side by hand

Get the side faces (where the neck meets the body) as flat as possible.
Check with a steel ruler — looking good.

Checking the flattened neck side with a steel ruler

Neck side prepped for the body joint.

Build & Assembly [Second Half] (8) — Cut the neck pocket in the body

The neck side is shaped (Build (7)).
Now we shape the body to receive it.

We’re cutting the neck-pocket cavity (circled below).

Design diagram with the neck-pocket cavity circled on the body

Pocket depth from the design: 32.3 mm (≈1¼″).
Tool: trim router.

Neck pocket routed to a depth of 32.3 mm with inch equivalent

Setting up the router

Position the neck where it should sit on the body and clamp it.

Lay a long ruler along the fretboard to make sure the neck sits dead on the body’s centerline.
Take your time here — this is what determines whether the neck ends up straight.

Aligning the neck on the body centerline with a long ruler along the fretboard

Lay a steel ruler along the body’s centerline and confirm the fretboard center is right on top of it.

Steel ruler confirming the fretboard center sits on the body centerline

With the neck locked in position, butt scrap pieces snug against it on every side, tracing the neck outline.
* All the scrap pieces should be the same height — they’ll be the router’s guide.

Scrap pieces butted around the neck to trace its outline as a router guide

Clamp the surrounding scrap pieces, then lift the neck out.

Router setup ready.

Routing

Same trick as before — drill out the bulk of the waste first to lighten the load on the router.

Then rout to depth.
Use the surrounding scrap pieces as the router fence.

Plunge a few millimeters at a time — don’t go for the full depth in one pass.

Routing the neck pocket, using the surrounding scrap pieces as a fence

Neck pocket cut.

Neck-pocket cavity routed into the body

Depth is on target.

Neck-pocket depth measured on target

Test-fit the neck (no glue yet).

Hmm — there’s a gap at the heel of the neck (see image).

Test-fit showing a gap at the neck heel in the routed body pocket

That’s because the router’s bit leaves a small radius in the inside corners of the body pocket, but the neck’s heel has square corners — the square corner can’t seat into the radius.

Diagram showing the square neck heel not seating into the pocket's rounded corner

Reshape the neck heel so it seats fully.

Reshaping the neck heel

Trim the neck-heel corners back so they clear the radius in the pocket.
(A bit of over-trim here is fine — the front pickup cavity will eat that area anyway.)

Trimming the neck-heel corners with a saw rasp to clear the pocket radius

I knocked the corners off with a saw rasp.

Now it seats fully — no contact in the corners.

Reshaped neck heel now seating fully into the body pocket

Side fit isn’t perfect, but I’m calling it good.

Whole guitar with the neck test-fitted into the body pocket

Whole guitar at this point.
It’s starting to look like the finished thing — motivation is climbing.

Nearly complete DIY Les Paul-style guitar body and neck taking shape on the workbench

Front pickup cavity (provisional)

Cut the front pickup cavity now too.

That said, this area gets re-cut after the neck is glued on, so you could also wait and do it then (Build (12)).

It’s easier to work on the body without the neck attached, so I went ahead and roughed it out.

Marking out the front pickup cavity on the guitar body before routing

Reuse the rear-pickup template, clamp it down,

Rear-pickup MDF template clamped to the body to guide the front pickup cavity cut

and rout.

Routing the front pickup cavity with a trim router following the clamped template

Front pickup cavity to shape.

Front pickup cavity cut to shape in the guitar body

Body and neck joint area: cut and ready.

Build & Assembly [Second Half] (9) — Set the position markers

Time to install the position markers (inlays).
I bought shell dots on Amazon.

Shell dot inlays and installation supplies for the fretboard position markers

The face holes were already drilled in Build (4), so just drop CA glue into each hole.

Dropping CA glue into a pre-drilled hole on the fretboard face for a position dot

Set a dot.

Setting a shell dot inlay into a fretboard hole with fresh CA glue

Tap it down with a hammer.
Put a piece of scrap between the hammer and the dot to avoid leaving marks.

Tapping a position dot into the fretboard with a hammer over a scrap wood shim

One face dot in.
Repeat for the other frets.
Dots can stand a touch proud — we’ll sand them flush later.

Fretboard face with position marker dots installed, sitting slightly proud

Now the side dots.

Fretboard edge marked for drilling the side position dot holes

Drill matching holes in the side of the fretboard.

Drilling holes in the side of the fretboard for the side position markers

Holes drilled.

Side of the fretboard with drilled holes ready for side dot inlays

Same as the face — dab CA glue in each hole.

Dabbing CA glue into the drilled side holes of the fretboard

Set the dots, tap them down.

Setting and tapping side dot inlays into the edge of the fretboard

Side dots in.

Side position dots installed along the edge of the fretboard

Sand the proud dots flush.

Sanding the proud position dots flush with the fretboard surface

Side dots sanded too.

Fretboard with all face and side position markers installed and sanded flush

Position markers in.

Build & Assembly [Second Half] (10) — Routing the back of the body

Now we machine the back of the body.
The main job is the cavity behind the volume / tone knobs and the related routing around it.

What we’re cutting in this section

On the body back, we’ll cut features 1 through 5 below.

Diagram of the body back showing the five cavity features to be routed

Main power tool: the trim router.
The router doesn’t see a ton of action in everyday DIY, but for guitar building, where you cut cavity after cavity, it’s essential.

1. Routing the cavity

Make another MDF template.
Trace the cavity outline from the back-view drawing.

Tracing the back cavity outline onto an MDF board to make a routing template

Mark the shape on the MDF.

Cavity shape marked out on the MDF template board

Jigsaw it out of the MDF.
Drill a starter hole first, then jigsaw along the line.

Jigsawing the cavity shape out of the MDF template board after drilling a starter hole

Sand the edges clean.

Sanding the cut edges of the MDF back-cavity template clean

Template done.

Finished MDF template for routing the body back cavity

Check the position by laying the back-view drawing on the body.

Laying the back-view drawing on the body to check the cavity position

Once the position is right, clamp the template down.

Target depth: 36 mm (≈1⅜″).
That leaves 8 mm of body wood under the volume / tone knobs.

Back-cavity template clamped to the body ready for routing to 36 mm depth

To save the router some work, drill a bunch of holes inside the cavity area.

Drilling relief holes inside the cavity area to ease the router's work

Rout to the template.

Routing the body back cavity following the clamped template

<Side note>
Routing a relatively large opening like this gets awkward in the middle of the cavity.
(The router’s small base plate ends up only half-supported on the template, which makes it tippy.)

A larger acrylic sub-base for the router fixes that.

Curious? See the article below.

Routing the back cavity using a larger acrylic sub-base on the trim router

Routed it with the bigger sub-base on.

Body back cavity roughed out with the enlarged router sub-base

Clean up with chisel and sandpaper.

Cleaning up the back cavity walls with a chisel and sandpaper

Cavity cut.

Completed back control cavity routed into the guitar body

This is where the volume and tone knobs live.

2. Drilling the volume / tone knob holes

Measure the volume pot shaft.
7.7 mm diameter.

Measuring the volume pot shaft at 7.7 mm with calipers

Drill 8 mm.
Don’t go straight to the 8 mm bit — start with 2 mm or so and step up.

Drilling the 8 mm volume and tone knob holes through the body

Volume and tone holes drilled.

Volume and tone knob holes drilled through the body back cavity

Drop a pot in to test fit.
One thing — break off the little anti-rotation tab in the next photo with pliers; it gets in the way.

Pointing out the small anti-rotation tab on a pot to be broken off with pliers

Test fit.
Looks good.

Test-fitting a potentiometer into the drilled knob hole

Now the pickup-selector hole.

I put the selector close to the volume / tone knobs to keep wiring simple.

Selector shaft measures 11.4 mm.

Measuring the pickup selector shaft at 11.4 mm

Drill 10 mm, then open it up to size with a tapered reamer.

Widening the selector hole with a tapered reamer after drilling 10 mm

Test-mount the selector.

Test-mounting the pickup selector switch in the body

Length was a bit tight, but it mounts up.

Pickup selector switch fitted into the body, just clearing on length

3. Wiring holes and channel

Run the pickup wires through to the back-cavity side.

Pickup lead measures 4.3 mm in diameter.

Measuring the pickup lead wire diameter at 4.3 mm

Drill a 5 mm hole.

Drilling a 5 mm hole to route the pickup wire through to the back cavity

The hole comes through into the front-side pickup cavity, like in the photo.

(I drilled from the back and the position lined up okay, but with margin for error, drilling from the front is probably safer.)

Diagram showing the wire hole breaking through into the front pickup cavity

Pickup wire fed through — looks like this on the back side.

Pickup wire fed through the drilled hole and emerging in the back cavity

This wire needs to reach the back cavity we just routed.
So we cut a routed channel along the circled path below.

Diagram circling the channel path to be routed between the pickup and back cavity

Trim router again.

Use a piece of scrap wood as a guide and run the router along it.

Routing the wire channel using a scrap wood strip as a guide

A few mm at a time, and the channel is cut.

Wiring channel routed a few millimeters deep between the cavities

4. Output jack hole

Drill the hole for the output jack.
Roughly the spot in the photo.
The jack wires also tie back into the volume / tone cavity.

Marking the drilling spot for the output jack hole on the body

The jack measures 20 mm.
It mounts to the jack plate.

Measuring the output jack at 20 mm before drilling its hole

Need a hole at least 20 mm.
I used a 22 mm Forstner bit.
Buying a bit just for one hole feels a little wasteful, but I couldn’t find a better way…

22 mm Forstner bit used to drill the output jack hole

Drill in from the side.

Drilling the output jack hole into the side of the body

Through-hole drilled.

Through-hole drilled from the side for the output jack

5. Step down for the back cover

To make a flush surface for the back-cavity cover, step down the area shown in blue in the diagram.

Diagram highlighting in blue the area to step down for the back cover

Make another template,

Template clamped down to rout the recess for the back cavity cover

and rout.

Routing the stepped recess for the back cover with a trim router

Step routed for the back cover.

Stepped-down recess routed around the back cavity for the cover

Depth: about 3 mm.

About 3 mm deep step routed for the flush-fitting back cover

Body back routing — wrapped.

Build & Assembly [Second Half] (11) — Shaping the neck and body

Time to shape the neck and body.

Carving the back of the neck

Carve the curved back profile of the neck.
Main tool: a saw rasp.

Once you remove material there’s no putting it back, so go slow.

Clamp the neck down,

Neck clamped down, starting to carve the back profile with a saw rasp

and start carving with the saw rasp.

One side of the neck back roughed in with the saw rasp

One side roughed in.
Solid clamping really lets you focus on just carving.

Continuing to carve the curved back of the neck with the rasp

An old trick from luthiers — wrap a rubber band around the neck and you can read the cross-section profile at a glance.
This shot says I’ve still got more wood to remove.

Rubber band wrapped around the neck to read the cross-section profile while carving

– Check the rubber band’s curve
– Grip the neck and feel the thickness / shape
and keep carving.

Quite a bit removed with the rasp.

Neck back profile carved down significantly with the saw rasp

Refine with sandpaper.
I started with #80 (coarse).

Refining the carved neck back with coarse #80 sandpaper

Grip-test it as you go and shape until it feels right.
At this point I also did a pass with mid grits (#120, #240).

Finished neck back profile, shaped and sanded to a comfortable grip

When the grip feels right, you’re done.

Body contouring and sanding

“Contouring” is the carving on the body that lets the guitar fit comfortably against the player’s body.

Here we do the back contour — the scoop on the back of the body where the player’s belly rests.

Pencil in the area to be carved away.
It’s easier to track progress with the lines drawn out.

Saw rasp again.

Belly-cut contour area penciled onto the back of the body before carving

(I tried a chisel too — but as a hobbyist it didn’t go well.)

Carving the back belly contour with a saw rasp

Ended up just using the rasp.

Belly contour roughed out on the body back with the rasp

Refine with #80 sandpaper.

Refining the body back contour with #80 sandpaper

While I’m at it, I sanded the body sides too.

Sanding the body sides smooth

Contour, done.

Finished belly contour carved and sanded into the back of the body

Next step — neck-to-body docking.

Build & Assembly [Second Half] (12) — Docking the neck to the body

Now we glue the neck onto the body.
Once that’s done, we trim the leftover body material, sculpt the front-face curves, and rout the front pickup cavity.

Gluing the neck to the body

Dry-fit first as a sanity check.

Dry-fitting the neck to the body to check the joint before gluing

Lay a ruler across the fretboard and check the height.

Laying a ruler across the fretboard to check the neck height at the joint

At the bridge position, the height is 12.5 mm (≈½″) (string height adds a few more mm on top).

Measuring 12.5 mm height at the bridge position during the dry-fit

At the time, I told myself “great, on target!” — but in hindsight that should have been ~5 mm taller.

As I’ll explain below, with this height the bridge ends up bottomed-out (12.7 mm / ½″ minimum) for ideal action.
Which means I lose the room to lower it any further.

Bridge height design diagram with 2 mm and 10.7 mm dimensions and inch equivalents

For that reason, the blueprint files in the “Planning” article have been updated:
Neck angle changed from 1.5 degrees to 3 degrees.

Anyway — back to gluing.

Scuff the mating faces with coarse paper to boost adhesion.

Updated planning blueprint showing the neck set angle changed from 1.5 to 3 degrees

Same on the neck side.

Scuffing the body's neck-joint mating face with coarse sandpaper to improve glue adhesion

Spread Titebond…

Spreading Titebond wood glue onto the neck joint before mating it to the body

Clamp.
Use a scrap board between the clamp and the fretboard so the clamp doesn’t dent it.

Wipe up the squeeze-out as much as possible — once it cures, it’s a pain to remove.

Neck clamped to the body with a scrap board protecting the fretboard, glue squeeze-out wiped away

One night later — Titebond has done its job, neck and body are locked together.

Neck and body left overnight, now firmly bonded together by the cured Titebond glue

Trimming leftover material and front-face contouring

With the neck attached, do another round of shaping.

Trimming leftover material

Now that the neck’s glued, the leftover body material we kept earlier (shown below) can finally be trimmed.

Diagram showing the leftover body material that can now be trimmed after the neck is glued on

Try the jigsaw — but the fretboard’s in the way and only gets you so far.

Trimming the leftover body material with a jigsaw, limited by the fretboard getting in the way

Finish off with a hand saw.

Finishing the cut with a hand saw where the jigsaw couldn't reach

Make relief cuts (see photo) and remove material in chunks.

Making relief cuts with a hand saw and removing the waste material in small chunks

The cut faces are rough — wrap sandpaper around a stick and clean them up.

Cleaning up the rough sawn faces with sandpaper wrapped around a stick

Smoothed up nicely.

The trimmed body edge sanded smooth after cleanup

Now make the upper-fret access more comfortable by carving back the area circled in red.

Diagram with the area circled in red that gets carved back for easier upper-fret access

Saw rasp,

Carving back the upper-fret access area with a saw rasp

then sandpaper to smooth.
Nice flowing curve.

The upper-fret access area smoothed with sandpaper into a flowing curve

Front-face contouring

Round over the top of the body.

Carve material out of the area shown in pink in the photo to create the front contour.
(Up to you — pure aesthetics.)

Diagram with the front-contour area shaded pink to be carved away for the body top's rounded curve

Saw rasp.

Carving the body top contour with a saw rasp

Carve until the curve looks right, eyeballing it constantly.
Then a quick sand to smooth (final surface comes later).

Body face contour roughed in.

Body face contour roughed in with a saw rasp and lightly sanded smooth

Front pickup cavity (final)

Gluing the neck buried part of the front pickup cavity we’d cut earlier.

Re-cut the front pickup cavity properly.

Re-cutting the front pickup cavity that was buried when the neck was glued on

Routing again — same routine, drill out the bulk of the waste first.

Drilling out the bulk of the waste in the pickup cavity before routing

Lay the template down to guide the router.
The neck’s already glued on, so the fretboard sticks up — to keep the template level, shim under the dotted area in the diagram with scrap.

Diagram showing scrap shims placed under the dotted area to keep the router template level over the raised fretboard

Rout against the template.
Need a bit more depth, but with the template stacked on, this is as deep as the bit reaches.

Routing the front pickup cavity against the template, reaching the bit's maximum depth

So I removed the template and kept routing — using the cut already made as the guide.

Routing the pickup cavity deeper after removing the template, using the existing cut as a guide
Test-fitting the pickup in the cavity to check the fit

Test-fit the pickup — drops in cleanly.

The pickup dropping cleanly into the finished front pickup cavity

Front pickup cavity: done.

Build & Assembly [Second Half] (13) — Sanding the fretboard radius

Step where the flat fretboard gets a curved (radiused) profile, like in the photo.

At first glance you’d think — there’s no way to do this neatly by hand, right?
But —

The flat fretboard that will get a curved radiused profile in this step

You can buy radius blocks — wood blocks with a curved face for shaping fretboards.
The numbers (“254”, “305”) are the radius in mm: smaller = more curved, larger = flatter.

Common fretboard radii:
Fender: 7.25″ (184 mm)
Gibson: 12″ (305 mm)
PRS: 10″ (254 mm)

My main guitar is a PRS, so for the same feel I went with 10″ (254 mm).
(Pick whatever radius you want.)

Radius sanding blocks marked 254 and 305, curved wood blocks for shaping a fretboard radius

Stick sandpaper onto the 254 mm side with double-sided tape.
Coarse paper — #80.

Sandpaper stuck onto the 254 mm side of the radius block with double-sided tape, coarse #80 grit

Clamp the guitar down,

The guitar clamped down ready for sanding the fretboard radius

and slide the radius block back and forth across the fretboard.

Sliding the radius block back and forth across the fretboard to shape the curve

Don’t bias your pressure to one side — keep it even.
Watch the sanding pattern as you go.

The sanding pattern on the fretboard checked for even pressure across both sides

Sanded down until no flat spots are left.

The fretboard sanded until no flat spots remain across its curved surface

Step up through finer grits to finish.

#120 to #240 to #400 to #800 to #1500.

Fretboard finished glassy-smooth after stepping through grits from #120 up to #1500

By the end the fretboard is glassy-smooth and feels great.
Fretboard radius: done.

The completed radiused fretboard, polished smooth

Quick general sanding pass over the whole guitar.

A general sanding pass over the whole guitar body

Edges too.
Use the saw rasp where it helps.

Sanding the body edges, using the saw rasp where needed

Same on the back of the neck.

Sanding the back of the neck smooth

Fretboard radius and overall sanding: done.

Build & Assembly [Second Half] (14) — Setting the frets

Time to drive the frets into the slots.

Sanding the fretboard packed sawdust into the fret slots — clean those out first using the tip of the fret saw.

Clearing sawdust packed into the fret slots using the tip of the fret saw

Slots clean, drop a fret in,

Dropping a fret into a cleaned slot on the fretboard

support the neck on a wood block, then tap the fret in with a plastic-headed hammer.

Tapping a fret into the slot with a plastic-headed hammer, the neck supported on a wood block

First fret in.
* Make sure it’s seated all the way down to the fretboard.

The first fret seated all the way down into the fretboard slot

Drive the rest the same way.

Driving the remaining frets into their slots one by one

All the way to the last fret.

All frets driven in up to the last fret, ends still overhanging the fretboard edges

The frets stick out past the sides of the fretboard — trim them off with end nippers.

Trimming the overhanging fret ends flush with end nippers

One side of fret 1 trimmed.

One side of the first fret trimmed flush with end nippers

Trim every fret the same way down to the last.

All fret ends trimmed flush down to the last fret

Try gripping the neck and you’ll see — the fret edges bite into your fingers, totally unplayable.
On a factory guitar those edges are dressed back so they’re smooth.

File the fret edges down with a file.
The next photo shows a regular file, but there are dedicated fret-end files too.

Filing the sharp fret ends smooth with a file so they don't bite into your fingers

You don’t want to file your nice fretboard surface, so use the metal protector plate that comes with a fret file (placed like this),

A metal protector plate held against the fretboard to shield it while dressing the fret ends

and dress the fret ends.
Tedious work, but a critical step for playability — put on some music and just chip away at it.

Dressing the fret ends with a fret file to make them comfortable to play

Finish with sandpaper for a smooth surface.

Finishing the dressed fret ends smooth with sandpaper

All frets dressed.

All frets dressed and smoothed along the fretboard

Lay a steel ruler across the fret tops — confirm they’re level.

If a fret isn’t fully seated and pokes up higher than its neighbors, you’ll get bad notes.
Example: if fret 10 sticks up, fretting at fret 9 might still sound the note for fret 10.

A steel ruler laid across the fret tops to check they are all level

Frets — installed.

And that’s the end of Build & Assembly [Second Half].
Nice work!

The shape is basically there.
What’s left is finishing — paint and parts.

Finishing (1) — Paint and surface finish

Time to paint.

For an electric guitar, looks are a huge part of the package.

Personally, painting is one of my favorite parts of any project — guitars or otherwise.
It doesn’t always come out the way you pictured, but that’s part of the fun. Enjoy it!

For this build:

– Water-based paint
– Brush and rags (no spray cans)
– Sunburst-style finish
– Water-based varnish for a gloss top coat

That’s the plan.

“Sunburst” — a finish where the color fades from bright in the center of the body to dark at the edges.

…words only do so much, so

<What it ends up looking like>

Final finish below.

The finished sunburst finish, color fading from bright at the body center to dark at the edges

Paint prep

Painting one face at a time gets tedious, so I hung the guitar from the laundry pole using wire through the tuner holes.

The guitar hung from a laundry pole by wire through the tuner holes for painting

The fretboard doesn’t get painted, so mask it off.

The fretboard masked off with tape before painting the body

I used “tonoko” (Japanese clay-stone wood filler) as a base.

It evens out color absorption, but mainly I wanted a clean boundary at the body’s top-to-side edge for the “binding”-look line — tonoko keeps the edge crisp instead of bleeding.

(Sanding sealer should give a similar effect.)

Applying tonoko clay-stone wood filler as a base coat for even color and a crisp edge line

Brush the tonoko on.

Brushing the tonoko wood filler onto the guitar body

Whole guitar coated.

The whole guitar coated with tonoko wood filler

Once dry, hit it lightly with sandpaper, then wipe off with a towel. (Powder flies — I did this outside.)

Diagram showing the body top-to-side boundary left unpainted so bare wood shows as a binding line

For the line at the body top-to-side boundary, my plan is to leave that area “unpainted” so the bare wood shows through.

To make it, mask off a 3 mm wide strip with masking tape.

Masking a 3 mm wide strip along the body edge to leave a bare-wood binding line

Run the tape along the body sides.

Running the 3 mm masking tape along the body sides

3 mm masking tape applied around the entire perimeter.

3 mm masking tape applied around the entire body perimeter

Paint prep complete.

Painting

Paint with water-based color, brushed on and worked with rags.

Paint the back of the guitar

I wanted a wine-red, but the wine-red straight out of the can was a bit bright, so I mixed in a touch of black.

Wine-red water-based paint mixed with a touch of black to tone down the brightness

Paint the back of the body, the sides, and the neck.

Painting the back, sides, and neck of the guitar wine-red

Back painted.

The back of the guitar body painted wine-red

Paint the body face — water-based sunburst

The face of the body — the money shot — gets a sunburst gradient.

Color came out too bright — fail

First attempt — way brighter and poppier than I wanted (see photo).

First sunburst attempt that came out too bright and poppy, considered a failure

I almost rolled with it since I’d already done the work, but no — restart.

Once the paint dried I sanded it back off.

The failed bright paint sanded back off the body face to start over
Sunburst with water-based paint

For the gradient, I pre-mixed a series of colors from dark (outer edge) to light (center).

Base colors: yellow, wine-red, black.
I mixed them as shown to get a yellow-to-black sequence.

The pre-mixed gradient paints from dark to light, mixed from yellow, wine-red, and black

Layer them on starting with the darkest at the edge.

I put the darkest color around the perimeter first, applying with a rag.

Applying the darkest color around the body perimeter first with a rag

Then layer the second-darkest in with the rag.

Layering the second-darkest color inward with a rag and blending the boundary

Blend the boundary by rubbing with a paint-loaded rag.
If you think “uh, it’s already dried, I can’t blend it” — keep rubbing. The boundary really does soften with persistence.

The trick to soft transitions is just — keep rubbing, don’t give up.

Second color down.

The second sunburst color rubbed in and blended with a rag

Third color, blending as I go.

Applying the third sunburst color, blending the boundary as it goes

Fourth color: orange.

The fourth color, orange, applied toward the center of the sunburst

Once the orange went down, I realized — actually, I want to push the wine-red ring closer to the orange center too!

Overlaying more orange to push the wine-red ring closer to the orange center
The wine-red isn’t quite there. Pushing it more orange.

Course-correct — overlay orange on the wine-red ring.

Yes — much better.

Guitar body front repainted with orange overlaid on the wine-red ring, warming the sunburst tone

Body face paint — done.
We’ll add gloss varnish later.

Finished sunburst paint job on the guitar body front, ready for gloss varnish later

Paint the headstock

Headstock is solid black.

Mask off the sides,

Guitar headstock with the sides masked off, ready to be painted solid black

and lay down black.
Solid color = easy mode.

Guitar headstock painted solid black, masking done

Headstock paint: done.

“Binding”-style accent line on the body sides

The accent line on the body sides is just bare unpainted wood.

Since I masked it off before painting, peeling the tape should be all I need to do — but…

Peeling masking tape from the body sides to reveal a bare-wood binding-style accent line

…some paint did creep under the tape.

Close-up of paint that bled under the masking tape along the body-side accent line

Sand off the bleed-through.

Sanding away paint that bled under the tape on the body-side accent line

Cleaned up.

Body-side accent line cleaned up after sanding off the paint bleed-through

Color coats are done.
From here, varnish + buffing for gloss.

Guitar body with all color coats finished, before varnishing and buffing for gloss

[Gloss finish] Varnish and buff

Color’s down — now we go after a glassy gloss with varnish and elbow grease.

Varnish, sand, varnish, sand. Repeat.
Step the grit up: #400 to #800 to #1500 to #2000.
Then move to compound: #3000 to #7500 to #9800 — finer and finer.

The gloss you get out of this is genuinely impressive — totally worth doing.

Like the paint, I went water-based for the varnish too.

Water-based gloss varnish and fine polishing compounds used to finish the guitar

Brush varnish over the whole guitar.
Keep the fretboard masked.

Brushing water-based varnish over the whole guitar body with the fretboard still masked

Wait for it to dry.

Pro tip — to keep the brush from drying out, seal it inside a zipper bag.
That way it’s still soft and ready to use the next day.

Varnish brush stored in a sealed zipper bag to keep it soft and prevent drying out

Once dry, sand.

Start with #400.
Sand with a polishing motion.

Sanding the dried varnish with #400 paper in a polishing motion

Sanding will leave a chalky white residue (see photo) — don’t worry about it at this stage.

Chalky white residue on the guitar surface after sanding the varnish coat

Wipe with a rag.
That’s one cycle. Repeat with finer grits.

Wiping the sanded guitar surface clean with a rag to finish one sand-and-wipe cycle

Second varnish coat.

Applying the second coat of varnish to the guitar body

Once dry, step up to #800 and sand again.

Guitar surface after sanding with #800 paper, gloss starting to build

After #800.
Gloss building. For everyday DIY this would be the end — but this is an electric guitar, so we keep going.

Deepening gloss on the guitar body after the #800 sanding stage

Repeat the varnish cycle, walking up #400, #800, #1500, #2000.

Repeated varnish-and-sand cycles stepping up through #400, #800, #1500 and #2000 grits

Surface progression at each step.
The bumps fade away and the surface gets glassier.

Comparison of the guitar surface at each grit step, growing smoother and glassier

After topping out sandpaper at #2000, switch to compound.

Compound is a paste with abrasive grit in it.
I used automotive scratch-removal compound.

Automotive scratch-removal compound used to polish the guitar to a high gloss

Step through #3000, #7500, #9800.

Use the included sponge applicator over the whole guitar, then wipe off with a rag.

Polishing the guitar with compound and the included sponge applicator, stepping through #3000, #7500 and #9800

Surface at #3000, #7500, #9800.
Hard to capture in photos, but the gloss keeps deepening.

Comparison of the guitar surface at #3000, #7500 and #9800 compound stages, gloss deepening

Paint and gloss finish — done!

Peel the masking tape off the fretboard.

Peeling the masking tape off the fretboard after paint and gloss finishing is done

And there it is — a sunburst-look finish from water-based paint, water-based varnish, brushes, and rags. No spray cans needed.

Finished sunburst-look guitar body achieved with water-based paint and varnish, brushes and rags

Back’s wine-red. The compound buff really pays off — beautiful gloss.

Glossy wine-red back of the guitar body after buffing with compound

The guitar build is in the home stretch — next up: parts.

Finishing (2) — Mounting the parts

Paint’s done.

Time to mount the parts.
So close to finished now!

Tuning pegs

Mount the pegs. (The photo below is what this section ends at.)

Finished headstock with tuning pegs mounted, the end result of this section
(Section result)

The headstock holes are already drilled — so this is just about installing the tuners.

Headstock with pre-drilled holes ready for the tuning pegs to be installed

Slip the tuner up through the hole from underneath…

Slipping a tuning peg up through the headstock hole from underneath

then secure with the nut from the top.
A box-end (socket) wrench lets you tighten without scratching the guitar’s face.
(A regular wrench works too — just be careful around the finish.)

Securing the tuner nut from the top with a box-end socket wrench to avoid scratching the finish

Tighten with the socket wrench.
Don’t crank it for dear life. Trust me — I’ve crushed wood doing that before.

Tightening the tuner nut with a socket wrench, careful not to over-crank

All six nuts tightened.

All six tuner nuts tightened on the headstock

Drive the included screws on the back to lock them in.

Driving the included screws on the back of the headstock to lock the tuners in

Tuners installed.

Tailpiece — and don’t forget the bridge ground wire

Now the tailpiece.

Finished tailpiece with its studs installed, the end result of this section
(Section result)

Tailpiece and its studs.
The studs press into the body, and the tailpiece sits on top of them.

Tailpiece and its two studs that press into the body to hold it in place

Confirm the position.
Lay the blueprint over the body and check with a ruler.
Tailpiece sits about 40 mm (≈1⅝″) behind the bridge.

Checking the tailpiece position against the blueprint with a ruler, about 40 mm behind the bridge

With the position confirmed, lay masking tape over the body and mark the position on the tape.

Masking tape laid over the body with the tailpiece position marked on it

Photo shows the tailpiece position.

Masking tape on the body showing the marked tailpiece position

Mark each stud-hole position with a marker so we can drill them.

Marking each tailpiece stud-hole position on the tape with a marker before drilling

Stud diameter measures 11.5 mm with calipers (the smooth part, not the knurled section).
So I need an 11.5 mm hole — but I don’t own that size of bit…

Measuring the tailpiece stud diameter at 11.5 mm with calipers on the smooth section

Bought an 11.5 mm bit — DIY rarely needs one this size.

An 11.5 mm drill bit purchased for the tailpiece stud holes

Stick masking tape over the spot before drilling — you’ll get a clean hole.
Without it the surface can splinter, and you’ll be sad.

Pilot with a small bit first.

Masking tape applied over the drill spot to get a clean hole and prevent splintering

Open up to 11.5 mm.

Drilling out the tailpiece stud hole to 11.5 mm after piloting with a small bit

Tailpiece stud holes drilled.

Both tailpiece stud holes drilled in the guitar body

Important: install the bridge ground wire.

“Bridge ground” is a wire that ties the strings to ground.
Without it, the amp gets a constant hum.

You know how the noise drops when you touch the strings on an electric guitar? That’s the bridge-ground path doing its job — your body and the guitar share ground via the strings, and the noise gets shunted away.

It’s called “bridge ground,” but on a Les Paul it usually attaches at the tailpiece.

Run a wire from the tailpiece stud hole through to the back cavity.
Yellow line in the diagram below.

Diagram showing the bridge ground wire routed from the tailpiece stud hole to the back cavity in yellow

Drill an angled hole from the stud hole through to the back cavity to make that path.

Angled hole drilled from the tailpiece stud hole through to the back cavity

Drill broke through from the stud-hole side as shown.

Drill bit breaking through into the stud hole from the back-cavity path

Feed the ground lead through.
Strip the insulation off the end.

Feeding the ground lead through the hole with the insulation stripped off the end

Then press the stud in so it makes contact with the bare wire.

Pressing the tailpiece stud in so it contacts the bare ground wire

Tap the stud in with a hammer (it’s pretty stiff)…

Tapping the stiff tailpiece stud into the body with a hammer

I put a board between the hammer and the body to protect the finish — a piece of scrap wood works fine too.

A board placed between the hammer and the body to protect the finish while driving the stud

Both tailpiece studs in.

Both tailpiece studs driven into the guitar body

Add the included screws…

Adding the included screws to mount the tailpiece

and slide the tailpiece on.

Sliding the tailpiece onto its studs

Tailpiece — installed.

Tailpiece installed on the guitar body

Bridge

Onto another critical part — the bridge.

Finished bridge mounted on the body, the end result of this section
(Section result)

The bridge for this build.

The bridge to be installed on this guitar build

To get the bridge in the right spot, I temporarily strung the 1st and 6th strings and tuned them — letting the actual notes pin down the position.

Drop the nut on temporarily for this.

Temporary nut placed and the 1st and 6th strings strung to help set the bridge position

Place the nut and string the 1st and 6th strings.

Bridge sitting loose in place with strings carried through to the tailpiece

Bridge is just sitting in place — strings then carry on through to the tailpiece.
Design scale length: 25″ (635 mm) for the 1st, +4 mm for the 6th = 639 mm. Place the bridge so those values land where they should.

* Set the saddles to their middle position.

Placing the bridge so the 1st-string scale length hits 635 mm and the 6th about 639 mm

From here, find the bridge position where both standard tuning and octave (intonation) tuning agree on the 1st and 6th strings.

Octave tuning is covered in detail in the next section (“Final adjustments — Intonation”), so apologies for the order, but flip ahead for the procedure.

Adjusting the bridge position until standard and octave intonation tuning agree

At the position where intonation lines up, the 1st-string scale length comes out close to the design value of 635 mm.
The 6th lands roughly 4 mm behind, near 639 mm.

To lock in this position, mark the bridge stud-hole locations.

Marking the bridge stud-hole positions once the intonation-correct spot is found

The pen tip didn’t quite reach, so I marked with a thin drill bit.

Marking the bridge hole positions with a thin drill bit where the pen tip couldn't reach

Hole positions marked.

Bridge stud-hole positions marked on the guitar body

The bridge studs measure roughly the same as the tailpiece studs (11.6 mm).

Piloting the bridge stud holes with a small drill bit

Pilot with a small bit first.

Masking tape over the spot before drilling the bridge holes to 11.5 mm

Lay masking tape over the spot to prevent splintering, then drill 11.5 mm — same as the tailpiece holes.

Hammering the bridge studs into the body

Hammer the studs in.

Scrap wood slotted between the hammer and body to protect the finish while driving bridge studs

Same finish-protection trick — slot a piece of scrap between the hammer and the body.

Both bridge studs installed in the guitar body

Bridge studs in.

Adding the height-adjustment thumbwheels onto the bridge studs

Add the height-adjustment thumbwheels…

Dropping the bridge onto its studs

then drop the bridge on.

Bridge installed on the guitar body

Bridge: installed.

Conductive shielding paint for noise control

Brush conductive shielding paint into the pot and pickup cavities.

Most production guitars have this.
It cuts the kind of buzzing hum that picks up off radios, fluorescent lights, etc.

One catch — just painting it isn’t enough. It has to be tied to ground.

Brushing conductive shielding paint into the guitar's control cavity for noise control

Paint the back-cavity that holds the pots and wiring.
Multiple coats and a thick layer is best.

Painting the back cavity that holds the pots and wiring with a thick conductive shielding coat

Painted.

Shielding paint applied in thick coats inside the guitar body's control cavity for the pots and wiring

Same paint inside the pickup cavities.

Applying the same shielding paint inside the pickup cavities of the guitar body
Pickup cavities coated with conductive shielding paint

<Important>
The shielding paint is on, but at this point it’s not doing anything yet.
You absolutely have to tie it to ground.
See the “Mounting the pickups” section below.

Output jack

Mount the jack the cable plugs into.

This is the plate that holds the jack:

Metal plate that holds the output jack where the shielded cable plugs in

And here’s the jack itself.

The output jack itself that the guitar cable plugs into

Screw the jack plate to the body.
I held it temporarily with masking tape first.

Jack plate held to the guitar body temporarily with masking tape before screwing

Drive the screws.
Pre-drill pilot holes first — way smoother.

Driving the screws to fix the jack plate, after pre-drilling pilot holes

Jack plate mounted.

Output jack plate mounted and screwed to the guitar body

Now the jack — solder a signal wire and a ground wire to it.

Picked up some hookup wire at the home center.

Hookup wire from the home center for soldering signal and ground leads to the jack

Soldering to the jack.
That tool in the photo is a “helping hands” / soldering stand.
(Not strictly required, but it makes solder work dramatically easier.)

Soldering wires to the output jack held in a helping-hands soldering stand

Wires soldered to the jack.

Signal and ground wires soldered to the output jack

Push it through the jack-plate hole from the back…

Pushing the wired output jack through the jack-plate hole from the back

then secure with the nut from the front.

Output jack secured from the front with its nut, fully installed

Jack — installed.

Mounting the pickups

Time to mount the pickups.

Pickups are the area you most want shielded from noise.
We painted shielding paint earlier, but right now it’s electrically floating — let’s connect the pickup cavity to ground.

[Important] Tie the pickup cavity shielding to ground

Painting on the conductive paint effectively wraps the blue area below in a metal “shield.”
But — on its own, it doesn’t actually shield anything!

Reason: the shield isn’t connected to ground.

The mechanism is — noise (changing electric fields) induces charge on the shield, and that charge flows away to ground, so it doesn’t get into the wires inside.
For that to work, the shield must be tied to ground.
[Don’t care about the why? Skip ahead — just take this as a rule.]

To do: connect the blue area below to a ground wire.

Diagram showing the blue cavity-shield area that must be connected to a ground wire

The trick I used: solder a metal washer to a wire, then screw the washer down inside the cavity.
(The other end of the wire ties to the jack’s ground.)

Metal washer soldered to a ground lead wire for grounding the cavity shielding

Solder washer to wire.

Washer soldered to the ground wire ready to screw inside the cavity

Screw it down inside the pickup cavity.

Screwing the washer-and-wire down inside the pickup cavity to ground the shielding
Grounding washer screwed down inside the pickup cavity

Once the other end of this wire reaches the jack’s ground, the cavity shielding is properly grounded and actually shields.

Pickup cavity shielding grounded and mounting prep complete

Pickup mounting prep — done.

Mounting the pickups

Now actually mount the pickups.

The pickups I bought.
“NECK” goes in the front (neck) position, “BRIDGE” in the rear.

The purchased humbucker pickups, one marked NECK and one marked BRIDGE

The data sheet says to short the red and white leads together — solder their tips, then wrap them in tape for insulation.

Red and white pickup leads soldered together and wrapped in tape for insulation

The pickup doesn’t bolt directly to the body — it hangs from the “escutcheon” (the surrounding ring/frame).
Pick an escutcheon that fits your pickup size.

As shown, run the included escutcheon screws through springs, then through the screw holes on either side of the pickup.
That suspends the pickup from the escutcheon.

Escutcheon screws run through springs and the pickup's side holes so the pickup hangs from the ring

Then mount the escutcheon (with the pickup hanging from it) onto the body face.

Drop the pickup into the cavity…

Dropping the pickup, hanging from its escutcheon, into the body cavity

Screw the escutcheon down.

Screwing the pickup escutcheon down onto the guitar body face

Same routine for the rear pickup.

Rear pickup mounted the same way in its escutcheon on the body

Pickups: installed.

The two screws on each escutcheon adjust pickup height — fine-tune later once everything’s together.

Knobs, switch, and wiring

I went with a Les Paul-style control layout.

For the wiring I followed online references.
The schematic below is a Les Paul wiring diagram from Guitarworks (a Japanese guitar parts shop).
This is what we’re wiring to.

Les Paul wiring schematic from Guitarworks used as the reference for the electronics

For the volume / tone pots, the points circled red below get soldered to the back of the pot housing. (The pot back is then tied to the ground network.)

* Solder doesn’t bond easily to the pot housing, so it’s totally fine to skip the pot-back joint and instead jumper the lugs together with a piece of wire. (Honestly often easier.)

Wiring diagram with red-circled pot terminals to be soldered to the back of the pot housing

The pot back has a lot of mass and sucks heat away from the soldering iron, so add some flux — solder will flow much better.
Soldered up like this:

Terminals soldered to the pot back using flux to help the solder flow

For mounting, the little anti-rotation tab in the next photo gets in the way — break it off with pliers.

Anti-rotation tab on the pot broken off with pliers before mounting

Time to seat the pots — but the bushing collar is wider than the hole I’d drilled, so I widened the hole at the surface (just the surface, no need to go through).

Body hole widened at the surface so the pot's bushing collar fits

Pot fits.

Potentiometer seated in the widened hole in the guitar body

Add washer + nut on the front side and tighten.

Washer and nut added and tightened on the front side of the pot

Same install for the volume and tone pots.

Volume and tone pots installed the same way in the body

Pickup selector switch goes in the same way.

Pickup selector switch mounted into the body like the pots

With the pots mounted, time to wire it all up.

Solder according to the wiring diagram from earlier.

Wiring the pots and switch by soldering according to the Les Paul diagram

About the two capacitors circled red above — Les Paul mod culture says you should swap them for “Orange Drop” film caps…
but they’re pricey.
The voltage rating is 600 V — way overkill for the tiny signal levels in an electric guitar.
I went with cheap regular film caps instead.

Soldered up like this.

Cheap film capacitors soldered into the guitar's control wiring

From the front it looks like this.

Front view of the completed control wiring with pots and switch

Push the volume and tone knobs onto the shafts.

Pushing the volume and tone knobs onto the pot shafts

Just push them on.

Volume and tone knobs pushed onto the shafts, electronics complete

Phew — electronics: done.

Mounting the nut and shaping the slots

Mount the nut.
Glued in with CA glue.

Nut glued into the neck slot with CA glue

Press it tight against the fretboard side and glue down.

Pressing the nut tight against the fretboard side while gluing it down

The nut is glued, but the string slots come too shallow from the factory — open them up with a nut file.

Deepening the nut's shallow factory string slots with a nut file

A nut file is a guitar-specific tool — comes in widths to match each string’s gauge.

* The slot should slope so it’s higher on the fretboard side and lower on the headstock side.
File on a slight downward angle, like in the photo.

Filing the nut slot at a slight downward angle toward the headstock side

Filing in progress.

Nut string slots taking shape as filing progresses

How deep should the slots be?

I saw a rule of thumb online — “fret the 3rd fret, and there should be ~0.2 mm clearance between the string and the 1st fret.”
Cut too deep and you’ll get fret buzz, and recovery means a new nut, so err shallow first, then fine-tune for playability after the build is done.

Nut installed with its string slots filed to depth

Nut: installed.

Strap pins and back cover

The big parts are done — but resist the urge to rush, and finish the strap pins and the back cover.

Mounting the strap pins

The pins that hold the strap on.
Anyone who’s made it past everything earlier in this article won’t break a sweat here.

The strap pins that hold the guitar strap in place

Heads up: don’t drive the included screw straight in or the wood may split. Pre-drill a pilot hole.

Pilot with a 3 mm bit.

Pre-drilling a 3 mm pilot hole for the strap pin to avoid splitting the wood

Same on the front side.

Drilling the pilot hole for the strap pin on the front side

Drive in the strap pins.

Driving the strap pin into the pilot hole with a screw
Strap pins installed on the guitar body

Strap pins: installed.

Back cover

The back-cavity (with all the pots in it) is wide open — let’s add a cover.
I cut a piece of 0.5 mm aluminum sheet from the home center.
(Plastic / acrylic might be even easier to work with.)

0.5 mm aluminum sheet cut from the home center for the back cavity cover

Cut the cover shape out of the blueprint and trace it onto the aluminum with a marker.

Cover shape traced onto the aluminum sheet with a marker from the blueprint

Cut with metal shears.

Cutting the aluminum cover to shape with metal shears

Thin aluminum cuts easily.
If you don’t have shears, go with wood or acrylic instead of aluminum.

Aluminum back cover cut cleanly to shape

Test-fit on the back cavity.

Test-fitting the aluminum cover on the body's back cavity

I want to be able to take the cover off and put it back on, so I drove threaded inserts (M4) into the body.
Bought 4 mm-thread inserts at the home center.

M4 threaded inserts from the home center for a removable back cover

Per the instructions, drill 6 mm pilot holes.

Drilling 6 mm pilot holes in the body for the threaded inserts

Three pilot holes (locations shown).

Three pilot holes drilled for the threaded inserts, locations marked

Hammer the inserts down into the holes.
Hitting them straight with a hammer worried me — I didn’t want to mar the finish.

Preparing to hammer the threaded inserts into the pilot holes

So I put a screw on top and hammered through that.

Hammering the insert through a screw placed on top to protect the finish

Inserts driven home.

Threaded inserts driven flush into the body

Drill matching holes in the cover for the screws.
Center-punch first, then drill (with a metal-cutting bit).

Center-punching and drilling screw holes in the aluminum cover

Deburr the cut edges of the aluminum with a file.

Deburring the cut edges of the aluminum cover with a file

Set it onto the back of the body,

Setting the aluminum cover onto the back of the guitar body

and screw it down.

Aluminum back cover screwed down onto the body cavity

Nice work!

The long road of the build is essentially over — only setup and adjustment left.

Finishing (3) — Setup & adjustment, and finally — done!

Every step of the build and parts mounting is now complete.

Almost there.

Setup

Tweak the guitar so it plays well.
A rough first pass here, then fine-tune as you actually play.

String height (action)

Too high — hard to play. Too low — you get fret buzz.

Bridge height

Spin the thumbwheels under the bridge to raise / lower it.
Slack the strings off slightly before turning.

Diagram of the bridge thumbwheels used to raise or lower string height
Final-tune the nut slot depth

Now do the final pass on the nut slot depth from the previous section.

Final adjustment of the nut string-slot depth

Truss rod

This adjusts neck relief.
Common rule of thumb: hold down both the 1st and last frets simultaneously, and the gap between the string and the fret around the middle (~12th fret) should be about the thickness of a postcard.

Turn the spot circled in the photo with a hex key to dial in relief.

Adjusting neck relief by turning the truss rod with a hex key at the circled spot

Intonation

Re-do intonation now that everything’s in place.

What is intonation?

By the geometry of the guitar, “you can tune the open strings perfectly and still have fretted notes go sharp or flat.”
Compensating for that by moving the saddle forward / back to fine-tune string length is what intonation tuning is.

Procedure: either
1. Tune so that the fretted note at the 12th fret is exactly one octave above the open string,
or
2. Match the fretted note at the 12th fret to the harmonic at the 12th fret.

That’s how you set string length.
Personally I don’t bother with the harmonic — just use a tuner and method 1 (compare open vs. 12th fret).

Setting intonation by comparing the open string to the fretted 12th fret with a tuner
How to do intonation

Step 1: Tune the open strings.
Tune each open string accurately as usual.

Step 2: Check the fretted 12th-fret note.
Press down the 12th fret normally, pluck, and read the tuner.
(You can also compare against the 12th-fret harmonic.)

Step 3: Move the saddle.
Use the tuner reading to decide which way:

12th-fret note Adjustment
Flat (low) Move saddle toward the neck (shorten string)
Sharp (high) Move saddle away from the neck (lengthen string)

Pickup height

Adjust pickup height with the screws shown in the photo.
(Bonus of building it yourself — you actually understand how the mechanism works.)

For pickup height, just play and tweak by ear.

Adjusting pickup height with the screws shown on the escutcheon

Done!

Finished — finally!!

One-of-a-kind original guitar — born.

The look is mostly Les Paul-based.
Body thickness ended up at ~45 mm (≈1¾″) — a thickness I personally find comfortable to play.
Weighed it though — 4.3 kg, heavier than I expected.

Playability is solid — honestly, I think it stacks up against a factory guitar.

The paint job came out exactly the way I’d hoped.

Maybe a Stratocaster type next?

The finished one-of-a-kind Les Paul-style DIY electric guitar

Did your guitar come out OK?

It’s a real journey — but the feeling when it’s finally done is like nothing else.
Hope this site helped on your own DIY-guitar adventure.

There are still plenty of rough edges on this site, so I’ll keep updating as I go.
See you around!

Missed the planning stage, or want to revisit the drawings? Head back to Part 1: Planning & Design. And if you’d like to see how a from-scratch build looks without the beginner scaffolding, there’s my PRS-style build log too.

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