The Experts below are selected from a list of 333 Experts worldwide ranked by ideXlab platform

Steven Christie - One of the best experts on this subject based on the ideXlab platform.

  • Cross Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded cross-Connector Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a cross-Connector. The combined Core-Shell structure is to be used for unifying four separate lines of tubing (three inlets into one outlet) via four feruled male threaded nuts. (see 'cross-Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that all threaded extrusions are visible and facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0 (ensure all core O-rings are aligned with the Shell female threads, rotate the core structure along the Z axis accordingly to achieve this). Once grouped (by selecting both parts, right clicking and selecting 'Group Models'), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Tee-Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded tee-Connector Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a tee-Connector. The combined Core-Shell structure is to be used for unifying three separate lines of tubing (two inlets into one outlet) via three feruled male threaded nuts. (see 'Tee-Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that all threaded extrusions are visible and facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0 (ensure all core O-rings are aligned with the Shell female threads, rotate the core structure along the Z axis accordingly to achieve this). Once grouped (by selecting both parts, right clicking and selecting 'Group Models'), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Y-Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Steven Christie, Andrew Capel
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded Y-Connector Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a Y-Connector. The combined Core-Shell structure is to be used for unifying three separate lines of tubing (two inlets into one outlet) via three feruled male threaded nuts at 120o angles. (see 'Y-Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that all threaded extrusions are visible and facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:-0.01, Y:-1.27, Z:1.5 and the Shell at X:0, Y:0, Z:0 (ensure all core O-rings are aligned with the Shell female threads, rotate the core structure along the Z axis accordingly to achieve this). Once grouped (by selecting both parts, right clicking and selecting 'Group Models'), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Union Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded straight union Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a straight union Connector. The combined core-Shell structure is to be used for unifying two separate lines of tubing via two feruled male threaded nuts. (see 'Union Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that both threaded extrusions are facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0. Once grouped (by selecting both parts, right clicking and selecting 'Group Models), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Union Connector (CORE)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded straight union core with 1.00mm channel bore and integrated inlet/ outlet O-rings.The part is to be used as the chemically resistant channeled core of a straight union Connector. The combined Core-Shell structure is to be used for unifying two separate lines of tubing via two feruled male threaded nuts. (see 'Union Connector (Shell)' for Shell counterpart).Part is to be printed in Polypropylene in horizontal orientation such that both integrated O-rings are facing outward. A 0.1mm layer and 100% infill is required along with a material flow rate of 110%. The part can be integrated into its PLA Shell structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0. Once grouped (by selecting both parts, right click and select 'Group Models), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

Adam Price - One of the best experts on this subject based on the ideXlab platform.

  • Cross Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded cross-Connector Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a cross-Connector. The combined Core-Shell structure is to be used for unifying four separate lines of tubing (three inlets into one outlet) via four feruled male threaded nuts. (see 'cross-Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that all threaded extrusions are visible and facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0 (ensure all core O-rings are aligned with the Shell female threads, rotate the core structure along the Z axis accordingly to achieve this). Once grouped (by selecting both parts, right clicking and selecting 'Group Models'), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Tee-Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded tee-Connector Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a tee-Connector. The combined Core-Shell structure is to be used for unifying three separate lines of tubing (two inlets into one outlet) via three feruled male threaded nuts. (see 'Tee-Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that all threaded extrusions are visible and facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0 (ensure all core O-rings are aligned with the Shell female threads, rotate the core structure along the Z axis accordingly to achieve this). Once grouped (by selecting both parts, right clicking and selecting 'Group Models'), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Y-Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Steven Christie, Andrew Capel
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded Y-Connector Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a Y-Connector. The combined Core-Shell structure is to be used for unifying three separate lines of tubing (two inlets into one outlet) via three feruled male threaded nuts at 120o angles. (see 'Y-Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that all threaded extrusions are visible and facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:-0.01, Y:-1.27, Z:1.5 and the Shell at X:0, Y:0, Z:0 (ensure all core O-rings are aligned with the Shell female threads, rotate the core structure along the Z axis accordingly to achieve this). Once grouped (by selecting both parts, right clicking and selecting 'Group Models'), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Union Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded straight union Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a straight union Connector. The combined core-Shell structure is to be used for unifying two separate lines of tubing via two feruled male threaded nuts. (see 'Union Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that both threaded extrusions are facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0. Once grouped (by selecting both parts, right clicking and selecting 'Group Models), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Union Connector (CORE)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded straight union core with 1.00mm channel bore and integrated inlet/ outlet O-rings.The part is to be used as the chemically resistant channeled core of a straight union Connector. The combined Core-Shell structure is to be used for unifying two separate lines of tubing via two feruled male threaded nuts. (see 'Union Connector (Shell)' for Shell counterpart).Part is to be printed in Polypropylene in horizontal orientation such that both integrated O-rings are facing outward. A 0.1mm layer and 100% infill is required along with a material flow rate of 110%. The part can be integrated into its PLA Shell structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0. Once grouped (by selecting both parts, right click and select 'Group Models), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

Andrew Capel - One of the best experts on this subject based on the ideXlab platform.

  • Cross Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded cross-Connector Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a cross-Connector. The combined Core-Shell structure is to be used for unifying four separate lines of tubing (three inlets into one outlet) via four feruled male threaded nuts. (see 'cross-Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that all threaded extrusions are visible and facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0 (ensure all core O-rings are aligned with the Shell female threads, rotate the core structure along the Z axis accordingly to achieve this). Once grouped (by selecting both parts, right clicking and selecting 'Group Models'), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Tee-Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded tee-Connector Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a tee-Connector. The combined Core-Shell structure is to be used for unifying three separate lines of tubing (two inlets into one outlet) via three feruled male threaded nuts. (see 'Tee-Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that all threaded extrusions are visible and facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0 (ensure all core O-rings are aligned with the Shell female threads, rotate the core structure along the Z axis accordingly to achieve this). Once grouped (by selecting both parts, right clicking and selecting 'Group Models'), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Y-Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Steven Christie, Andrew Capel
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded Y-Connector Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a Y-Connector. The combined Core-Shell structure is to be used for unifying three separate lines of tubing (two inlets into one outlet) via three feruled male threaded nuts at 120o angles. (see 'Y-Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that all threaded extrusions are visible and facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:-0.01, Y:-1.27, Z:1.5 and the Shell at X:0, Y:0, Z:0 (ensure all core O-rings are aligned with the Shell female threads, rotate the core structure along the Z axis accordingly to achieve this). Once grouped (by selecting both parts, right clicking and selecting 'Group Models'), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Union Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded straight union Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a straight union Connector. The combined core-Shell structure is to be used for unifying two separate lines of tubing via two feruled male threaded nuts. (see 'Union Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that both threaded extrusions are facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0. Once grouped (by selecting both parts, right clicking and selecting 'Group Models), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Union Connector (CORE)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded straight union core with 1.00mm channel bore and integrated inlet/ outlet O-rings.The part is to be used as the chemically resistant channeled core of a straight union Connector. The combined Core-Shell structure is to be used for unifying two separate lines of tubing via two feruled male threaded nuts. (see 'Union Connector (Shell)' for Shell counterpart).Part is to be printed in Polypropylene in horizontal orientation such that both integrated O-rings are facing outward. A 0.1mm layer and 100% infill is required along with a material flow rate of 110%. The part can be integrated into its PLA Shell structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0. Once grouped (by selecting both parts, right click and select 'Group Models), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

Rob Lee - One of the best experts on this subject based on the ideXlab platform.

  • Cross Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded cross-Connector Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a cross-Connector. The combined Core-Shell structure is to be used for unifying four separate lines of tubing (three inlets into one outlet) via four feruled male threaded nuts. (see 'cross-Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that all threaded extrusions are visible and facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0 (ensure all core O-rings are aligned with the Shell female threads, rotate the core structure along the Z axis accordingly to achieve this). Once grouped (by selecting both parts, right clicking and selecting 'Group Models'), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Tee-Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded tee-Connector Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a tee-Connector. The combined Core-Shell structure is to be used for unifying three separate lines of tubing (two inlets into one outlet) via three feruled male threaded nuts. (see 'Tee-Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that all threaded extrusions are visible and facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0 (ensure all core O-rings are aligned with the Shell female threads, rotate the core structure along the Z axis accordingly to achieve this). Once grouped (by selecting both parts, right clicking and selecting 'Group Models'), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Y-Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Steven Christie, Andrew Capel
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded Y-Connector Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a Y-Connector. The combined Core-Shell structure is to be used for unifying three separate lines of tubing (two inlets into one outlet) via three feruled male threaded nuts at 120o angles. (see 'Y-Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that all threaded extrusions are visible and facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:-0.01, Y:-1.27, Z:1.5 and the Shell at X:0, Y:0, Z:0 (ensure all core O-rings are aligned with the Shell female threads, rotate the core structure along the Z axis accordingly to achieve this). Once grouped (by selecting both parts, right clicking and selecting 'Group Models'), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Union Connector (Shell)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded straight union Shell with internal core void.The part is to be used as the rigid threaded housing for the channeled core of a straight union Connector. The combined core-Shell structure is to be used for unifying two separate lines of tubing via two feruled male threaded nuts. (see 'Union Connector (CORE)' for core counterpart).Part is to be printed in PLA in a horizontal orientation such that both threaded extrusions are facing outward. A 0.1mm layer height and 100% infill is required. The part can be impregnated with its PP core structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0. Once grouped (by selecting both parts, right clicking and selecting 'Group Models), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

  • Union Connector (CORE)
    2020
    Co-Authors: Adam Price, Rob Lee, Andrew Capel, Steven Christie
    Abstract:

    1/4-28" (UNF) flat bottom, female threaded straight union core with 1.00mm channel bore and integrated inlet/ outlet O-rings.The part is to be used as the chemically resistant channeled core of a straight union Connector. The combined Core-Shell structure is to be used for unifying two separate lines of tubing via two feruled male threaded nuts. (see 'Union Connector (Shell)' for Shell counterpart).Part is to be printed in Polypropylene in horizontal orientation such that both integrated O-rings are facing outward. A 0.1mm layer and 100% infill is required along with a material flow rate of 110%. The part can be integrated into its PLA Shell structure by loading both core and Shell components into the slicing software, and positioning the core at coordinates X:0, Y:0, Z:1.5. and the Shell at X:0, Y:0, Z:0. Once grouped (by selecting both parts, right click and select 'Group Models), the part should be raised 10mm above the build plate and a PLA support scaffold should be generated along with a 10mm PLA adhesion brim.

Zender, Gary L. - One of the best experts on this subject based on the ideXlab platform.

  • An evaluation of the spring finger solder joints on SA1358-10 and SA2052-4 Connector assemblies (MC3617,W87).
    Sandia National Laboratories, 2006
    Co-Authors: Kilgo, Alice C., Vianco, Paul Thomas, Hlava, Paul Frank, Zender, Gary L.
    Abstract:

    The SA1358-10 and SA2052-4 circular JT Type plug Connectors are used on a number of nuclear weapons and Joint Test Assembly (JTA) systems. Prototype units were evaluated for the following specific defects associated with the 95Sn-5Sb (Sn-Sb, wt.%) solder joint used to attach the beryllium-copper (BeCu) spring fingers to the aluminum (Al) Connector Shell: (1) extended cracking within the fillet; (2) remelting of the solder joint during the follow-on, soldering step that attached the EMR adapter ring to the Connector Shell (and/or soldering the EMR Shell to the adapter ring) that used the lower melting temperature 63Sn-37Pb (Sn-Pb) alloy; and (3) spalling of the Cd (Cr) layer overplating layer from the fillet surface. Several pedigrees of Connectors were evaluated, which represented older fielded units as well as those assemblies that were recently constructed at Kansas City Plant. The solder joints were evaluated that were in place on Connectors made with the current soldering process as well as an alternative induction soldering process for attaching the EMR adapter ring to the Shell. Very similar observations were made, which crossed the different pedigrees of parts and processes. The extent of cracking in the top side fillets varied between the different Connector samples and likely the EMR adapter ring to the Shell. Very similar observations were made, which crossed the different pedigrees of parts and processes. The extent of cracking in the top side fillets varied between the different Connector samples and likely reflected the different extents to which the Connector was mated to its counterpart assembly. In all cases, the spring finger solder joints on the SA1358-10 Connectors were remelted as a result of the subsequent EMR adapter ring attachment process. Spalling of the Cd (Cr) overplating layer was also observed for these Connectors, which was a consequence of the remelting activity. On the other hand, the SA2052-4 Connector did not exhibit evidence of remelting of the spring finger solder joint. The Cd (Cr) layer did not show signs of spalling. These results suggested that, due to the size of the SA1358-10 Connector, any of the former or current soldering processes used to attach the EMR adapter ring and/or EMR Shell to the Connector Shell, requires a level of heat energy that will always result in the remelting of the spring finger solder joint attached with either the Sn-Ag or the Sn-Sb alloy. Lastly, it was construed that the induction soldering process, which is used to attach the EMR adapter ring onto the Shell, was more likely to have caused the remelting event rather than the more localized heat source of the hand soldering iron used to attach the EMR Shell to the adapter ring