A 3D-printed Gem-Xfer epoxy cure station and transfer jig displayed on a cutting mat, shown with CAD wireframe overlays. The scene includes dop sticks, magnifying visor, and lapidary tools. Text overlay indicates this is a digital file for makerspace use. Highlights the jig’s geometry, dual tower design, and its role in gemstone transfer for faceting and epoxy alignment.

Gem Xfer: 3d printed Transfer Jig tool - Digital Project File

$9.00
$9.00
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A 3D-printed Gem-Xfer epoxy cure station and transfer jig displayed on a cutting mat, shown with CAD wireframe overlays. The scene includes dop sticks, magnifying visor, and lapidary tools. Text overlay indicates this is a digital file for makerspace use. Highlights the jig’s geometry, dual tower design, and its role in gemstone transfer for faceting and epoxy alignment.
  • A 3D-printed Gem-Xfer epoxy cure station and transfer jig displayed on a cutting mat, shown with CAD wireframe overlays. The scene includes dop sticks, magnifying visor, and lapidary tools. Text overlay indicates this is a digital file for makerspace use. Highlights the jig’s geometry, dual tower design, and its role in gemstone transfer for faceting and epoxy alignment.
  • The 3D-printed Gem-Xfer jig assembled on a cutting mat beside its removable clamp module. Text overlay promotes easy assembly. Heat-set insert pockets and knurled knob posts are visible. Scene conveys DIY construction for lapidary users printing their own transfer jig for dop alignment, epoxy curing, and gemstone positioning workflows.
  • A close-up of a heat-set insert being installed into the Gem-Xfer cure station using a soldering iron. Four M3 brass inserts sit flush in the printed towers. Background includes dop sticks and lapidary tools. Demonstrates hardware installation for users printing the digital STL file and building their own faceting transfer jig with secure threaded anchors.
  • Bottom view of the Gem-Xfer epoxy cure station showing four recessed neodymium magnets installed into the 3D print. Magnets add bench stability and metal-surface adhesion. Scene highlights assembly steps for makers printing the digital jig and preparing it for gemstone transfer, epoxy curing, and dop alignment in faceting workflows.
  • Machined M3 screws, matching nuts, and knurled plastic knobs arranged on a cutting mat beside dop stick components. Text overlay lists hardware requirements. Demonstrates the fastening system used in the Gem-Xfer digital file build, showing how the clamp module secures gemstones for epoxy curing and dop-to-dop alignment.
  • Glow-in-the-dark and high-visibility bioplastic knurled knobs installed on the Gem-Xfer jig. The blue fluorescent knobs are illuminated under UV light. Demonstrates optional materials users can print when building the digital STL version of the epoxy cure station, improving visibility during stone setting and alignment.
  • A Bambu Lab 3D printer running a full production plate of Gem-Xfer cure station parts. Multiple units are printed simultaneously on a textured build plate. Scene demonstrates print orientation, support-free geometry, and batch manufacturing, useful for buyers printing the digital file on Bambu or similar printers.
  • Dozens of finished Gem-Xfer epoxy cure stations lined up on a workshop shelf. Heat-set inserts are installed in each tower. The image reinforces final assembly quality and shows how the digital file can be used to produce consistent, professional-grade transfer jigs for lapidary work.
  • Knurled knobs and machined screws arranged in organized batches on a cutting mat, with a tin of M3 hardware. Different knob colors indicate variants. Scene highlights the modular fastening system for the Gem-Xfer jig, showing what builders need when assembling the digital STL design for gemstone epoxy curing.
  • Screenshot of Bambu Studio slicer layouts for the Gem-Xfer digital file, showing optimized print plates for knobs and main jig bodies. Estimated print time, orientation, and color mapping are visible. Image communicates that the STL file is fully tuned for Bambu Lab printers and ready for plug-and-play 3D printing.
  • “Gem-Xfer epoxy cure station and transfer jig mounted vertically on a steel tool rack, each printed in white bioplastic with orange and white knurled knobs holding gemstone dops in place. Multiple units are stacked in a column to show batch production workflow for lapidary makers. Workshop benches, tools, and stones appear softly blurred in the background.”
  • “Close-up of the Gem-Xfer epoxy cure station with a faceting transfer jig mounted in the frame, showing the adjustable M3 screw system, translucent arms, and bioplastic knurled knobs. The dop and stone are centered in the curing position on a green cutting mat. Tools and lapidary gear sit in the background, emphasizing makerspace use.”
  • A 3D-printed Gem-Xfer epoxy cure station and transfer jig displayed on a cutting mat, shown with CAD wireframe overlays. The scene includes dop sticks, magnifying visor, and lapidary tools. Text overlay indicates this is a digital file for makerspace use. Highlights the jig’s geometry, dual tower design, and its role in gemstone transfer for faceting and epoxy alignment.
  • The 3D-printed Gem-Xfer jig assembled on a cutting mat beside its removable clamp module. Text overlay promotes easy assembly. Heat-set insert pockets and knurled knob posts are visible. Scene conveys DIY construction for lapidary users printing their own transfer jig for dop alignment, epoxy curing, and gemstone positioning workflows.
  • A close-up of a heat-set insert being installed into the Gem-Xfer cure station using a soldering iron. Four M3 brass inserts sit flush in the printed towers. Background includes dop sticks and lapidary tools. Demonstrates hardware installation for users printing the digital STL file and building their own faceting transfer jig with secure threaded anchors.
  • Bottom view of the Gem-Xfer epoxy cure station showing four recessed neodymium magnets installed into the 3D print. Magnets add bench stability and metal-surface adhesion. Scene highlights assembly steps for makers printing the digital jig and preparing it for gemstone transfer, epoxy curing, and dop alignment in faceting workflows.
  • Machined M3 screws, matching nuts, and knurled plastic knobs arranged on a cutting mat beside dop stick components. Text overlay lists hardware requirements. Demonstrates the fastening system used in the Gem-Xfer digital file build, showing how the clamp module secures gemstones for epoxy curing and dop-to-dop alignment.
  • Glow-in-the-dark and high-visibility bioplastic knurled knobs installed on the Gem-Xfer jig. The blue fluorescent knobs are illuminated under UV light. Demonstrates optional materials users can print when building the digital STL version of the epoxy cure station, improving visibility during stone setting and alignment.
  • A Bambu Lab 3D printer running a full production plate of Gem-Xfer cure station parts. Multiple units are printed simultaneously on a textured build plate. Scene demonstrates print orientation, support-free geometry, and batch manufacturing, useful for buyers printing the digital file on Bambu or similar printers.
  • Dozens of finished Gem-Xfer epoxy cure stations lined up on a workshop shelf. Heat-set inserts are installed in each tower. The image reinforces final assembly quality and shows how the digital file can be used to produce consistent, professional-grade transfer jigs for lapidary work.
  • Knurled knobs and machined screws arranged in organized batches on a cutting mat, with a tin of M3 hardware. Different knob colors indicate variants. Scene highlights the modular fastening system for the Gem-Xfer jig, showing what builders need when assembling the digital STL design for gemstone epoxy curing.
  • Screenshot of Bambu Studio slicer layouts for the Gem-Xfer digital file, showing optimized print plates for knobs and main jig bodies. Estimated print time, orientation, and color mapping are visible. Image communicates that the STL file is fully tuned for Bambu Lab printers and ready for plug-and-play 3D printing.
  • “Gem-Xfer epoxy cure station and transfer jig mounted vertically on a steel tool rack, each printed in white bioplastic with orange and white knurled knobs holding gemstone dops in place. Multiple units are stacked in a column to show batch production workflow for lapidary makers. Workshop benches, tools, and stones appear softly blurred in the background.”
  • “Close-up of the Gem-Xfer epoxy cure station with a faceting transfer jig mounted in the frame, showing the adjustable M3 screw system, translucent arms, and bioplastic knurled knobs. The dop and stone are centered in the curing position on a green cutting mat. Tools and lapidary gear sit in the background, emphasizing makerspace use.”
Gem Xfer: 3d printed Transfer Jig tool - Digital Project File

Gem Xfer: 3d printed Transfer Jig tool - Digital Project File

$9.00
$9.00
Shipping calculated at checkout.

Digital Product: No physical item ships

Looking to level up your workspace? Engineered & refined for batch production, the Gem Xfer Magnetic Transfer Jig brings accuracy, cleanliness, and repeatability to epoxy or UV transfers. Designed for use with 6mm dops, it supports traditional and vertical transfer methods. The magnetic base ensures true leveling and keeps stones stored safely out of the way, freeing your bench for other projects.

Digital file access, ingrained in our values: developing the tools and technology that lower accessibility barriers. 3D printing is changing the arts. It lowers the barrier between idea and execution and provides access to anyone, anywhere in the world, regardless of their social class.

The Catch?
– License terms –
You’re free to print as many as you want. Tune them. Modify them. Make one for your friend who’s just learning. But no selling or redistribution of files.

After all…

Every order supports Aetherium Innovations and our mission to develop tools and technologies that lower the barriers in the skilled art trades.

Proudly designed and tested in the Pacific Northwest, USA
For the Modern Lapidary

Bench-tested

Modular by design

Direct builder support

Pacific Northwest built

Build & Support

Aetherium products are developed around real workshop and field workflows. If you need dimensions, compatibility guidance, replacement components, or help adapting this product to your setup, contact the workshop before ordering.
Shipping & Returns

The production estimate shown near the purchase button is the current working lead time for this item. Shipping is calculated at checkout.

If an order arrives damaged, does not match what you received approval for, or you need to request a return, contact us with the order number and photos when applicable. We will review the situation directly and help determine the right next step.

Complete the system

Why Aetherium

Built like someone has to use it.

We design around real workflows, direct feedback, and the belief that a good tool should expand what its owner can do.

Bench-testedDeveloped around real workshop problems, not trend forecasts.
Small-batchProduced deliberately with clear lead times and direct accountability.
AdaptableModular, repair-minded systems designed to evolve with the work.
Direct supportCompatibility question? You can talk to the person who built it.
Unsure whether this fits your setup?Send the workshop a photo or a short description before you order.
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