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Structured Review

Formlabs Inc custom 3d printed resin mold
Custom 3d Printed Resin Mold, supplied by Formlabs Inc, used in various techniques. Bioz Stars score: 86/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/3d-printed+molds/3d+collar+custom+designed+printed/pmc13044841-205-1-7
Average 86 stars, based on 1 article reviews
custom 3d printed resin mold - by Bioz Stars, 2026-09
86/100 stars

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Related Articles

Control:

Article Title: Point-of-Care Platform for Rapid Multiplexed Detection of SARS-CoV-2 Variants and Respiratory Pathogens.
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil (≈0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: Medical-Grade Silicone Rubber–Hydrogel-Composites for Modiolar Hugging Cochlear Implants
Article Snippet: The molds for sample designs A and B were 3D-printed (Formlabs, Berlin, Germany) with artificial resin (Clear resin, Formlabs, Berlin, Germany).

Article Title: Magnetofluidic platform for rapid multiplexed screening of SARS-CoV-2 variants and respiratory pathogens
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil ( ~ 0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review.
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [123].

Article Title: Bioprinting of piezoresistive organohydrogel networks for advanced real-time mechanosensing in engineered tissue models.
Article Snippet: Control constructs obtained through the manual micromolding procedure were created by depositing the same bioinks into 3D-printed molds (Formlabs Technology; Somerville, Massachusetts, USA) with the same size and geometry as the bioprinted constructs, ensuring even distribution of the material.

Article Title: Magnetically induced stiffening for soft robotics.
Article Snippet: Soft robots are well-suited for human-centric applications, but the compliance that gives soft robots this advantage must also be paired with adequate stiffness modulation such that soft robots can achieve more rigidity when needed.. For this reason, variable stiffening mechanisms are often a necessary component of soft robot design.. Many techniques have been explored to introduce variable stiffness structures into soft robots, such as pneumatically-controlled jamming and thermally-controlled phase change materials.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [ ].

Article Title: PDMS Curing Inhibition on 3D-Printed Molds: Why? Also, How to Avoid It?
Article Snippet: List of supplementary information Numbering Description Table S1 Post-treatments reported in the literature to prevent PDMS curing inhibition by 3D-printed molds Table S2 Post-treatment screenings for protocols including UV exposure and heating at 120 °C Table S3 Post-treatment screenings for protocols including UV exposure and heating at 60 °C Table S4 Comparison between post-treatments recommended by Formlabs and proposed in this study Figure S1 Influence of the post-treatment on the dimensions of 3D printed structures – protocol and actual data Table S5 Overview of the bands in the Raman spectra – comparison between spectra Figure S2 Raman spectra of monomers and BAPO and TPO-L Figure S3 Pictures of PDMS supplemented with various resins, condensed liquids thereof, photo-initiators and condensed liquids thereof, or monomers after casting Figure S4 31P NMR spectra for BAPO and TPO-L Figure S5 Identification of compounds from the MS analysis of the treated BAPO and TPO-L and possible formation mechanisms S2 Table S1.

Construct:

Article Title: Point-of-Care Platform for Rapid Multiplexed Detection of SARS-CoV-2 Variants and Respiratory Pathogens.
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil (≈0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: Medical-Grade Silicone Rubber–Hydrogel-Composites for Modiolar Hugging Cochlear Implants
Article Snippet: The molds for sample designs A and B were 3D-printed (Formlabs, Berlin, Germany) with artificial resin (Clear resin, Formlabs, Berlin, Germany).

Article Title: Magnetofluidic platform for rapid multiplexed screening of SARS-CoV-2 variants and respiratory pathogens
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil ( ~ 0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review.
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [123].

Article Title: Bioprinting of piezoresistive organohydrogel networks for advanced real-time mechanosensing in engineered tissue models.
Article Snippet: Control constructs obtained through the manual micromolding procedure were created by depositing the same bioinks into 3D-printed molds (Formlabs Technology; Somerville, Massachusetts, USA) with the same size and geometry as the bioprinted constructs, ensuring even distribution of the material.

Article Title: Magnetically induced stiffening for soft robotics.
Article Snippet: Soft robots are well-suited for human-centric applications, but the compliance that gives soft robots this advantage must also be paired with adequate stiffness modulation such that soft robots can achieve more rigidity when needed.. For this reason, variable stiffening mechanisms are often a necessary component of soft robot design.. Many techniques have been explored to introduce variable stiffness structures into soft robots, such as pneumatically-controlled jamming and thermally-controlled phase change materials.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [ ].

Article Title: PDMS Curing Inhibition on 3D-Printed Molds: Why? Also, How to Avoid It?
Article Snippet: List of supplementary information Numbering Description Table S1 Post-treatments reported in the literature to prevent PDMS curing inhibition by 3D-printed molds Table S2 Post-treatment screenings for protocols including UV exposure and heating at 120 °C Table S3 Post-treatment screenings for protocols including UV exposure and heating at 60 °C Table S4 Comparison between post-treatments recommended by Formlabs and proposed in this study Figure S1 Influence of the post-treatment on the dimensions of 3D printed structures – protocol and actual data Table S5 Overview of the bands in the Raman spectra – comparison between spectra Figure S2 Raman spectra of monomers and BAPO and TPO-L Figure S3 Pictures of PDMS supplemented with various resins, condensed liquids thereof, photo-initiators and condensed liquids thereof, or monomers after casting Figure S4 31P NMR spectra for BAPO and TPO-L Figure S5 Identification of compounds from the MS analysis of the treated BAPO and TPO-L and possible formation mechanisms S2 Table S1.

Encapsulation:

Article Title: Point-of-Care Platform for Rapid Multiplexed Detection of SARS-CoV-2 Variants and Respiratory Pathogens.
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil (≈0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: Medical-Grade Silicone Rubber–Hydrogel-Composites for Modiolar Hugging Cochlear Implants
Article Snippet: The molds for sample designs A and B were 3D-printed (Formlabs, Berlin, Germany) with artificial resin (Clear resin, Formlabs, Berlin, Germany).

Article Title: Magnetofluidic platform for rapid multiplexed screening of SARS-CoV-2 variants and respiratory pathogens
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil ( ~ 0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review.
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [123].

Article Title: Bioprinting of piezoresistive organohydrogel networks for advanced real-time mechanosensing in engineered tissue models.
Article Snippet: Control constructs obtained through the manual micromolding procedure were created by depositing the same bioinks into 3D-printed molds (Formlabs Technology; Somerville, Massachusetts, USA) with the same size and geometry as the bioprinted constructs, ensuring even distribution of the material.

Article Title: Magnetically induced stiffening for soft robotics.
Article Snippet: Soft robots are well-suited for human-centric applications, but the compliance that gives soft robots this advantage must also be paired with adequate stiffness modulation such that soft robots can achieve more rigidity when needed.. For this reason, variable stiffening mechanisms are often a necessary component of soft robot design.. Many techniques have been explored to introduce variable stiffness structures into soft robots, such as pneumatically-controlled jamming and thermally-controlled phase change materials.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [ ].

Article Title: PDMS Curing Inhibition on 3D-Printed Molds: Why? Also, How to Avoid It?
Article Snippet: List of supplementary information Numbering Description Table S1 Post-treatments reported in the literature to prevent PDMS curing inhibition by 3D-printed molds Table S2 Post-treatment screenings for protocols including UV exposure and heating at 120 °C Table S3 Post-treatment screenings for protocols including UV exposure and heating at 60 °C Table S4 Comparison between post-treatments recommended by Formlabs and proposed in this study Figure S1 Influence of the post-treatment on the dimensions of 3D printed structures – protocol and actual data Table S5 Overview of the bands in the Raman spectra – comparison between spectra Figure S2 Raman spectra of monomers and BAPO and TPO-L Figure S3 Pictures of PDMS supplemented with various resins, condensed liquids thereof, photo-initiators and condensed liquids thereof, or monomers after casting Figure S4 31P NMR spectra for BAPO and TPO-L Figure S5 Identification of compounds from the MS analysis of the treated BAPO and TPO-L and possible formation mechanisms S2 Table S1.

Injection:

Article Title: Point-of-Care Platform for Rapid Multiplexed Detection of SARS-CoV-2 Variants and Respiratory Pathogens.
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil (≈0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: Medical-Grade Silicone Rubber–Hydrogel-Composites for Modiolar Hugging Cochlear Implants
Article Snippet: The molds for sample designs A and B were 3D-printed (Formlabs, Berlin, Germany) with artificial resin (Clear resin, Formlabs, Berlin, Germany).

Article Title: Magnetofluidic platform for rapid multiplexed screening of SARS-CoV-2 variants and respiratory pathogens
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil ( ~ 0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review.
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [123].

Article Title: Bioprinting of piezoresistive organohydrogel networks for advanced real-time mechanosensing in engineered tissue models.
Article Snippet: Control constructs obtained through the manual micromolding procedure were created by depositing the same bioinks into 3D-printed molds (Formlabs Technology; Somerville, Massachusetts, USA) with the same size and geometry as the bioprinted constructs, ensuring even distribution of the material.

Article Title: Magnetically induced stiffening for soft robotics.
Article Snippet: Soft robots are well-suited for human-centric applications, but the compliance that gives soft robots this advantage must also be paired with adequate stiffness modulation such that soft robots can achieve more rigidity when needed.. For this reason, variable stiffening mechanisms are often a necessary component of soft robot design.. Many techniques have been explored to introduce variable stiffness structures into soft robots, such as pneumatically-controlled jamming and thermally-controlled phase change materials.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [ ].

Article Title: PDMS Curing Inhibition on 3D-Printed Molds: Why? Also, How to Avoid It?
Article Snippet: List of supplementary information Numbering Description Table S1 Post-treatments reported in the literature to prevent PDMS curing inhibition by 3D-printed molds Table S2 Post-treatment screenings for protocols including UV exposure and heating at 120 °C Table S3 Post-treatment screenings for protocols including UV exposure and heating at 60 °C Table S4 Comparison between post-treatments recommended by Formlabs and proposed in this study Figure S1 Influence of the post-treatment on the dimensions of 3D printed structures – protocol and actual data Table S5 Overview of the bands in the Raman spectra – comparison between spectra Figure S2 Raman spectra of monomers and BAPO and TPO-L Figure S3 Pictures of PDMS supplemented with various resins, condensed liquids thereof, photo-initiators and condensed liquids thereof, or monomers after casting Figure S4 31P NMR spectra for BAPO and TPO-L Figure S5 Identification of compounds from the MS analysis of the treated BAPO and TPO-L and possible formation mechanisms S2 Table S1.

Inhibition:

Article Title: Point-of-Care Platform for Rapid Multiplexed Detection of SARS-CoV-2 Variants and Respiratory Pathogens.
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil (≈0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: Medical-Grade Silicone Rubber–Hydrogel-Composites for Modiolar Hugging Cochlear Implants
Article Snippet: The molds for sample designs A and B were 3D-printed (Formlabs, Berlin, Germany) with artificial resin (Clear resin, Formlabs, Berlin, Germany).

Article Title: Magnetofluidic platform for rapid multiplexed screening of SARS-CoV-2 variants and respiratory pathogens
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil ( ~ 0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review.
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [123].

Article Title: Bioprinting of piezoresistive organohydrogel networks for advanced real-time mechanosensing in engineered tissue models.
Article Snippet: Control constructs obtained through the manual micromolding procedure were created by depositing the same bioinks into 3D-printed molds (Formlabs Technology; Somerville, Massachusetts, USA) with the same size and geometry as the bioprinted constructs, ensuring even distribution of the material.

Article Title: Magnetically induced stiffening for soft robotics.
Article Snippet: Soft robots are well-suited for human-centric applications, but the compliance that gives soft robots this advantage must also be paired with adequate stiffness modulation such that soft robots can achieve more rigidity when needed.. For this reason, variable stiffening mechanisms are often a necessary component of soft robot design.. Many techniques have been explored to introduce variable stiffness structures into soft robots, such as pneumatically-controlled jamming and thermally-controlled phase change materials.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [ ].

Article Title: PDMS Curing Inhibition on 3D-Printed Molds: Why? Also, How to Avoid It?
Article Snippet: List of supplementary information Numbering Description Table S1 Post-treatments reported in the literature to prevent PDMS curing inhibition by 3D-printed molds Table S2 Post-treatment screenings for protocols including UV exposure and heating at 120 °C Table S3 Post-treatment screenings for protocols including UV exposure and heating at 60 °C Table S4 Comparison between post-treatments recommended by Formlabs and proposed in this study Figure S1 Influence of the post-treatment on the dimensions of 3D printed structures – protocol and actual data Table S5 Overview of the bands in the Raman spectra – comparison between spectra Figure S2 Raman spectra of monomers and BAPO and TPO-L Figure S3 Pictures of PDMS supplemented with various resins, condensed liquids thereof, photo-initiators and condensed liquids thereof, or monomers after casting Figure S4 31P NMR spectra for BAPO and TPO-L Figure S5 Identification of compounds from the MS analysis of the treated BAPO and TPO-L and possible formation mechanisms S2 Table S1.

Comparison:

Article Title: Point-of-Care Platform for Rapid Multiplexed Detection of SARS-CoV-2 Variants and Respiratory Pathogens.
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil (≈0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: Medical-Grade Silicone Rubber–Hydrogel-Composites for Modiolar Hugging Cochlear Implants
Article Snippet: The molds for sample designs A and B were 3D-printed (Formlabs, Berlin, Germany) with artificial resin (Clear resin, Formlabs, Berlin, Germany).

Article Title: Magnetofluidic platform for rapid multiplexed screening of SARS-CoV-2 variants and respiratory pathogens
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil ( ~ 0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review.
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [123].

Article Title: Bioprinting of piezoresistive organohydrogel networks for advanced real-time mechanosensing in engineered tissue models.
Article Snippet: Control constructs obtained through the manual micromolding procedure were created by depositing the same bioinks into 3D-printed molds (Formlabs Technology; Somerville, Massachusetts, USA) with the same size and geometry as the bioprinted constructs, ensuring even distribution of the material.

Article Title: Magnetically induced stiffening for soft robotics.
Article Snippet: Soft robots are well-suited for human-centric applications, but the compliance that gives soft robots this advantage must also be paired with adequate stiffness modulation such that soft robots can achieve more rigidity when needed.. For this reason, variable stiffening mechanisms are often a necessary component of soft robot design.. Many techniques have been explored to introduce variable stiffness structures into soft robots, such as pneumatically-controlled jamming and thermally-controlled phase change materials.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [ ].

Article Title: PDMS Curing Inhibition on 3D-Printed Molds: Why? Also, How to Avoid It?
Article Snippet: List of supplementary information Numbering Description Table S1 Post-treatments reported in the literature to prevent PDMS curing inhibition by 3D-printed molds Table S2 Post-treatment screenings for protocols including UV exposure and heating at 120 °C Table S3 Post-treatment screenings for protocols including UV exposure and heating at 60 °C Table S4 Comparison between post-treatments recommended by Formlabs and proposed in this study Figure S1 Influence of the post-treatment on the dimensions of 3D printed structures – protocol and actual data Table S5 Overview of the bands in the Raman spectra – comparison between spectra Figure S2 Raman spectra of monomers and BAPO and TPO-L Figure S3 Pictures of PDMS supplemented with various resins, condensed liquids thereof, photo-initiators and condensed liquids thereof, or monomers after casting Figure S4 31P NMR spectra for BAPO and TPO-L Figure S5 Identification of compounds from the MS analysis of the treated BAPO and TPO-L and possible formation mechanisms S2 Table S1.

Nuclear Magnetic Resonance:

Article Title: Point-of-Care Platform for Rapid Multiplexed Detection of SARS-CoV-2 Variants and Respiratory Pathogens.
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil (≈0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: Medical-Grade Silicone Rubber–Hydrogel-Composites for Modiolar Hugging Cochlear Implants
Article Snippet: The molds for sample designs A and B were 3D-printed (Formlabs, Berlin, Germany) with artificial resin (Clear resin, Formlabs, Berlin, Germany).

Article Title: Magnetofluidic platform for rapid multiplexed screening of SARS-CoV-2 variants and respiratory pathogens
Article Snippet: The bottom layer was fabricated by thermoforming 10 mil ( ~ 0.25 mm) thick polyethylene terephthalate glycol (PETG) sheet (Welch Fluorocarbon) over 3D-printed molds (Form 2, Formlabs) designed in Fusion 360 (Autodesk) to produce extruded wells.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review.
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [123].

Article Title: Bioprinting of piezoresistive organohydrogel networks for advanced real-time mechanosensing in engineered tissue models.
Article Snippet: Control constructs obtained through the manual micromolding procedure were created by depositing the same bioinks into 3D-printed molds (Formlabs Technology; Somerville, Massachusetts, USA) with the same size and geometry as the bioprinted constructs, ensuring even distribution of the material.

Article Title: Magnetically induced stiffening for soft robotics.
Article Snippet: Soft robots are well-suited for human-centric applications, but the compliance that gives soft robots this advantage must also be paired with adequate stiffness modulation such that soft robots can achieve more rigidity when needed.. For this reason, variable stiffening mechanisms are often a necessary component of soft robot design.. Many techniques have been explored to introduce variable stiffness structures into soft robots, such as pneumatically-controlled jamming and thermally-controlled phase change materials.

Article Title: The Use of Additive Manufacturing Techniques in the Development of Polymeric Molds: A Review
Article Snippet: Formlabs presented three case studies using 3D-printed molds for composite fabrication [ ].

Article Title: PDMS Curing Inhibition on 3D-Printed Molds: Why? Also, How to Avoid It?
Article Snippet: List of supplementary information Numbering Description Table S1 Post-treatments reported in the literature to prevent PDMS curing inhibition by 3D-printed molds Table S2 Post-treatment screenings for protocols including UV exposure and heating at 120 °C Table S3 Post-treatment screenings for protocols including UV exposure and heating at 60 °C Table S4 Comparison between post-treatments recommended by Formlabs and proposed in this study Figure S1 Influence of the post-treatment on the dimensions of 3D printed structures – protocol and actual data Table S5 Overview of the bands in the Raman spectra – comparison between spectra Figure S2 Raman spectra of monomers and BAPO and TPO-L Figure S3 Pictures of PDMS supplemented with various resins, condensed liquids thereof, photo-initiators and condensed liquids thereof, or monomers after casting Figure S4 31P NMR spectra for BAPO and TPO-L Figure S5 Identification of compounds from the MS analysis of the treated BAPO and TPO-L and possible formation mechanisms S2 Table S1.



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