Settings database — Wood
Maple wood laser engraving and cutting settings
For a 10W diode laser engraving maple wood, start at 75–85% power and 2,500–4,000 mm/min (42–67 mm/s), 1 pass, 300 DPI. Maple's very pale cream surface produces extremely high-contrast dark marks — it is the top choice for personalised cutting boards, awards, and signs where legibility matters most. Cutting 3mm maple at 10W is demanding: expect 5–6 passes at 800 mm/min and 90–100% with air assist. These are calibrated starting points from two independent community sources — always test first. Lasertinkerer.com LTEI avg 0.00154 J/mm (engrave, 10W), 2026-06-29.
| Operation | Wattage | Power | Speed (mm/min) | Speed (mm/s) | Passes | Air assist | Confidence |
|---|---|---|---|---|---|---|---|
| Engrave (fill) | 10W | 75–85% | 2,500–4,000 | 42–67 | 1 | Optional | medium |
| Cut 3mm | 10W | 90–100% | 800 | 13.3 | 5–6 | Yes — essential | medium |
| Engrave (est.) | 20W | 70% | 5,500 | 92 | 1 | Off | low — unverified |
| Cut 3mm (est.) | 20W | 100% | 800 | 13.3 | 3 | Yes — essential | low — unverified |
Quick answer: what settings for maple wood?
At a glance — 10W diode laser:
- Engraving: 75–85% power · 2,500–4,000 mm/min (42–67 mm/s) · 1 pass · 300 DPI
- Cutting 3mm: 90–100% power · 800 mm/min (13 mm/s) · 5–6 passes · air assist on
Maple is a demanding material to cut at 10W (5–6 passes is normal), but its pale colour makes it the highest-contrast wood for engraving. If you need to cut shapes, a 20W machine brings this down to 3 passes. medium confidence
Sources: Craftgineer Blog (March 2026) + Bonny Creations / Ortur Laser Master 3 library (June 2026). Last verified 2026-06-29.
What power and speed engraves maple with a 10W diode laser?
Two community sources converge on a range of 75–85% power at 2,500–4,000 mm/min for 10W engraving. Craftgineer documents 75% at 2,500 mm/min; Bonny Creations records 85% at 4,000 mm/min on the Ortur Laser Master 3 with air assist. The higher speed in the Bonny Creations result is enabled by the elevated power and the better mechanics of the Ortur LM3. Both approaches produce a deep, dark mark on maple's pale background.
| Machine class | Power | Speed (mm/min) | Speed (mm/s) | Passes | Air assist | LTEI (J/mm) | Confidence | Source |
|---|---|---|---|---|---|---|---|---|
| 10W (Craftgineer) | 75% | 2,500 | 41.7 | 1 | Off | 0.00180 | medium | community D |
| 10W (Ortur LM3) | 85% | 4,000 | 66.7 | 1 | On | 0.00128 | medium | community D |
| 20W (derived) | 70% | 5,500 | 91.7 | 1 | Off | 0.00153 | low | calc. C |
| ↑ Estimated — unverified, confirm with a test grid. LTEI-derived from two 10W anchors (avg 0.00154 J/mm). Adjust ±5% power or ±500 mm/min speed based on your specific machine. | ||||||||
Note that the Craftgineer setting at 2,500 mm/min and the Bonny Creations setting at 4,000 mm/min deliver different energy densities (0.00180 vs 0.00128 J/mm). This spread reflects real variation across machines — both give good results because maple is forgiving across this energy range. Use the heatmap below to find where your machine falls.
Cutting 3mm maple with a 10W diode laser: how many passes?
Maple is one of the most demanding woods to cut on a consumer diode laser. At 10W, expect 5–6 passes at 800 mm/min and 90–100% power with air assist. This is not a machine limitation — it is a physics limitation: maple's density (~0.70 g/cm³) requires roughly twice the total laser energy of softer hardwoods like cherry.
| Machine class | Thickness | Power | Speed (mm/min) | Speed (mm/s) | Passes | Air assist | Confidence | Source |
|---|---|---|---|---|---|---|---|---|
| 10W (Ortur LM3) | 3mm | 90–100% | 800 | 13.3 | 5–6 | Yes — essential | medium | community D |
| 20W (derived) | 3mm | 100% | 800 | 13.3 | 3 | Yes — essential | low | calc. C |
| ↑ Estimated — unverified, confirm with a test grid. LTEI-derived from 10W 6-pass anchor. Maple varies significantly by grade — test before committing to production use. | ||||||||
If you need to cut maple shapes regularly, consider: (a) using a 20W+ machine which halves the passes, or (b) using cherry wood instead, which requires only 2 passes at 10W and has a similarly premium appearance.
Power × speed energy map for maple wood engraving (10W reference)
The heatmap shows delivered energy across the power/speed range for a 10W diode laser. The ringed cell (75% power, 2,500 mm/min) is the Craftgineer community recommendation. The Bonny Creations setting at 85%/4,000 mm/min sits in the cooler mid-range — both produce strong marks on maple's pale surface.
Engraving maple cutting boards with a diode laser
Maple is the most popular wood for personalised cutting board engraving because its very pale surface makes any mark highly readable. Here is what to know before you start:
- Settings are the same as for any maple engraving: 75–85% power, 2,500–4,000 mm/min, 1 pass. The wood does not know it is a cutting board.
- Surface must be perfectly flat: an uneven cutting board surface shifts the focal distance across the work area, causing uneven engraving depth. Use shims under the board or the machine's honeycomb bed to level it. Some boards have rubber feet that need to be accounted for.
- Face grain vs end grain: face-grain boards (the flat side of the board) are more consistent and easier to engrave than end-grain boards (where the wood rings are visible). End-grain boards produce a rougher, more fibrous engraved surface but some people prefer the look.
- Clean the surface first: oils and food residue on a used board can cause uneven char or prevent clean marking. Wipe with a damp cloth and let it dry fully before engraving.
- Seal after engraving: apply food-safe mineral oil or a beeswax finish after engraving to seal the engraved grooves. This protects the mark and keeps the board food-safe.
- Laser carbon residue: engraving leaves fine carbon particles in the grooves. Wipe with a dry cloth after lasing and before oiling. The residue is harmless once sealed.
For photo or portrait engraving on maple cutting boards, use a stucki or jarvis dither in LightBurn. Reduce DPI to 200–254 for speed — going higher than your beam width allows just adds time without improving resolution. Maple's tight, consistent grain handles photo engraving well.
Dialling in your maple settings
Start here — run a test square first
Maple varies more than basswood across grades and suppliers. A test grid across 65–90% power and 2,000–5,000 mm/min will quickly show you where your machine lands. The sweet spot is usually within 5–10% of the community anchors above.
Run material test grid →Common problems and fixes
- Mark is too light: maple needs more energy than most woods. Increase power by 5–10% or reduce speed by 500 mm/min. Hard maple (Acer saccharum) in particular needs more energy than soft maple (silver or red maple).
- Fuzzy or inconsistent detail: focus is critical. Maple's density means a defocused beam hits hard, dense material rather than ablating cleanly. Re-focus using a ramp test before engraving.
- Surface darkening around the design: smoke staining. Mask the surface with blue painter's tape before engraving; peel immediately after the job finishes. Tape prevents smoke residue from discolouring the pale maple surface around the engraved design.
- 6 passes and still not cut through (3mm): check that the wood is actually 3mm — some "3mm" craft maple boards measure up to 3.5mm. Also confirm air assist is running. Without air assist, char in the kerf blocks beam penetration on later passes.
- Engraving appears banded: caused by backlash or belt tension issues in the machine, not the material. Tighten belts and re-engrave. Maple reveals banding more clearly than darker woods because the mark-to-surface contrast is so high.
Safety: working with maple wood
- Ventilate: use ducted ventilation or a laser-rated fume extractor. Maple smoke is mild but persistent.
- Eye protection: OD7+ 445/450nm rated glasses whenever the laser is active.
- Air assist for cutting: essential — 5–6 passes generates significant char and smoke in the kerf.
- Confirm it is solid wood: maple veneer on MDF contains formaldehyde binders and requires higher ventilation precautions. Confirm you have solid maple before lasing.
- Maple dust sensitivity: maple is a mild allergen for some people with wood-dust sensitivity. Ventilate even for short engraving sessions.
See also: laser safety overview · can a diode laser cut wood?
Where to find maple wood for laser work:
- Maple wood thin boards and blanks for laser engraving
- Maple cutting boards for laser personalization
- Air assist pump for diode laser cutters
- OD7+ 450nm laser safety glasses
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Frequently asked questions
What power and speed for maple wood on a 10W diode laser?
Start at 75–85% power, 2,500–4,000 mm/min (42–67 mm/s), 1 pass, 300 DPI. Two community sources confirm this range. Run a test square first — maple varies by grade and supplier.
How many passes to cut 3mm maple with a 10W laser?
5–6 passes at 800 mm/min, 90–100% power, with air assist. Maple is very hard — this is normal for the material, not a machine problem. A 20W machine reduces this to approximately 3 passes.
Is maple or cherry better for laser engraving?
Maple gives higher contrast because it is a paler wood. Cherry gives a warmer aesthetic and is significantly easier to cut (2 passes vs 5–6 at 10W). For pure engraving on a pale background (cutting boards, awards), maple is superior. For jobs that require cutting shapes, cherry is the more practical choice on a 10W machine.
Can I engrave a maple cutting board with a diode laser?
Yes — maple cutting boards are one of the most popular diode laser projects. Use the same settings as any maple engraving job: 75–85% power, 2,500–4,000 mm/min, 1 pass. Seal with food-safe mineral oil after engraving. See the cutting boards section above for the full checklist.
Why does maple need more passes to cut than basswood or pine?
Maple (~0.70 g/cm³) is much denser than basswood (~0.40) or pine (~0.45). Each laser pass removes a layer proportional to how much energy the material absorbs per unit of depth. More density = more passes needed for the same thickness. This is fundamental to the physics, not a fixable machine setting.