Abstract: A molded article transfer device (150, 250) is described herein that is associated, in use, with an injection mold (100, 200). The molded article transfer device (150, 250) includes a transfer structure (151, 251) that defines, amongst other things, a first aperture (154A) that is structured to receive a first molded article (102A) from a first mold stack (106A, 206A) of the injection mold (100). The transfer structure (151, 251) also defines a first branch channel (156A) and a first trunk channel (158A) through which the first molded article (102A) is passable. The first branch channel (156A) connects the first aperture (154A) with the first trunk channel (158A) for passing, in use, the first molded article (102A) thereto, whereafter it passes through the first trunk channel (158A) towards an exit (164A) thereof.

Abstract: A mold-tool system (100), comprising: a nozzle tip assembly (200) having a tip-body assembly (206), the tip-body assembly (206) being configured for reduced axial tilting, at least in part.

Abstract: Injection molding system (20, 220, 320, 420) having hydraulic circuit (50, 250, 350, 450) for motivating hydraulic actuator (36, 38) comprising: pump motor (52); and digital displacement pump (54, 354A, 354B, 454A, 454B) having: piston assemblies (102A, 102B, 102C, 102D) actuatable by pump motor (52), piston assembly including: pair of inlet and outlets operable to be individually opened and closed at selective rate independently of actuation of each piston assembly; at least one hydraulic actuator (36, 38) operably coupled on each of rod side (64, 66) and cylinder side (58, 74) to first subset of the plurality of piston assemblies (102B, 102D) and second subset of the plurality of piston assemblies (102A, 102C), respectively.

Abstract: An apparatus (100), comprising: a pressure-control assembly (104) having: a first interface unit (105) being configured to interface, in use, with a fluid-bottle assembly (102); and a second interface unit (107) being configured to interface, in use, with a hydraulic-accumulator assembly (200), the hydraulic-accumulator assembly (200) being associated with a molding system (202), the hydraulic-accumulator assembly (200) being configured to accumulate, under an hydraulic pressure, an hydraulic fluid, the hydraulic fluid being associated with an hydraulic circuit (204); the pressure-control assembly (104) being configured to: communicate, in use, a fluid pressure between the fluid-bottle assembly (102) and with the hydraulic-accumulator assembly (200); and controllably adjust, in use, the fluid pressure between the fluid-bottle assembly (102) and the hydraulic-accumulator assembly (200), the fluid pressure that is adjusted by the pressure-control assembly (104) varies, in use, the hydraulic pressure associated

Abstract: A platen-supported system (105) for use with a molding-system platen structure (107), the platen-supported system (105) comprising: a frame assembly (103) connectable with the molding-system platen structure (107); and at least one plasticating device (201) supported by the frame assembly (103). A molding system (100) having a mold frame assembly (203) configured for supporting a molding assembly (200), and the at least one plasticating device (201) located within the mold assembly (200).

Abstract: There is provided an injection unit.

Abstract: A method is provided of cleaning of a portion of a mold component, the portion of the mold component including a passage configured, in use, to allow passage of fluid and to prevent passage of melt, the method comprising: entering the mold component into a cleaning configuration, whereby a portion of the passage becomes part of a molding surface; performing a molding cycle to fill in at least the portion of the passage with molding material for incorporation and removal of a residue there from. Also provided is a mold having a first mold half and a second mold half, the halves being movable relative to each other.

Abstract: A mold-tool system (100), comprising: an assembly (101); and a runner assembly (600) supporting the assembly (101). The runner assembly (600) is configured to provide an access portal (103) configured to permit access to the assembly (101) by a removal assembly (105), so that the assembly (101) may be removed from the runner assembly (600) and replaced. The assembly (101) includes: a position-adjustment assembly (102) configured to interact with a stem-actuation plate (606) connected with a stem assembly (609) of a nozzle assembly (620). The position-adjustment assembly (102) configured to adjust an amount of stem protrusion (794) of the stem assembly (609) relative to a mold assembly (700). The runner assembly (600) supports actuatable movement of the stem-actuation plate (606). Access portal (103) configured to permit access to the position-adjustment assembly (102).

Abstract: A mold-tool system (100), having a one-piece manifold assembly (102) is provided. The one-piece manifold assembly (102) has: a plurality of inlets (104); and a plurality of outlets (106) spaced apart from the plurality of inlets (104). A plurality of melt channels extend between the plurality of inlets and the plurality of outlets, and each melt channel extends between a single inlet and at least two outlets such that each inlet (104) is in fluid communication with at least two outlets (106).

Abstract: A mold-tool system (100), comprising: a runner assembly (102) having: a nozzle assembly (104); and a cooling-insert assembly (106) being positioned proximate to the nozzle assembly (104), the cooling-insert assembly (106) being configured to provide, in use, uniform cooling to the nozzle assembly (104). Several potential advantages may be realized with the above arrangement: (i) improvement of hot runner balance by creating a more uniform temperature on all drops, (ii) reduction of energy usage in the hot runner by giving ability to include insulating features, geometry, or materials between the cooling medium and the hot components, and/or (iii) simplification of design since water lines may now be in line with nozzle assemblies.

Abstract: A mold-tool system (100), comprising: a manifold assembly (102); a plate assembly (104) defining a manifold-receiving space (105) receiving the manifold assembly (102); a nozzle assembly (106); a nozzle-locating assembly (108) positionally locating the nozzle assembly (106) relative to the manifold assembly (102) and to the plate assembly (104); and a heat-transfer obstruction (110) being positioned between the plate assembly (104) and the nozzle-locating assembly (108), the heat-transfer obstruction (110) being configured to obstruct transfer of heat from the plate assembly (104) toward the nozzle-locating assembly (108).

Abstract: A mold-tool assembly (100), comprising: a manifold assembly (102); and a constant-temperature heater assembly (99) being positioned relative to the manifold assembly (102), the constant-temperature heater assembly (99) being configured to convey, in use, a thermal-management fluid (109).

Abstract: A plasticizing system (100) for plasticizing a solidified-resin particle (202), the plasticizing system (100), comprising: (A) opposite-facing surfaces (104) being spaced apart from each other, and defining, at least in part, a convergence channel (105) being configured to receive the solidified-resin particle (202), and (B) a plunger assembly (124) being movable, at least in part, relative to the opposite-facing surfaces (104), the plunger assembly (124) being configured to move, at least in part, the solidified-resin particle (202) relative to the opposite-facing surfaces (104) along, at least in part, the convergence channel (105).

Abstract: A molding machine comprises a machine ejection assembly and an auxiliary ejection assistant assembly coupled to the machine ejection assembly, wherein the auxiliary assistant assembly is used to generate an additional ejecting force.

Abstract: A mold-tool system (100), comprising: a valve-stem assembly (102) being configured to be: (i) intractable with a valve-actuator assembly (202) while the valve-actuator assembly (202) remains connected with a manifold assembly (614), the manifold assembly (614) being supported by a runner system (600) of a molding system (200); and (ii) removable from the runner system (600) while the valve-actuator assembly (610) remains connected with the manifold assembly (614) inside the runner system (600).

Abstract: A mold-tool system (100) of a runner system (150), the mold-tool system (100) comprising: a manifold extension (102) being configured to couple with a manifold assembly (152) of the runner system (150); and a biasing assembly (106) extending from the manifold extension (102), the biasing assembly (106) being configured to arrange, in use, sealing contact between the manifold extension (102) and a nozzle assembly (156).

Abstract: A mold-tool system (100) comprising a body (102) defining a melt-transfer channel (104). The body (102) has a variable heat transfer property.

Abstract: A molding system (100), comprising: a collection (102) of material preparation and delivery systems (102A, 102B, 102C, 102D); and a material-mixing assembly (104) being in fluid communication with the collection (102) of material preparation and delivery systems (102A, 102B, 102C, 102D), the material-mixing assembly (104) being configured for fluid communication with a material-receiving assembly (106).

Abstract: A melt-delivery assembly (200), comprising: a frame assembly (202) being positioned outside of a platen envelope (153) being defined by a platen assembly (150), the frame assembly (202) being configured to receive a melt from a melt-preparation assembly (110), and the frame assembly (202), including: a multiple-outlet assembly (204) being configured to fluidly deliver the melt to multiple conduits (207) toward the platen envelope (153).

Abstract: Disclosed, amongst other things, is a method of post-mold cooling of a molded article, the molded article having just been molded within mold halves, the method comprising: receiving, in a post-mold device, the molded article; subjecting the molded article to post-mold cooling, the post-mold cooling including: implementing a first post-mold cooling process portion in the post-mold cooling device at a first temperature; and implementing a second post-mold cooling process in the post-mold cooling device portion at a second temperature, said second post-mold cooling temperature being greater than said first post-mold cooling temperature; determining a switch point; triggering at the switch point, a transition from the first post-mold cooling process portion to the second post-mold cooling process portion.