Protype Industrial 3D Printers: Models and Prices

CD400 and CD400HT for engineering-plastic parts, plus the FILO drying cabinet for material preparation

Product lineup

Two printers and a drying cabinet

CD400
Protype CD400

Industrial IDEX 3D printer for serial composite parts

Two independent IDEX heads: two materials or two colors in one part.

Chamber up to 90 °C — large parts warp less.

from$39 000
≈ 3 182 000 ₽

Indicative price depends on configuration and delivery terms. Not a public offer.

Specifications
CD400HT
Protype CD400HT

High-temperature industrial 3D printer for PEEK and PEI

The chamber holds the temperature superpolymers need: we print PEI at 145 °C.

Two IDEX heads: the part and its support in different materials.

from$55 500
≈ 4 529 000 ₽

Indicative price depends on configuration and delivery terms. Not a public offer.

Specifications
FILO
Protype FILO

Industrial filament drying cabinet

Up to 12 spools of 3 kg per load.

Drying up to 130 °C with forced ventilation.

from$9 100
≈ 743 000 ₽

Indicative price depends on configuration and delivery terms. Not a public offer.

Specifications

Why Protype

Open materials

Filament from any supplier, not tied to our spools.

Our own software

ProtypeOS on the printer, ProtypeHub on phone and Mac, secure remote access.

In-house engineering

We design and build the printers ourselves. Spare parts from our own warehouse, remote diagnostics and engineering support.

Open pricing

Prices for every model are on the site.

Comparing 3D Printer Tiers by Chamber and Kinematics

Engineering differences between passively enclosed printers and industrial IDEX systems

ParameterPassively Enclosed PrinterProtype CD400 (Engineering IDEX)Protype CD400HT (High-Temperature IDEX)
Build chamber heatingPassive heat from the bed (45–60 °C), temperature gradient across part heightActive forced-convection chamber up to 90 °C, bed up to 150 °CActively heated chamber (PEI printed at 145 °C), nozzle up to 500 °C
Extruder kinematicsSingle toolhead or two nozzles on a shared carriage (risk of nozzle drag on the part)Two independent IDEX heads: Copy, Mirror, and soluble-support printingTwo independent IDEX heads: Copy, Mirror, and high-temperature breakaway/soluble supports
Supported plastics & compositesPLA, PETG, small ABS and ASA partsABS, ASA, PC, PC-ABS, PA6, PA12, carbon-filled PA-CF and PETG-CF, TPUPEEK, PEI (ULTEM 9085 / 1010), PPSU plus all CD400 engineering materials
Large-part dimensional stabilityWarping, bed detachment, and layer delamination on large PA and PC housingsDimensional stability on jigs, fixtures, nests, and enclosures without delaminationRepeatable geometry on high-load parts for hot zones and aggressive chemicals
Filament drying & feedingOpen spool holder or desktop box for 1–2 spoolsOnboard drying chambers + direct feed from Protype FILO cabinet (up to 12×3 kg, up to 130 °C)Onboard drying chambers + direct feed from Protype FILO cabinet (up to 12×3 kg, up to 130 °C)
Material opennessOpen filament or vendor-chipped spoolsOpen 1.75 mm system — filament from any supplier without chips or license locksOpen 1.75 mm system — filament from any supplier without chips or license locks
Fleet management & networkingSingle-printer local web UI or consumer cloudProtypeOS + ProtypeHub (iOS, Android, macOS); no port forwarding or public IP needed (Secure VPN)ProtypeOS + ProtypeHub (iOS, Android, macOS); no port forwarding or public IP needed (Secure VPN)

When Industrial 3D Printing Beats CNC Machining and Injection Molding

Comparing manufacturing methods across fixtures, replacement parts, and production runs

Criterion3D Printing (Protype CD400 / CD400HT)CNC MachiningInjection Molding
Optimal batch size1–100 pcs (one-off spares, shop-floor fixtures, pilot and short runs)1–50 pcs for structural metal components and tight bearing fits1,000+ identical parts per run
Lead time to first partHours to 1–2 days straight from CADSeveral days to 2–3 weeks including CAM programming and machine queue4 to 12 weeks to design, machine, and sample the mold tool
Upfront tooling cost$0 — job starts directly from a STEP, STL, or 3MF fileCAM setup, cutters, stock billet, and multi-axis workholdingHigh capital outlay for steel or aluminum mold tooling
Geometric freedomInternal channels, lattice infills, and complex overhangs with IDEX soluble supportsLimited by cutter reach and setups; high material waste in chipsRequires draft angles, uniform wall thickness, and parting-line clearance
Design revisionsZero tooling penalty: print the updated CAD file on the next shiftRequires CAM reprogramming and new setup verificationExpensive mold rework or cutting a new cavity

FAQ: Choosing an Industrial 3D Printer

How does an industrial 3D printer with an actively heated chamber differ from a passively enclosed desktop printer?

In a passively enclosed printer, air is warmed only by the build plate (typically 45–60 °C), causing large parts in nylon (PA), polycarbonate (PC), and ABS to accumulate thermal stress, warp, and delaminate between layers. Protype CD400 uses forced-convection active heating up to 90 °C (and CD400HT prints PEI at a 145 °C chamber), preventing shrinkage and warping on full-bed industrial fixtures and enclosures.

Why does an industrial FDM printer need independent dual extruders (IDEX)?

Unlike a single printhead carrying two nozzles, IDEX (Independent Dual Extruder) drives each head independently along the X axis. The inactive nozzle parks outside the build area so it never drags across the print. This enables clean soluble supports for complex internal geometry, multi-material parts combining rigid and flexible polymers, and simultaneous printing of two parts in Copy and Mirror modes.

When should we choose Protype CD400 vs. Protype CD400HT?

Protype CD400 (chamber up to 90 °C, bed up to 150 °C) covers up to 90% of shop-floor applications: drill jigs, assembly nests, guards, brackets, and housings in ABS, ASA, PC, PC-ABS, PA6/PA12, and carbon-filled PA-CF. Protype CD400HT (actively heated chamber, nozzle up to 500 °C) is built for parts operating above 150–200 °C or in harsh chemical environments that require high-performance polymers such as PEEK, PEI (ULTEM 9085/1010), and PPSU.

When does in-house 3D printing pay back faster than CNC machining or injection molding?

Industrial 3D printing wins on batches of 1 to 100 parts, custom shop-floor tooling (jigs, fixtures, grippers), and urgent replacement parts: jobs go straight from CAD to the build plate in hours without mold tooling costs, CAM programming, or a two-week machine-shop queue.

Protype Industrial 3D Printers

We design and build industrial FDM 3D printers ourselves.

The lineup has two printers. CD400 prints engineering plastics and composites: ABS, PA-CF, PC-ABS and others. CD400HT is for high-temperature PEEK and PEI; we print PEI at a chamber temperature of 145 °C. The FILO drying cabinet connects to three printers and feeds dry filament straight to the extruder. The printers run ProtypeOS; the fleet is managed through ProtypeHub.

Two independent IDEX heads and an open material system: filament from any supplier.

We'll match you with the right solution

Tell us about your task — we'll suggest the optimal equipment configuration