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Projet 6000

Manufactured by 3D Systems
Sourced in United States

The ProJet 6000 is a 3D printing system designed for industrial-scale additive manufacturing. It utilizes stereolithography (SLA) technology to create high-precision, durable parts from a variety of photopolymer resins. The system offers a large build volume, precise layer resolution, and fast build speeds to support the production of functional prototypes, end-use parts, and manufacturing tools.

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4 protocols using projet 6000

1

3D Bioprinting of Vascularized Tissue Constructs

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First, for bioprinting tissue constructs embedding midscale vasculatures, precursor cartridges with coaxial architecture were designed using the 3D CAD software (Solidworks 2020, Dassault Systems, France). The 3D CAD file was converted into an STL file to import a 3D printing system. Precursor cartridges were fabricated using a photocrosslinkable resin (VisiJet SL Clear, 3D Systems, USA) and a 3D printer (Projet 6000, 3D Systems). The fabricated precursor cartridges were briefly rinsed with 70% ethanol and sterilized with ultraviolet light for 1 h before use.
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2

Additive Manufacturing Modeling Protocol

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For the input data of AM modeling, an intraoral scanner (CEREC Omnicam; Sirona, Bensheim, Germany) was used on the reference model to obtain surface tessellation language (STL) files (n = 10) using the manufacturer's certified software (CEREC Connect Software 4.3; Sirona) with recommended scanning path. With these 3D data, SLA (ProJet 6000; 3D Systems, Rock Hill, SC) and PolyJet (ProJet 3500 HD Max; 3D Systems) were used to manufacture 10 AM models each. For these two AM systems, the manufacturer's recommended settings were applied. The material used for SLA was photocurable liquid resin (VisiJet SL Clear; 3D Systems), and the material used for PolyJet was acrylic polymer (VisiJet M3‐X‐Rigid White; 3D Systems).
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3

Digital Cast 3D Printing Workflow

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The digital casts were sent to SLA 3D printer (ProJet 6000; 3D Systems, Rock Hill, South Carolina, United States) and printed casts were produced (
n= 5) using photocurable liquid resin ( VisiJet SL Clear; 3D Systems Inc., Rock Hill, SC, United States) as printing material (
Fig. 2).
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4

Additive Manufacturing of Dental Molds

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A professional laboratory equipment DLP-SLA Envisiontec Perfactory P3 Mini Multilens, that uses a 60 mm lens system, a work tray of 84 × 63 × 230 mm, and a layer resolution between 15 µm and 150 µm was employed to generate the molds using ABS Flex White, HTM 140, E-Dent 400, ABS Flex Black, and E-Partial. These materials were post-processed in an Otoflash pulse curing chamber of the same supplier (11 W lamp with a wavelength between 300 and 700 nanometers and ten pulses per second).
A benchtop SLA-LF Form 3 additive manufacturing equipment from Formlabs was used employing a 25 µm for the Clear V04 and 50 µm resolution setting for the Flexible V02 resin. Samples were cured using the provider’s recommended settings for post-processing the sample accordingly (15 min at 60 °C and 1 h of exposure to UV light).
Additionally, a 3D Systems ProJet 6000 that works with an ultraviolet laser was employed by a service provider [42 ] to develop devices in Accura SL 5530 resin. The thermoset resin selected for the molds was a high-temperature resistant stereolithography material, Accura SL 5530 (3D Systems, Rock Hill, SC, USA). A post-curing process was performed to the mold by exposing it for 90 min to UV light and baking it at a temperature of 160 °C for 2 h.
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