3D PRINTED SMART MOLD FOR SAND CASTING: Monitoring Binder Curing
3D printing of sacrificial molds and cores involves binder jetting in which a binder is selectively inkjetted into a bed of sand premixed with an acid to provide the two-part furan curing reaction. After one layer of binder is jetted, the bed descends by a layer thickness (typically 250 microns) and...
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| Veröffentlicht in: | Modern Casting 2023-06, Vol.113 (6), p.42-45 |
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| container_title | Modern Casting |
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| creator | Bryant, Nathaniel O'dell, Josh Ravi, Sairam Thiel, Jerry Villela, Janely Owen Villela, Juan Macdonald, Eric Aleman, Alan Lamoncha, Brandon Vuksanovich, Brian Lonardo, Rich |
| description | 3D printing of sacrificial molds and cores involves binder jetting in which a binder is selectively inkjetted into a bed of sand premixed with an acid to provide the two-part furan curing reaction. After one layer of binder is jetted, the bed descends by a layer thickness (typically 250 microns) and a new layer of unbound sand is deposited uniformly across the bed and the process repeats. Interrupting the process and gaining access to the bed is possible with an ExOne SMAX printer and the capability to integrate components, and subsequently to continue the process to construct smart molds is now possible and relatively unexplored. Here, Bryant et al investigate the insertion of fully embedded sensors into 3D printed sand structures during process interruptions in the binder jetting of Furan-based sand molds. |
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| ispartof | Modern Casting, 2023-06, Vol.113 (6), p.42-45 |
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| source | EZB-FREE-00999 freely available EZB journals |
| subjects | Additive manufacturing Beds (process engineering) Blackouts Casting Curing Data collection Embedded sensors Experiments Humidity Hypotheses Sand casting Sand molds Sensors Thickness Three dimensional printing Variables VOCs Volatile organic compounds |
| title | 3D PRINTED SMART MOLD FOR SAND CASTING: Monitoring Binder Curing |
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