Stallion Machine

3D Sand Printer (Binder-Jet)

FVX2000 — 2000 × 1000 × 1000 mm Build · ±0.3 mm · 200 dpi
Stallion FVX2000 prints sand moulds and cores directly from a digital CAD file by selectively depositing a furan-based binder onto layered resin sand — no pattern, no core box, no parting line. The 2000 × 1000 × 1000 mm build envelope handles complete cylinder heads, manifolds, pump bodies and gearbox cases in a single print, and the ±0.3 mm geometric accuracy with 200 dpi resolution reproduces internal cooling channels, oil galleries and undercut features that would require multiple cores in conventional sand moulding. Throughput is ≥2.5 tons of finished mould per day with continuous 24-hour operation and fully automatic feeding. Also known as a binder-jet sand printer, patternless sand mould 3D printer, digital sand casting system, or industrial sand mould printing machine.
Overview

At A Glance

2000×1000×1000 mm Build Envelope
±0.3 mm Print Accuracy
200 dpi Print Resolution
≥2.5 t/day Daily Output
Operations

Operations Performed

Patternless Moulding
Complex Core Printing
Prototype Moulds
Internal Geometry
Rapid Casting Trials
Short-Run Production
Technical Data

Full Specifications

FX4 Cold-Box Core Shooter (Small-to-Medium Cores)

Specification FVX2000
Maximum sand-mould dimensions L × W × H (mm) 2000 × 1000 × 1000
Print accuracy ≤ ±0.3 mm across the entire print range
Print speed (per layer) 24–36 seconds (adjustable)
Daily production capacity (resin sand) ≥ 2.5 tons
Print resolution 200 dpi
Print layer thickness 0.2 mm – 0.5 mm (adjustable)
Sand-type gas generation ≤ 10 ml/g
Sand permeability ≥ 190
Sand-model tensile strength ≥ 1.5 – 2.5 MPa (adjustable)
Sand-type burn loss 1.4 – 1.6%
Liquid dosage accuracy error ±1%
Sandpit bottom-plate height Sandpit bottom-plate height
XYZ guide-rail positioning accuracy ±0.01 mm
Build & Equipment

Standard Features Optional Equipment

Standard Features

  • Programmable controller from a leading international brand
  • 24-hour continuous operation without material replenishment
  • Fully automatic feeding system + chemical liquid supply
  • Pressure gauge with oil-water separator
  • Dry sand recovery device
  • Built-in cleaning brush
  • Automatic locking + emergency stop button
  • Dust-proof protection on rails and moving mechanisms
  • Lubricant-filling interfaces on guides and lead screws
  • Protective enclosure with warning signs

Optional Equipment

  • UPS power supply for outage protection
  • Extended sand-pit liners for shorter changeover
  • Inline post-print cleaning station
  • Furan binder bulk-supply integration (drum / IBC)
  • Print-server workstation with CAD-to-print preparation suite
  • Print-server workstation with CAD-to-print preparation suite
  • Remote diagnostics + over-the-air firmware updates
  • Operator training package (5-day on-site)
Applications

Typical Workpieces

Cylinder Heads
Cylinder Heads
Pump Impellers
Pump Impellers
Manifolds & Risers
Manifolds & Risers
Manifolds & Risers
Manifolds & Risers
Answers

Frequently Asked Questions

What does binder-jet 3D sand printing actually do? +

The printer builds a sand mould one layer at a time. For each layer, a recoater spreads a thin layer of resin-coated sand across the build area; a print-head then deposits a furan binder selectively onto the sand wherever the cross-section of the mould exists. When the print is complete the loose sand is brushed away, leaving the finished mould or core ready for pouring — with no pattern, no core box, and no parting line.

When does 3D sand printing make economic sense versus conventional moulding? +

Three situations. First, prototypes and short-run castings where the cost of pattern tooling cannot be amortised. Second, complex internal geometries (water jackets, oil galleries, complex cores) that would require many separate core boxes in conventional production. Third, design iteration — a CAD change becomes a new print overnight, not a new pattern in six weeks. For high-volume series production with simple geometry, conventional moulding usually remains cheaper per part.

What sand and binder system does the FVX2000 use? +

The printer uses furan-bonded silica sand — the binder is a phenolic furan resin activated by an acid catalyst pre-mixed into the sand. Sand permeability is ≥ 190, tensile strength is adjustable from 1.5 to 2.5 MPa, and burn loss stays within 1.4–1.6% — all within the range expected by Indian foundries for grey iron, ductile iron, aluminium and steel pouring.

How much can the FVX2000 produce in a day? +

Approximately 2.5 tons of finished resin-sand mould per 24-hour cycle, running continuously with automatic sand and binder replenishment. Actual output depends on part density within the build envelope — densely packed cores produce more usable mould mass per day; large hollow shells produce less.

Why is the Stallion FVX2000 superior to competitor sand printers? +

The 2000 × 1000 × 1000 mm build envelope handles complete passenger-car cylinder heads and most truck engine components in a single print — many competing platforms require splitting and bonding. The ±0.3 mm geometric accuracy and 200 dpi resolution are tuned to foundry production tolerances rather than rapid-prototyping aesthetics. The programmable controller and print-head are built around internationally proven names, with 24-hour continuous operation and integrated sand recovery designed for production-foundry duty cycles.

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