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HP Multi Jet Fusion Printer

HP MJF 1200

HP

HP MJF 1200Compact Industrial MJF PrinterMulti Jet FusionPA 12Support-Free Polymer Production
HP MJF 1200 product image
HHP

Extra Features

12 L powder-bed build volumeUnder 12-hour full-height PA 12 printing in Standard modeSupport-free printingAutomated powder managementAutomated unpackingNatural Cooling Unit workflowUp to 80% PA 12 powder reusabilityUp to 20% volumetric packing density

Detailed Description

# HP MJF 1200

Overview

The HP Multi Jet Fusion 1200 is a compact industrial polymer 3D-printing system designed to bring HP's production-oriented Multi Jet Fusion (MJF) process into smaller engineering, medical, product-development, and distributed-manufacturing environments.

The printer provides a 320 × 165 × 230 mm build volume, equivalent to approximately 12 liters. HP states that a full-height build using HP 3D High Reusability PA 12 enabled by Evonik can print in under 12 hours in Standard mode.

Unlike filament printers, the MJF 1200 builds parts inside a powder bed. Unsintered powder supports the geometry, so conventional support structures are not required and multiple parts can be nested throughout the available volume.

HP positions the MJF 1200 as an integrated solution rather than a printer-only purchase. The launch package is expected to start below US$60,000 in the US and EU and includes the printer, Material Management System, Natural Cooling Unit, two Material Tanks, and Magics Print for HP software.

General availability is planned for early 2027. For current launch information, pricing, and availability, see the official HP MJF 1200 product page.

Key Strengths

  • HP Multi Jet Fusion polymer powder-bed process
  • 320 × 165 × 230 mm build volume
  • Approximately 12 L build capacity
  • Full-height PA 12 build in under 12 hours in Standard mode
  • Support-free part production
  • Automated powder management
  • Automated unpacking
  • Natural Cooling Unit workflow
  • Up to 80% PA 12 powder reusability
  • Up to 20% volumetric packing density per full mixed-material tank
  • Approximately 40% mass packing density at that published limit
  • Approximately 3 mm minimum spacing between nested parts
  • Predictable layer times across different packing densities
  • Contained material-handling workflow
  • Magics Print for HP by Materialise
  • HP 3D Center monitoring and fleet workflow

Best For

  1. Functional prototypes
  2. End-use PA 12 parts
  3. Engineering components
  4. Jigs and fixtures
  5. Medical and customized-product workflows
  6. Drone and lightweight structural components
  7. Small-batch production
  8. Distributed manufacturing

Technical Specifications

SpecificationValue
Printing technologyHP Multi Jet Fusion
Process categoryPolymer powder bed fusion
Build volume320 × 165 × 230 mm
Build capacityApproximately 12 L
Launch materialHP 3D High Reusability PA 12 enabled by Evonik
Standard full-height print timeUnder 12 hours
Powder reusabilityUp to 80%
Published maximum volumetric packing densityUp to 20% per full mixed-material tank
Approximate corresponding mass packing densityAbout 40%
Minimum spacing between nested partsApproximately 3 mm
Support structuresNot required
Electrical requirement200–240 V, 50/60 Hz, 2 × 16 A
Build-preparation softwareMagics Print for HP by Materialise
Monitoring / fleet softwareHP 3D Center
Launch availabilityPlanned for early 2027
Launch solution priceExpected below US$60,000 in US/EU

Process note: MJF is not meaningfully described by an FDM-style nozzle diameter, nozzle temperature, heated-bed temperature, or linear print-speed value in mm/s. Productivity is better compared through build time, packing density, workflow time, material reuse, and parts per build.


Multi Jet Fusion Process

HP Multi Jet Fusion builds polymer parts layer by layer inside a powder bed. A thin layer of powder is spread across the build area, fusing and detailing agents are selectively deposited, and thermal energy fuses the regions defined by the print data.

Because MJF processes the layer as an area rather than tracing every feature point-by-point with a single laser, HP states that layer time remains predictable as more parts are packed into the same build height.

That makes the MJF 1200 relevant to organizations that want to increase parts per build without proportionally increasing print time.

For HP's broader technology portfolio, see the official HP MJF printer comparison page.


Build Volume and Nesting

The MJF 1200 uses a 320 × 165 × 230 mm build chamber.

HP publishes up to 20% volumetric packing density per full mixed-material tank, equivalent to approximately 40% mass packing density under the stated condition, with roughly 3 mm minimum spacing between parts.

The 20% figure is a workflow parameter, not a statement that only 20% of the build volume is usable. Actual part count depends on geometry, orientation, spacing, material, and nesting strategy.


Print Time

HP states that a full-height build can print in under 12 hours using Standard mode with HP 3D High Reusability PA 12 enabled by Evonik.

Actual time-to-part also includes preparation, cooling, unpacking, and any finishing operations.

For production planning, the complete workflow matters more than the printer-only cycle.


HP 3D High Reusability PA 12

The planned launch material is HP 3D High Reusability PA 12 enabled by Evonik.

PA 12 is suited to functional prototypes, end-use components, housings, fixtures, mechanical assemblies, lightweight structures, and customized production parts.

HP currently states that additional compatible materials will be introduced after launch. Until HP validates and releases them for this system, the structured material list should remain limited to PA 12.


Powder Reuse

HP publishes up to 80% powder reusability for the launch PA 12 workflow.

Recovered powder is processed through the Material Management System and mixed for future builds according to the approved production workflow.

Material history, handling, storage, and contamination control still matter, so the 80% figure should not be interpreted as a universal reuse result for every operating condition.


Automated Powder Workflow

The MJF 1200 is sold as an integrated workflow rather than only a standalone printer.

Design and Prepare

Builds are prepared in Magics Print for HP, powered by Materialise.

Print

The printer spreads powder, jets agents, and fuses each layer.

Natural Cooling

The completed build is transferred into the Natural Cooling Unit, allowing the printer to prepare another build while the previous job cools.

Automated Unpacking

The cooled build moves to the Material Management System, where vibration assists unpacking and excess powder is recovered for reuse.

This separation of printing, cooling, and powder handling is one of the system's main production advantages.


Support-Free Production

Loose powder supports the parts during printing, so conventional support structures are not required.

This allows:

  • Internal channels
  • Nested parts
  • Complex overhangs
  • Freeform geometry
  • Dense three-dimensional production layouts

Support-free printing does not eliminate post-processing. Parts still require powder removal and may need blasting, dyeing, smoothing, coating, or machining depending on the application.


Software

Magics Print for HP

Every MJF 1200 launch solution includes Magics Print for HP by Materialise for:

  • Part orientation
  • Three-dimensional nesting
  • Build layout
  • File preparation
  • Production planning

HP 3D Center

HP 3D Center supports monitoring and fleet-management workflows for connected HP additive-manufacturing equipment.

For more context, see HP's 3D printing software overview.


Applications

HP currently highlights MJF 1200 use cases across:

  • Industrial manufacturing
  • Medical and healthcare
  • Drones
  • Product development
  • Functional prototyping
  • End-use parts

The system is particularly relevant to organizations that want industrial PA 12 parts without moving immediately to HP's largest MJF production platforms.

For broader use cases, see the official HP additive-manufacturing industries page.


Comparison With Other Powder-Bed Systems

The MJF 1200 occupies a more compact class than large-format systems such as the Formlabs Fuse X1.

FeatureHP MJF 1200Formlabs Fuse X1
ProcessMulti Jet FusionSelective Laser Sintering
Build volume320 × 165 × 230 mm330 × 330 × 565 mm
Launch materialHP HR PA 12Nylon 12
SupportsNot requiredNot required
Primary positioningCompact industrial productionLarge-format industrial SLS
Launch system priceExpected below US$60,000Starts substantially higher

For cross-technology comparison, the indexed Formlabs Form 4 represents a resin workflow with different material, support, and post-processing requirements.

Use the Print3DIndex comparison tool when comparing different additive processes.


Facility Requirements

HP currently lists an electrical requirement of:

200–240 V, 50/60 Hz, 2 × 16 A

Powder-bed additive manufacturing also requires appropriate planning for powder storage, PPE, housekeeping, environmental control, material disposal, and workspace around the printer and material-management equipment.

Final facility requirements should follow the installation documentation provided for the production system.


Price and Availability

HP currently describes the MJF 1200 as launching at a price point below US$60,000 in the US and EU.

That launch figure applies to the full solution, including:

  • MJF 1200 printer
  • Material Management System
  • Natural Cooling Unit
  • Two Material Tanks
  • Magics Print for HP software

HP states that general availability is planned for early 2027.

The product can currently be booked for priority access, but that is not the same as normal commercial availability.


Limitations and Practical Considerations

  • General availability is planned for early 2027.
  • PA 12 is the only launch material currently identified by HP.
  • Under-12-hour print time applies to Standard mode with HP HR PA 12.
  • Cooling and post-processing add to total time-to-part.
  • Up to 80% powder reusability depends on the approved material workflow.
  • The 20% volumetric packing figure is a workflow limit, not a percentage of usable build space.
  • MJF remains an industrial powder process requiring appropriate handling procedures.
  • HP has not published an FDM-style print-speed figure in mm/s for this system.

Callout Section

Recommended use: Choose the HP MJF 1200 when your organization needs industrial PA 12 parts, support-free batch production, automated powder handling, and predictable MJF cycle times in a smaller production cell than HP's higher-volume platforms.


Frequently Asked Questions

FAQ

What is the build volume of the HP MJF 1200?

320 × 165 × 230 mm, equivalent to approximately 12 liters.

How long does a full-height build take?

HP states that a full-height PA 12 build can print in under 12 hours in Standard mode.

Which material is available at launch?

HP 3D High Reusability PA 12 enabled by Evonik.

How reusable is the PA 12 powder?

HP publishes up to 80% powder reusability.

Does the MJF 1200 require support structures?

No. Loose powder supports the parts during printing.

How densely can parts be packed?

HP publishes up to 20% volumetric packing density per full mixed-material tank, equivalent to about 40% mass packing density under its stated conditions.

What spacing is required between parts?

HP states approximately 3 mm minimum spacing.

What equipment is included in the launch solution?

HP states that the sub-US$60,000 launch solution includes the printer, Material Management System, Natural Cooling Unit, two Material Tanks, and Magics Print for HP.

What software is included?

Magics Print for HP by Materialise is included for build preparation. HP 3D Center supports monitoring and fleet workflows.

What electrical service is required?

HP currently lists 200–240 V, 50/60 Hz, with two 16 A connections.

What is the expected price?

HP states that launch pricing is expected to start below US$60,000 for the complete solution in the US and EU.

When will the HP MJF 1200 be available?

HP currently plans general availability for early 2027.