Direct answer: the standard CreatBot F160 is the 260 °C version, while the F160-PEEK is a materially different 420 °C, 70 °C-chamber version. CreatBot's current page lists PLA, ABS, carbon fiber, wood, nylon, PC, PETG (spelled “PTEG” in the compatibility row), HIPS, PP, flexible filament, TPU, PVA and PEEK. That list should not be read as one stock profile for both variants. PLA, ABS and nylon are the manufacturer's clearest standard-F160 examples; PEEK belongs to the F160-PEEK configuration. Every other family still needs an exact-grade, temperature, nozzle, drying, surface and exposure check.
The first decision is therefore printed on the machine, not on the spool: identify whether you own the standard F160 or F160-PEEK. A 260 °C standard unit cannot become a documented PEEK platform because a slicer accepts 420 °C. Conversely, the PEEK version's higher limits do not make every high-temperature polymer or filled grade qualified. CreatBot now says the F160 has been upgraded and points new-purchase inquiries to the PEEK-250, so this guide is strongest for existing machines, used-machine evaluation and exact replacement-workflow decisions.
F160 material compatibility at a glance
| Material group | Verdict | Operating decision |
|---|---|---|
| PLA | Manufacturer-listed; straightforward starting lane | The manual lists 190-210 °C and permits the enclosure open. Confirm the exact grade, cooling and BuildTak release method. |
| ABS and HIPS | Manufacturer-listed; enclosure and exposure conditional | The manual calls for an enclosed process. Treat warp control and occupied-space exposure control as separate requirements. |
| PETG | Manufacturer-listed; surface conditional | CreatBot's page appears to transpose PETG as “PTEG.” Use the spool maker's window and a suitable release layer so strong adhesion does not damage the installed surface. |
| Nylon and PC | Manufacturer-listed; strongly process conditional | Drying, dry feed, enclosure state, surface and exact grade decide the job. A 260 °C ceiling leaves little margin for grades requiring more. |
| PP | Manufacturer-listed; adhesion conditional | The family name does not prove that BuildTak is the right interface. Match surface chemistry and release method to the exact PP formulation. |
| Flexible filament and TPU | Manufacturer-listed; hardness and feed conditional | The direct-drive layout is helpful, but Shore hardness, spool drag, feed-path clearance, retraction and realistic flow still control success. |
| Wood-filled and carbon-fiber filament | Manufacturer-listed family; nozzle and grade conditional | “Carbon Fiber” does not identify the carrier polymer, filler fraction or installed nozzle hardness. Verify abrasion resistance and minimum nozzle diameter before use. |
| PVA and other support materials | PVA is listed, but the machine specification is single-nozzle | Do not assume independent soluble-support printing. A same-nozzle material-change process must be proven for moisture, temperature overlap, contamination and purge. |
| PEEK | F160-PEEK only by current official evidence | CreatBot lists a 420 °C hotend, 120 °C manual bed target and 70 °C chamber for this variant. Confirm revision, grade, crystallinity, drying and surface controls. |
| PEKK, PEI/ULTEM, PPS/PPSU and unlisted high-temperature grades | Unsupported or poor fit by default | A 420 °C nozzle alone cannot establish chamber, bed, adhesion, crystallinity, annealing or qualification suitability. |
| Pellets, resin, powder, paste, wire and continuous fiber | Unsupported or poor fit | The current specification describes a 1.75 mm single-nozzle FDM filament machine, not those feed technologies. |
Start by identifying the hardware variant
CreatBot's current product page combines two configurations under one F160 route. It lists the standard F160 at 260 °C and 340 W, while the F160-PEEK is listed at 420 °C and 1100 W with a maximum chamber temperature of 70 °C. The same page says the default hotend supports 260 °C and asks buyers to contact CreatBot for 420 °C. Those are not minor profile differences. They affect heater, sensor, firmware, power and chamber assumptions.
For an existing or used machine, record the model plate, input rating, hotend assembly, sensor type, firmware ceiling and whether the chamber is actively heated. Do not identify the variant from enclosure appearance alone. Ask CreatBot or the supplying dealer to confirm the serial-specific configuration when records are incomplete. A used listing that says “F160 PEEK capable” without those details has not established the 420 °C version.
The current page lists a 160 × 160 × 200 mm build volume, 1.75 mm filament, one nozzle, a standard 0.4 mm nozzle and optional 0.3, 0.5, 0.6, 0.8 and 1.0 mm sizes. Those dimensions help scope the job but do not prove grade compatibility. Nozzle material matters separately from diameter, especially for wood and short-fiber composites.
What the manufacturer records prove
The official page explicitly says the standard F160 can print PLA, ABS and nylon and that the F160-PEEK is designed for PEEK. Its wider compatibility row also names carbon fiber, wood, PC, PETG, HIPS, PP, flexible filament, TPU and PVA. The manufacturer manual provides starting windows for PLA, ABS, nylon, HIPS, PETG, flexible filament, wood, PC and PEEK, and warns that those settings are reference values that change with the environment. GoodPrints reports those records; it has not independently validated the list.
The manual's table is useful because it shows that compatibility is not a temperature-only claim. It calls for the enclosure open for PLA, flexible and wood, and enclosed for ABS, nylon, HIPS, PETG, PC and PEEK. It pairs different bed and adhesion choices with each material. For PEEK it lists 380-430 °C, a 120 °C bed and 70 °C air. Those figures apply to the appropriate high-temperature configuration and remain starting context, not a finished process specification.
The product page's “carbon fiber” label is much less specific. Carbon fiber is a filler, not the carrier polymer. PLA-CF, nylon-CF, PET-CF, PC-CF and PEEK-CF can demand different temperatures, moisture control, chamber behavior and finished-part evidence. The page does not establish a hardened-nozzle specification in that compatibility row. Treat every abrasive grade as conditional until nozzle material, diameter and wear plan are verified.
Drying and the feed path are part of compatibility
Nylon, PVA and many engineering or filled grades can change during storage and printing as moisture is absorbed. Symptoms can overlap with temperature, retraction and flow faults, so a spool that extrudes is not automatically in a controlled state. Use the filament maker's current drying limits, avoid exposing a spool or dryer to a temperature its reel cannot tolerate, and keep the feed path dry during the job when the grade requires it.
The machine does not document an integrated timed filament dryer on the F160 page. Drying therefore belongs to the external workflow. The nylon drying and storage guide explains that difference, while the nylon-CF drying guide adds the abrasive-grade boundary. A dryer display is not proof of polymer temperature, and a sealed box cannot reverse moisture already absorbed into the filament.
Direct drive reduces the distance between drive gears and melt zone, which can help flexible filament, but it does not erase spool drag, buckle space or grade-specific flow limits. Start with the exact Shore hardness and a short, low-resistance path. If a soft filament repeatedly folds or jams, lowering speed and retraction may be more relevant than increasing temperature.
BuildTak, adhesion and release need material-specific rules
CreatBot describes a heated aluminum PCB bed with a BuildTak surface and a 150 °C maximum. That ceiling does not mean every listed material should use the surface at the maximum. Adhesion and safe release are separate problems. PETG can bond aggressively to some surfaces, PP often needs a compatible interface, PC and nylon can warp or pull at the surface, and PEEK needs a process proven for the exact variant and grade.
Use a replaceable test area or representative coupon before risking the full surface. Document cleaning, release layer, bed target, enclosure state, first-layer geometry and cooldown. Do not pry a hot part against the machine frame or defeat manufacturer instructions to recover a stuck print. Manual leveling also means the first-layer check belongs in every material change, particularly after nozzle or surface work.
The single nozzle changes the PVA decision
The current F160 specification lists one nozzle. Although PVA appears in the compatibility row, that does not prove simultaneous model-and-soluble-support printing. A single-nozzle workflow would require planned material changes or a design printed entirely in one material. PVA also brings strong moisture sensitivity and can leave residue in a shared melt path.
If recurring soluble supports, independent support temperatures or low-contamination multi-material work are the real requirement, compare a purpose-built system in the multi-toolhead printer guide. A second tool or independent nozzle does not automatically prove a good material pair, but it changes the purge, temperature and contamination problem in a way the F160's single-nozzle specification does not.
Facility, electrical and safety boundaries
The F160 manual warns that the nozzle and bed can cause burns, instructs the user to connect the printer to ground, and warns against opening the case because of electric-shock risk. The product page lists different rated power for the standard and PEEK variants and says input voltage depends on the destination. Verify the exact machine label, branch circuit, plug, grounding, clearance and local electrical requirements before installation. GoodPrints is not the final electrical or fire authority.
An enclosure is a thermal tool; it is not automatically an exposure-control system. The manual's advice to reduce room drafts for warp control does not override occupational-hygiene requirements. Material emissions vary by polymer, additive, temperature, degradation and task. Use the exact safety data, follow CreatBot and filament-manufacturer instructions, and apply the source-capture, ventilation, filtration, housekeeping and work-practice framework in NIOSH Publication 2024-103. Locate discharge and replacement tasks so controls protect people rather than moving emissions into another occupied area.
Keep combustible storage away from hot equipment, maintain required clearances, use appropriate detection and response procedures, and do not leave a modified or unqualified process unattended. A 420 °C hotend, 150 °C bed ceiling and heated chamber increase the need for revision-correct components and maintenance; they are not permission to bypass thermal protection.
Buyer and owner decision
Keep using a standard F160 when the 160 × 160 × 200 mm envelope is enough and your recurring work lives inside a qualified 260 °C process such as PLA, suitable ABS, PETG, HIPS, nylon, PC, PP or flexible grades. Its enclosure, direct drive and hot bed can be useful, but exact-grade limits still matter.
Keep or evaluate an F160-PEEK only when the serial-specific 420 °C hardware and heated-chamber configuration are confirmed and you can qualify PEEK from conditioning through finished part. The official record supports PEEK for that variant; it does not create blanket support for PEKK, PEI/ULTEM, PPSU or every filled high-temperature grade.
Choose a newer platform when you are buying new, need current service certainty, independent support extrusion, documented abrasive-grade hardware, a larger chamber, or a material outside the F160 records. CreatBot itself directs current purchase interest to the PEEK-250. For a larger listed-material workflow, compare the CreatBot D600 Pro2 HS material router and CreatBot D1000 Pro HS material router. For nylon and short-fiber choices across brands, use the nylon and carbon-fiber printer guide.
Outsource or request a process review when the requirement is a part rather than ownership of the machine. Start with the material-selection guide, then review the custom printing FAQ. For a scoped production question, use the JC Print Farm quote route; for the broader service path, visit JC Print Farm. These are workflow routes, not promises that any material or geometry will be accepted.
Sources and evidence boundary
- CreatBot F160 product and specification page: current variant identity, lifecycle notice, material list, build volume, nozzle choices, bed, chamber, power and single-nozzle specifications.
- CreatBot F160 user manual, version 7.3: manufacturer operating, material-setting, electrical and safety context. Confirm revision applicability to the exact machine.
- NIOSH Publication 2024-103: additive-manufacturing exposure-control framework.
GoodPrints did not independently test this printer or these materials. Manufacturer specifications and performance statements are reported with scope, not converted into guarantees of throughput, tolerance, uptime, emissions, service coverage, ROI or finished-part performance. Validate the exact machine, grade, geometry, facility and acceptance requirement before production.