The Raise3D T700 is a large-format FFF 3D printer with a 700 × 500 × 1,000 mm build volume and a full meter of build height, giving you room for larger prototypes, jigs, fixtures and tooling. Its TwinFlow™ system combines two filament paths with a single nozzle, supporting single extrusion, dual extrusion and dual-extrusion high-flow modes.
A 0.6 mm nozzle is supplied as standard, with a 0.4 mm option available. With a maximum nozzle temperature of 420°C, an actively heated chamber up to 60°C and a heated build plate up to 120°C, the T700 supports a range of material workflows. Camera monitoring and print detection functions help you follow the job from the printer interface.
T450 vs T700 — Technical Comparison
|
T450 |
T700 |
| Build Volume (W × D × H) |
450 × 350 × 400 mm |
700 × 500 × 1000 mm
|
| Machine Size (W × D × H) |
710 × 635 × 785 mm |
964 × 792 × 1478 mm
|
| Maximum External Package Dimensions (W × D × H) |
880 x 772 x 1076 mm |
1150 x 1060 x 1685 mm
|
| Default Nozzle |
0.4 mm — High Thermal Conductivity CuCrZr Base Nozzle with Solid
Wear‑Resistant SiC Tip |
0.6 mm — High Thermal Conductivity CuCrZr Base Nozzle with Solid
Wear‑Resistant SiC Tip
|
| Nozzle Diameter |
0.4 mm (Default), 0.6 mm (Available) |
0.6 mm (Default), 0.4 (Available)
|
| Max Printing Speed |
600 mm/s |
600 mm/s |
| Max Speed of Toolhead |
1500 mm/s |
1500 mm/s |
| Max Acceleration of Toolhead |
30,000 mm/s² |
30,000 mm/s² |
| Max nozzle temperature |
420°C |
420°C |
| Max constant chamber temperature |
70°C |
60°C |
| Max build plate temperature |
120°C |
120°C |
| Print Head System |
TwinFlow™ (Dual‑Extrusion with Single‑Nozzle Y‑Junction Manifold) |
| Max Flow for Hotend TwinFlow™ (Dual Extrusion) |
80 mm³/s |
| Net weight |
75.9 kg |
150 kg |
| ELECTRICAL |
| Power Supply |
T450 (220V): 200-240VAC, 50/60Hz, 230V@10A
T450 (110V): 100-120VAC, 50/60Hz, 110V@15A |
T700 (220V): 200-240VAC, 50/ 60 Hz, 230V@16A
T700 (110V): 100-120VAC, 50/ 60 Hz, 110V@20A
|
| MATERIAL |
| Material Type |
Hyper Speed: PLA/ PLA Pro/ ABS/ PETG CF/ PET CF
Industrial: PPA CF/ PET Support/ PPS CF
Premium: PLA/ ABS/ ASA/ PETG/ TPU-95A
Coming Soon:
Industrial: PPA GF/ PET CF/ PET GF/ PETG ESD/ PPA Support
Premium: PVA+ |
| Software |
| Slicing Software |
ideaMaker |
| Supported File Types |
STL/ OBJ/ 3MF/ OLTP/ STEP/ STP/ IGES/ IGS |
| Supported OS |
Windows/ macOS/ Linux |
| Machine Code Type |
GCODE |
| PRINTER CONTROLLER |
| User Interface |
7-inch Touch Screen |
| Connectivity |
Wi-Fi, LAN, USB port, Live Camera |
| Screen Resolution |
1024 × 600 |
| Motion Controller |
STM ARM Cortex-M7 550MHz DP-FPU |
| Logic Controller |
RK ARM Cortex-A55 Quad 2 GHz |
| Memory |
2 GB |
| Onboard Flash |
32 GB |
| Electric Door Lock |
Available
Computing Power up to 1 TOPS (INT8), Supporting Mixed Precision |
Why Choose the T700?
Built for large-part printing, the T700 combines TwinFlow extrusion, controlled motion and active chamber heating with print monitoring and a flexible PEI build surface.
TwinFlow Single-Nozzle Extrusion
TwinFlow brings two filament paths together at one nozzle, with single-extrusion, dual-extrusion and dual-extrusion high-flow modes. Choose the mode and compatible material combination for your job without an XY offset between two separate nozzles.
High-Speed Motion System
The T700 supports print speeds up to 600 mm/s and acceleration up to 30,000 mm/s². Watch the printhead in motion as it builds the sample layer by layer. Actual print speed varies with material, geometry and print settings.
High-Temperature Printing
The nozzle reaches up to 420°C, the actively heated chamber up to 60°C and the build plate up to 120°C. Set each temperature for the chosen material to manage printing conditions across the large build volume.
Dual-Spool Filament Feeding
Two filament paths feed the TwinFlow printhead for the selected extrusion mode. Plan filament loading and material changes around the job, and review filament-box or Raise3D Filament Station options for your configuration.
What Can You Make with the T700?
Use a 700 × 500 × 1,000 mm build volume for larger prototypes, manufacturing aids and form models. Plan the print orientation and support structures around the part’s geometry, material and intended use.
Large Housing Prototypes
Produce large housings in one piece to review overall form, fit and assembly before committing to production tooling.
Full-Scale Design Models
Explore full-scale wheel and other complex design models, including geometry and support strategies, within the T700 build volume.
Functional Mechanism Prototypes
Develop grippers and articulated mechanisms to evaluate movement, component fit and assembly through physical prototypes.
Software & Connectivity
A clear workflow from preparing your model to starting and monitoring your print.
01 Prepare & Slice
Prepare your model and select suitable print settings in ideaMaker.
02 Transfer Your File
Choose a file-transfer method supported by your software and printer configuration.
03 Print & Monitor
Start the prepared file on the T700 and follow the print’s progress.
See the T700 in Action
From the first layers to the finished part, plan the T700 workflow around the material, support strategy and workspace. Keep time for cooling, inspection and safe part retrieval as well as printing.
Printing in Progress
Prepare the part orientation, supports and material profile in ideaMaker before starting the job. During printing, follow the part’s progress and check the build area through the available camera and printer interface.
Printhead in Motion
See the printhead lay down material across the build plate in a close-up view of the printing process.
From Large-Format Print to Part Removal
See the scale of the completed one-piece sample, then watch it being lifted out of the T700 build chamber.
7-Inch Touchscreen Control
View the T700’s 7-inch touchscreen and on-printer interface for checking print progress and accessing machine controls.
Materials & Compatibility
Choose from Hyper Speed, Industrial and Premium filaments. Match the filament, nozzle, support material and ideaMaker profile to your application.
Hyper Speed
PLA, PLA Pro, ABS, PETG CF and PET CF.
Industrial
Available: PPA CF, PET Support and PPS CF.
Coming soon: PPA GF, PET CF, PET GF, PETG ESD and PPA Support.
Premium
Available: PLA, ABS, ASA, PETG and TPU-95A.
Coming soon: PVA+.
Large-Format FFF 3D Printing with TwinFlow™
A faster-moving printhead does not automatically produce a finished part sooner. Short toolpaths, cooling time, and the hotend’s ability to melt and deliver material can all affect overall print time. TwinFlow™ is designed to improve material delivery efficiency, helping support faster printing.
TwinFlow™ Technology: Two Filament Paths, One Nozzle
TwinFlow™ feeds two filament paths into a single output nozzle. The architecture supports two operating modes: simultaneous feeding of the same material for high-flow extrusion, and sequential switching between materials for compatible dual-material workflows.
The combined cross-sectional area of two 1.75 mm filament strands is equivalent to a single strand approximately 2.47 mm in diameter. This is an area comparison; TwinFlow™ uses 1.75 mm filament, not a 2.47 mm filament.
Same Material, Simultaneous Feeding — High-Flow Printing
In high-flow mode, two filaments of the same material feed simultaneously through the shared nozzle. The increased melt supply can help reduce print time on flow-limited sections of suitable large parts. Actual results depend on the material, nozzle, layer height, line width, geometry, and print profile.
A maximum flow of up to 80 mm³/s was listed with Hyper Speed ABS V2 at 250°C. This is a test-specific maximum, not a continuous or universal flow rate.
Different Materials, Sequential Feeding — Dual-Material Printing
In material-switching mode, the two filament paths feed different materials sequentially through the same nozzle. Depending on validated material pairs and settings, this can support dual-material, dual-color, or compatible support-material workflows.
A shared output nozzle avoids the XY nozzle-offset calibration between separate print heads. Material compatibility, temperature windows, purging, switching behavior, and additional material use still need to be considered for each workflow.
RBP Metallurgy
For an RBP Metallurgy casting pattern, the T450’s one-piece approach brings estimated print time from 53.9 hours in four parts on the Pro3 HS to 17.7 hours—67.16% less, before assembly.
In this comparison, deposited material is 37.88% lower and average extrusion speed is 96.09% higher. Printing in one piece also removes the need to align, bond, and finish the seams between sections.
Reliable Large-Format 3D Printing for Long Jobs
From motion control to material supply and monitoring, the T Series is designed around the demands of long, large-format 3D prints. Explore how these systems work together to support a smoother production workflow.
Four Motors Working Together
Four motors share the XY drive task, while shorter effective belt paths are designed to support controlled motion for large parts. Print quality and speed also depend on belt routing, tension, gantry rigidity and motion tuning—not motor count alone.
Material Supply for Long Prints
Two 2.5 kg filament spools provide up to 5 kg of total material supply for a long job. Plan for the part, supports, purging and other material consumption before printing. A larger prepared supply can reduce the need for manual spool changes and waiting, depending on the job and feeding configuration.
Monitoring for Long Print Jobs
Sensors and cameras help operators monitor print progress, filament supply and machine conditions during long jobs. Depending on the model and supported features, the system can detect selected issues, such as spaghetti failure or filament runout, and alert operators or pause the print so they can take action.
Temperature Management for Large-Format 3D Printing
Different materials need different thermal conditions. The T Series combines chamber airflow management with a high-temperature hotend to support material-specific printing workflows—from large PLA prototypes to engineering-material parts.
Air Flow Manager 2 — Airflow Cooling
The motorized roof and airflow cooling help remove excess heat when printing PLA. This helps maintain suitable chamber conditions for more consistent print quality, especially during long print jobs.
Air Flow Manager 2 — Active Chamber Heating
Active chamber heating helps maintain a more stable temperature when printing large ABS parts. By reducing temperature differences as the part cools, it can help reduce the risk of warping and layer separation.
High-Temperature Hotend — Heat Transfer and Wear Resistance
The T450 and T700 use the same nozzle construction: a high-conductivity CuCrZr base and a solid wear-resistant SiC tip. Designed to support heat transfer and resist wear, it supports compatible engineering and fiber-reinforced materials. Both printers operate at nozzle temperatures up to 420°C. The T450 comes with a 0.4 mm nozzle; the T700 comes with a 0.6 mm nozzle.
What Can You Make with a Large-Format 3D Printer?
From full-scale prototypes to production tooling, a large-format 3D printer can turn a digital design into a physical part without splitting it solely to fit a smaller build volume. Whether a particular part can be printed in one piece depends on its dimensions, orientation, material, and process requirements.
Jigs, Fixtures & Tooling
Full-scale positioning, assembly, and production aids that keep large parts aligned and repeatable on the shop floor.
Casting Patterns & Molds
Large patterns and tooling for evaluating form and fit while supporting production-scale casting workflows.
Orthotic and medical workflow references
Large fit-check models and manufacturing references, subject to the application’s validation and applicable requirements.
Large and tall prototypes
Drones, aircraft parts, sculpture, and other large or tall components whose dimensions call for a larger build envelope.
Find the Right Material for Your Large-Format Application
Casting Mold
- Build Volume (TwinFlow™): 9.91 L
- Nozzle Diameter: 0.4 mm
-
Printing time: 20h 48min
-
Material: Raise3D Hyper Speed PLA Pro
-
Part size: 390 × 340 × 60 mm
Automotive Fan
- Build Volume (TwinFlow™): 6.43 L
- Nozzle Diameter: 0.6 mm
- Printing time: 20h 14min
- Material: Raise3D Hyper Speed PET CF
- Part size: 401 × 401 × 40 mm
Engine Manifold
- Build Volume (TwinFlow™): 8.7 L
- Nozzle Diameter: 0.4 mm
- Printing time: 20h 48min
- Material(Coming Soon): Peek
- Part size: 247 × 109 × 324 mm
Scoliosis Correction
- Build Volume (TwinFlow™): 15.86 L
- Nozzle Diameter: 0.4 mm
- Printing time: 14h 17min
- Material: Polymaker Ortho Tough 1000 (Raise3D OMP)
- Part size: 268 × 213 × 278 mm
Specifications
| Body & Dimensions |
| Build volume (W × D × H) |
700 × 500 × 1,000 mm (27.6 × 19.7 × 39.4 in)
|
| Machine size (W × D × H) |
964 × 792 × 1,478 mm (37.9 × 31.1 × 58.2 in)
|
| Maximum external package |
1,150 × 1,060 × 1,685 mm (45.28 × 41.73 × 66.34 in)
|
| Weight |
Net: 150 kg (approximately 330.7 lb).
|
| Frame material |
Aerospace-grade aluminum alloy
|
| Extrusion & Print Quality |
| Print technology |
Fused Filament Fabrication (FFF)
|
| Print head system |
TwinFlow™ — dual extrusion with single-nozzle Y-junction manifold
|
| Print modes |
Single extrusion; dual extrusion; dual extrusion high flow
|
| Nozzle diameter |
0.6 mm default; 0.4 mm available
|
| Nozzle type |
High thermal conductivity CuCrZr base nozzle with solid wear-resistant SiC tip
|
| Maximum nozzle temperature |
420°C
|
| Filament diameter |
1.75 mm
|
| Layer height |
0.3 mm with a 0.6 mm nozzle
|
| Printing precision |
IT11 grade
Test filament: Raise3D Premium PLA.
|
| Speed & Flow |
| Maximum printing speed |
600 mm/s
|
| Maximum toolhead speed |
1,500 mm/s [1]
|
| Maximum toolhead acceleration |
30,000 mm/s²
|
| Maximum TwinFlow™ hotend flow |
80 mm³/s [2]
|
| Build Plate & Heated Bed |
| Build plate |
Flexible double-sided PEI build plate
|
| Leveling |
Mesh-leveling with flatness detection
|
| Heated bed material |
Silicone heater pad
|
| Maximum build plate temperature |
120°C
|
| Chamber Temperature Control |
| Active chamber heating |
Available
|
| Maximum chamber heating temperature |
60°C
|
| Electric top cover |
Available
|
| Auxiliary heat dissipation module |
Available
|
| Printing Environment |
| Filter |
HEPA filter with activated charcoal
|
| Operating environment |
15–30°C; 10–90% RH, non-condensing
|
| Storage environment |
−25°C to +55°C; 10–90% RH, non-condensing
|
| Electrical |
| Power supply |
220V model: 200–240 VAC, 50/60 Hz; 230V @ 16A
110V model: 100–120 VAC, 50/60 Hz; 110V @ 20A
|
| Materials & Availability |
| Raise3D materials |
Hyper Speed: PLA, PLA Pro, ABS, PETG CF, PET CF.
Industrial: PPA CF, PET Support, PPS CF.
Premium: PLA, ABS, ASA, PETG, TPU-95A.
Coming soon — Industrial: PPA GF, PET CF, PET GF, PETG ESD, PPA Support.
Coming soon — Premium: PVA+.
|
| Software |
| Slicing software |
ideaMaker
|
| Supported file types |
STL, OBJ, 3MF, OLTP, STEP, STP, IGES, IGS
|
| Supported operating systems |
Windows, macOS, Linux
|
| Machine code type |
GCODE
|
| Sensors & Cameras |
| Live camera resolution |
1920 × 1080
|
| Nozzle camera resolution |
2592 × 1944
|
| Available detection & recovery |
Filament run-out sensor; power-loss recovery; flow rate detection; spaghetti detection; nozzle clumping detection
|
| Connectivity & Network |
| Connectivity / network |
Wi-Fi, LAN / Ethernet, USB port, live camera
|
| Ports |
USB 3.0 × 1; Ethernet × 1
|
| Wi-Fi protocol |
WPA / WPA2 / WPA3-PSK
|
| Printer Controller |
| User interface |
7-inch touch screen
|
| Screen resolution |
1024 × 600
|
| Controllers |
Motion: STM ARM Cortex-M7 550MHz DP-FPU
Logic: RK ARM Cortex-A55 Quad 2 GHz
|
| Memory |
2 GB
|
| Onboard flash |
32 GB
|
| Operating system |
Debian
|
| Electric door lock |
Available
|
| Neural processing unit |
Up to 1 TOPS (INT8); mixed-precision INT8 / INT16 / FP16 / BFP16 computing
|
