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What your printer can actually print.

Four numbers on the spec sheet decide it: nozzle ceiling, bed ceiling, whether the chamber is heated, and what the nozzle is made of. Pick a printer or enter yours — the tool checks it against every material ZORVA sells.

Specs used

Nozzle max
300 °C
Bed max
100 °C
Chamber
Open

Per Bambu Lab · 27/08/2026

6 print as-is · 3 with limits · 0 need an upgrade · 4 can't print

Prints6

  • PLA

    PLA Matte

    Prints
    • Nozzle: needs 205–220 °C, printer 300 °C — enough, with margin.
    • Bed: needs 55–65 °C, printer 100 °C — enough.
    • Chamber: not required.
    See spools →
  • PLA

    PLA High Speed

    Prints
    • Nozzle: needs 215–235 °C, printer 300 °C — enough, with margin.
    • Bed: needs 55–65 °C, printer 100 °C — enough.
    • Chamber: not required.
    See spools →
  • PETG

    PETG Core

    Prints
    • Nozzle: needs 235–250 °C, printer 300 °C — enough, with margin.
    • Bed: needs 75–85 °C, printer 100 °C — enough.
    • Chamber: not required.
    See spools →
  • PETG

    PETG 2.0

    Prints
    • Nozzle: needs 230–240 °C, printer 300 °C — enough, with margin.
    • Bed: needs 70–80 °C, printer 100 °C — enough.
    • Chamber: not required.
    See spools →
  • PETG

    PETG Matte

    Prints
    • Nozzle: needs 230–255 °C, printer 300 °C — enough, with margin.
    • Bed: needs 70–80 °C, printer 100 °C — enough.
    • Chamber: not required.
    See spools →
  • TPU

    TPU 95A

    Prints
    • Nozzle: needs 220–235 °C, printer 300 °C — enough, with margin.
    • Bed: needs 40–60 °C, printer 100 °C — enough.
    • Chamber: not required.
    See spools →

Check first3

  • PLA

    PLA-CF

    Check first
    • Hardened nozzle: required. Our source doesn't say what the stock nozzle is — if it's brass, swap it.
    See spools →
  • PETG

    PETG-CF

    Check first
    • Hardened nozzle: required. Our source doesn't say what the stock nozzle is — if it's brass, swap it.
    See spools →
  • TPU

    TPU 85A

    Check first
    • Needs a direct-drive extruder — check yours; a Bowden struggles to push soft TPU.
    See spools →

Prints, with limits3

  • ABS & ASA

    ABS Core

    Prints, with limits
    • Bed: needs 95–110 °C, printer 100 °C — only the low end; large parts may lift.
    • Chamber: needs 45–55 °C — an open printer manages small parts (under about 80 mm) in a draught-free room; larger ones warp or split. An enclosure helps a lot.
    See spools →
  • Nylon & composites

    PA12

    Prints, with limits
    • Chamber: needs 45 °C — an open printer manages small parts (under about 80 mm) in a draught-free room; larger ones warp or split. An enclosure helps a lot.
    • Needs an active dry box while printing — independent of the printer, but not optional.
    See spools →
  • Polycarbonate

    PC Blend

    Prints, with limits
    • Bed: needs 95–110 °C, printer 100 °C — only the low end; large parts may lift.
    • Chamber: needs 45–55 °C — an open printer manages small parts (under about 80 mm) in a draught-free room; larger ones warp or split. An enclosure helps a lot.
    See spools →

Can't print4

  • ABS & ASA

    ASA Core

    Can't print
    • Bed: needs 100–110 °C, printer 100 °C — only the low end; large parts may lift.
    • Chamber: needs 50–60 °C — it has to be a heated chamber; neither an open frame nor a passive cover is enough.
    See spools →
  • Nylon & composites

    PA-CF

    Can't print
    • Nozzle: needs 260–290 °C, printer 300 °C — prints at the low end of the window, not the whole of it.
    • Chamber: needs 50 °C — it has to be a heated chamber; neither an open frame nor a passive cover is enough.
    • Hardened nozzle: required. Our source doesn't say what the stock nozzle is — if it's brass, swap it.
    • Needs an active dry box while printing — independent of the printer, but not optional.
    See spools →
  • Nylon & composites

    PA6-GF

    Can't print
    • Nozzle: needs 270–300 °C, printer 300 °C — prints at the low end of the window, not the whole of it.
    • Bed: needs 90–110 °C, printer 100 °C — only the low end; large parts may lift.
    • Chamber: needs 55 °C — it has to be a heated chamber; neither an open frame nor a passive cover is enough.
    • Hardened nozzle: required. Our source doesn't say what the stock nozzle is — if it's brass, swap it.
    • Needs an active dry box while printing — independent of the printer, but not optional.
    See spools →
  • Polycarbonate

    PC Core

    Can't print
    • Nozzle: needs 265–300 °C, printer 300 °C — prints at the low end of the window, not the whole of it.
    • Bed: needs 100–120 °C, printer 100 °C — only the low end; large parts may lift.
    • Chamber: needs 50–60 °C — it has to be a heated chamber; neither an open frame nor a passive cover is enough.
    See spools →

The rules

Temperature picks the material, not the logo.

A brochure ceiling is not a printing temperature. Sensors drift a few degrees, and some machines throttle when held at the top for hours — so the tool treats the ceiling less 20 °C as usable, and flags a material that only fits inside those last 20 °C.

An enclosure and a heated chamber are different things. A passive cover holds roughly 35–45 °C with the bed at 100 °C: enough for ABS and other materials needing a 45 °C chamber or less at mid sizes, not for large ASA, PA-CF, PA6-GF or PC.

Every printer figure is the maker's own, the same source the machine articles here cite. Where a maker doesn't publish a value, the tool says “check first” instead of guessing. Printer not listed? Choose “another printer” and enter the four numbers from its spec sheet.

Can an open printer print ABS?

Yes for small parts (under about 80 mm) in a draught-free room, if the bed reaches 95–110 °C. Larger parts warp or split; an enclosure, even unheated, fixes most of that.

Why does carbon-filled filament say “needs an upgrade”?

Because carbon and glass fibre wear a brass nozzle wide within a few hundred grams. A hardened steel nozzle is the cheapest upgrade on the list and opens up the whole filled-material family.

Does a bigger printer print more materials?

No. Build volume and material range are independent. A bigger volume makes it harder if anything: the wider the part, the more shrinkage stress, and the stricter the chamber requirement.