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High-Temperature FFF / FDM

CreatBotPEEK-250High Temperature Industrial 3D Printer

A professional ultra-high-temperature desktop 3D printer built for PEEK, PEI, PEKK, PPSU, carbon-fiber composites, and demanding engineering polymers where chamber control matters as much as nozzle temperature.

480°C
Nozzle
200°C
Chamber
250×250×300
Build mm
Materials
PEEKPEI / ULTEMPEKKPPSUCF / GF
Thermal
Water CoolingHeat IsolationActive CoolingAnnealing
Financing
$11,999$210/mo est· 72 mo · 8% APR · OAC

Rev1 helps validate material fit, temperature requirements, and post-processing workflow before you buy.

Check Specs
CreatBot PEEK-250 high-temperature 3D printer
USA Customers · Service & Support

The Only Approved CreatBot Service Provider in the USA.

Rev1 Technologies is the sole CreatBot Authorized Service Provider in the United States and a certified CreatBot Premium Distributor. Phone and video support, application consultation, parts, consumables, and high-temperature workflow guidance are delivered from Auburn Hills, Michigan.

US Phone & Video Support Ships from US Warehouse Authorized Repairs & Parts
01
Capability Stack

Built around the hard part of PEEK: heat control.

200°C
Chamber Temperature

High-temperature ambient control supports PEEK and PEI printing and allows annealing directly inside the machine.

480°C
Nozzle Temperature

A high-temperature hot end opens the door to ultra-performance polymers, carbon fiber, glass fiber, PPSU, PEKK, and ULTEM materials.

40°C
Exterior Safety Target

CreatBot states the outer surface stays under 40°C after five hours when the hot chamber reaches 180°C.

20 min
Rapid Chamber Ramp

Designed to raise chamber temperature to 180°C in approximately 20 minutes for faster start-up on high-temp jobs.

0.05mm
Natural Flatness

Aviation-grade ultra-flat platform and polymer coating help maintain flatness under extreme thermal conditions.

120kg
Machine Weight

A compact but serious 630×555×815mm enclosed platform for advanced material work in labs and production spaces.

Need to know if this thermal stack fits your polymer?
Validate Application
02
OEM Proof Cards

The World's First claims need the same visual proof the OEM used.

PEEK-250 heated chamber proof image
The World's First

Desktop high-temperature 3D printer platform built around a maximum hot chamber of 200°C.

200°C
PEEK-250 control screen and thermal verification
The World's First

After the hot chamber reaches 180°C, CreatBot states the outer surface remains below 40°C after extended heating.

40°C
PEEK-250 tall high-temperature chamber print
The World's First

Rapidly raises the hot chamber temperature to 180°C for difficult high-temperature polymer parts.

20 min
These OEM images are preserved because they carry the product argument.
See Thermal Evidence
03
Thermal Engineering Evidence

Why raising the cavity to 180°C is hard — and why it matters.

This vendor block should not be stripped. It explains the engineering hurdle: circuit boards, motors, belts, shielding, insulation, chamber structure, and user-safe exterior temperature all become harder as the cavity approaches true PEEK / PEI process temperatures.

70–80°C electronics limit120°C motors & belts150°C insulation design180°C successful chamber proof
70 to 80C chamber electronics thermal limit
70–80°C limit

Most circuit boards, motors, belts, and vulnerable electronics must be isolated before the chamber can go much hotter.

120C chamber motor belt cooling and shielding limit
120°C limit

Motors and belts require shielding and active cooling as chamber temperatures rise.

150C chamber insulation and enclosure design
150°C challenge

At higher ambient temperatures, the enclosure and insulation system must protect both print quality and machine safety.

180C chamber successful high-temperature print proof
180°C proof

The successful tall print shows the point of the PEEK-250: the chamber is hot enough to make parts printable that fail lower-temp systems.

This is the missing source-data section you flagged.
See Progression Proof
04
Annealing Workflow

Anneal without removing the part from the build plate.

PEEK / PEI Annealing

Anneal without removing the part from the build plate.

The PEEK-250 is designed around one-stop annealing: after the model is printed, the part can remain on the platform while the chamber follows a high-temperature annealing schedule. That avoids the thermal shock and restraint loss that can warp high-performance polymer parts after printing.

Direct in-printer annealingReduced thermal shockBetter PEEK workflow
PEEK printed parts for high-temperature 3D printing
Want to confirm annealing requirements before quoting?
Ask Rev1
05
Chamber Engineering

A 360° hot-air circulation strategy for consistent crystallization.

CreatBot PEEK-250 heated chamber cutaway
Thermally Uniform Chamber

A 360° hot-air circulation strategy for consistent crystallization.

CreatBot's chamber design uses a circulation/spoiler device to move hot air through the cavity, helping polymer parts crystallize more evenly from different angles instead of depending on localized radiant heat.

200°C chamber360° circulationUniform thermal field
Need chamber-temperature proof for your target geometry?
See Print Proof
06
Extruder System

Wear-resistant extrusion for abrasive high-temp materials.

Extruder System

High-torque, wear-resistant extrusion for abrasive high-temp materials.

The PEEK-250 uses a double-tooth silicon carbide extruder and integrated die-casting wear-resistant nozzle. CreatBot positions water cooling as essential for reliable high-temperature filament flow, especially with carbon-fiber and glass-fiber materials.

Water coolingDirect drive30-second nozzle service
CreatBot PEEK-250 high temperature extruder system
Printing abrasive high-temp compounds?
Review Specs
07
Platform Control

A flat, hot platform designed for adhesion under chamber load.

CreatBot PEEK-250 high-temperature heated platform
200°C Platform

A flat, hot platform designed for adhesion under chamber load.

The platform combines an aviation-grade ultra-flat substrate with a polymer-based coating. CreatBot lists 0.05mm natural flatness and 0.1mm high-temperature flatness at 180°C chamber temperature.

200°C bed0.05mm natural flatnessNo leveling required
Need adhesion and flatness checked against your part?
Request Review
08
Advanced Polymer Parts

Move beyond PLA and nylon into true high-performance polymer workflows.

Large high-temperature PEEK printed industrial part
Advanced Polymer Parts

Move beyond PLA and nylon into true high-performance polymer workflows.

For engineering teams working with PEEK, PEI, PEKK, PPSU, fiber-filled materials, and demanding chemical or heat environments, chamber temperature is the real gating factor.

Have a PEEK, PEI, PEKK, or PPSU part to validate?
Start Quote
09
Chamber Progression Proof

The vendor proof: same geometry, different chamber temperature, different result.

This section should stay close to the OEM logic because it explains the buying argument better than a generic gallery: the PEEK-250 is not just another enclosed printer — its high-temperature chamber changes whether demanding PEEK / PEI shapes survive the print.

90C chamber temperature print trial showing failed geometry
90°C Trial — Fails

At lower chamber temperature, the part lifts and deforms. This mirrors the real limitation of many enclosed printers that are warm, but not hot enough for serious PEEK workflows.

120C chamber temperature print trial showing distortion
120°C Trial — Improves

The geometry begins to stabilize, but thermal stress still overwhelms the part. This is the gap between “high-temp capable” and reliably printing ultra-polymers.

150C chamber temperature print trial near process window
150°C Trial — Close

Higher ambient heat reduces warping, but the print still does not fully resolve. The material is approaching the process window, not fully inside it.

180C chamber temperature green check successful high temperature print
180°C Trial — Passes

The green-check result is the money image: with enough chamber heat, the part becomes printable. That is the proof point this page needs to preserve.

This is the key proof point: chamber temperature changes the outcome.
Validate Your Part
10
Workflow

Software, accessories, and material readiness.

CreatWare software icon
CreatWare

Native CreatBot slicing workflow, with Simplify3D, Cura, and Slic3r listed as compatible options.

Enhanced accessories toolkit icon
Toolkit

Enhanced accessories and support items available for the high-temperature workflow.

Download icon
Downloads

User manual, software, and accessories can be staged in the final Rev1 download section.

CreatBot related printer icon
Product Fit

Rev1 can compare PEEK-250 against other CreatBot high-temperature and professional desktop systems.

Need software, accessories, or readiness confirmed?
Talk to Rev1
11
Full Specs

CreatBot PEEK-250 product parameters.

Build Volume
250 × 250 × 300 mm
Filament Diameter
1.75 mm
Nozzles
Single extruder
Nozzle Diameter
0.4 mm standard; 0.3–1.0 mm optional
Best Speed
55 mm/s
Max Speed
200 mm/s
Input Power
200–240V, 20A
Rated Power
2500W
Display
7-inch full-color multilingual touchscreen
File Transfer
USB connectivity / USB disk
Cooling
Air pump cooling + water cooling
Platform
PCB aluminum + PEEK print board
Precision
X/Y 0.0127mm; Z 0.00125mm
Construction
Fully enclosed hot chamber
Nozzle Temp
480°C max
Chamber Temp
200°C max
Platform Temp
200°C max
Software
CreatWare, Simplify3D, Cura, Slic3r
Machine Size
630 × 555 × 815 mm
Net Weight
120 kg
Specs look close? Rev1 can confirm fit before purchase.
12
Competitive Comparison

How PEEK-250 stacks up against the high-ranking PEEK printer set.

For shoppers searching “PEEK 3D printer,” the buying decision usually collapses to thermal envelope, build volume, support material strategy, and whether the machine can keep ultra-polymers stable without pushing the user into a much larger production platform.

CapabilityCreatBot PEEK-250INTAMSYS FUNMAT PRO 410Vision Miner 22 IDEX v4Apium P220Rev1 Take
Thermal envelope
Chamber temperature200°C max chamber; OEM positions 180°C as the key PEEK/PEI process proof90°C maximum chamber100°C+ actively heated chamber180°C listed chamber / adaptive heating systemPEEK-250 wins on full-chamber heat among desktop-sized FFF options; Apium is close thermally but much smaller.
Nozzle temperature480°C max nozzle500°C dual nozzles500°C independent dual hotends540°C full-metal hot endCompetitors can advertise hotter nozzles, but PEEK success is usually chamber-limited, not nozzle-only.
Build platform200°C platform160°C bed200°C true self-leveling bed160°C bedPEEK-250 and 22 IDEX both hit 200°C bed class; PEEK-250 pairs it with the hottest chamber.
Build size and workflow
Build volume250 × 250 × 300 mmUp to 305 × 305 × 406 mm350 × 350 × 450 mm205 × 155 × 150 mmPEEK-250 is not the largest; it is the compact high-chamber option. For bigger parts, Rev1 should discuss 22 IDEX / FUNMAT / larger CreatBot systems.
Extrusion / support strategySingle extruder; direct-drive high-temp workflowDual nozzle industrial support-material workflowTrue IDEX dual independent extrusionSingle high-temp extrusion platformIf soluble/support complexity is the priority, dual-nozzle or IDEX machines may be stronger. If chamber heat is the priority, PEEK-250 is the story.
Annealing / crystallization approachIn-printer direct annealing for PEEK / PEI; avoids removing the part before heat treatmentAdvanced thermal design; no in-printer annealing claim used hereHigh-temp open-material workflow; no in-printer annealing claim used hereAdaptive heating approach reduces post-process annealing need for smaller partsThis is a strong differentiator: PEEK-250 turns chamber heat into a simplified post-print workflow.
Best-fit buyer
Best fitLab / engineering team needing compact, very hot chamber for PEEK, PEI, PEKK, PPSU trials and low-volume partsIndustrial team needing dual nozzles and a larger chambered machineShop needing large open-material IDEX production flexibilitySpecialized polymer lab needing compact German PEEK process controlRev1 should position PEEK-250 as the “highest chamber heat in a compact professional footprint,” not as the largest or most multi-material machine.

Comparison is based on publicly available manufacturer/product information and third-party listing data available at build time. Final machine selection should be validated against part geometry, material, support strategy, and facility constraints.

Comparing alternatives from search results?
Ask Rev1 to Recommend
13
FAQ

High-temperature printing questions.

Why is a 180–200°C chamber important?
High-temperature polymers benefit from hot ambient conditions that reduce internal stress, improve bonding, and support annealing. CreatBot specifically positions 180°C as important for PEEK annealing and PEI printing.
Can the PEEK-250 print carbon-fiber materials?
Yes. CreatBot lists carbon-fiber and glass-fiber high-temperature materials including PEEK-CF, PEEK-GF, UltraPA-CF, UltraPA-GF, PET-CF and PET-GF.
Does it need manual bed leveling?
CreatBot states the platform is designed so no manual or automatic leveling is required, avoiding sensor failure or manual leveling issues in high-temperature environments.
What is one-stop annealing?
After printing, the user can select direct annealing inside the printer for materials such as PEEK or PEI, instead of removing the part and transferring it to a separate annealing furnace.
What is the machine footprint?
CreatBot lists machine size as 630 × 555 × 815 mm with a net weight of 120 kg.
How does Rev1 help with this machine?
Rev1 helps review your application, confirm whether PEEK-250 is the right fit, plan material workflows, and quote the system with configuration, shipping, training, and support.
How does the CreatBot PEEK-250 compare to the INTAMSYS HT2.0 high-temperature 3D printer?
The INTAMSYS HT2.0 reaches 500°C nozzle temperature but is priced significantly higher and lacks the PEEK-250's 200°C sealed chamber and in-printer DAS annealing capability. The PEEK-250 combines 480°C nozzle, 200°C chamber, 200°C heated bed, water cooling, and DAS in a desktop footprint — the most complete high-temperature system in its price class. Rev1 Technologies can arrange a side-by-side capability review for qualifying buyers.
How does the CreatBot PEEK-250 compare to the Roboze One+400 for engineering polymers?
The Roboze One+400 is a high-precision rack-and-pinion machine with strong dimensional accuracy for PEEK but costs $25,000+ with much smaller build volume (200×200×200 mm) and no in-printer annealing. The PEEK-250 offers a larger 250×250×300 mm build envelope, 200°C chamber, and DAS annealing at roughly half the price — making it the stronger value for prototyping and low-volume production of PEEK and high-temp parts.
Still have high-temperature material questions?
Ask Rev1
14
Authorized Partner

CreatBot hardware with Rev1 application support.

Sold & Supported By
Rev1 Technologies logo
Manufacturer
CreatBot logo

PEEK-class printing is an application decision, not just a printer purchase. Rev1 helps validate the target polymer, part geometry, chamber requirement, post-processing workflow, and quote configuration before the system is deployed.

01
Application Review

Confirm whether the PEEK-250 is the right size and thermal platform for the specific material and part geometry.

04
Material Workflow

Plan print, chamber, platform, drying, support, and annealing expectations before purchase.

05
US-Based Support

Work with Rev1 for quoting, setup guidance, and practical troubleshooting from Auburn Hills, Michigan.

Ready to pair CreatBot hardware with Rev1 application support?
Add to Cart — $11,999

Ready to validate PEEK, PEI, or PEKK on your shop floor?

Send Rev1 your material, part size, accuracy requirements, and expected production workflow. We'll help confirm whether PEEK-250 is the right high-temperature platform or whether a larger CreatBot system is a better fit.

Email Rev1Call (248) 707-2950