Abstract: An explosion proof electronics enclosure (200), is provided having a first compartment (206) and a second compartment (207) defined by a body (205). A septum (208) is between the first compartment (206) and the second compartment (207). A first aperture (209) in the septum (208) connects the first compartment (206) and the second compartment (207). A cavity (225) communicates with the first aperture (209), wherein the cavity (225) comprises an undercut taper (226). A potting (230) in the cavity (225) conforms to the cavity (225) shape, and forms a substantially explosion-proof interface between the first compartment (206) and the second compartment (207).

Abstract: An EMI resistant electronics enclosure (200) is provided having a first compartment (206) and a second compartment (207), each defined by a body (205), being separated by a septum (208). A first aperture (209) in the septum (208) connects the first compartment (206) and the second compartment (207). A feed-through element (210) is provided having a first interface region (211) and a second interface region (212), wherein one or more primary conductors (217) extend between the first interface region (211) and the second interface region (212), and wherein the first interface region (211) resides in the first compartment (206), and the second interface region (212) resides in the second compartment (207). A conductive bar (232) circumscribes at least a portion of the feed-through element (210), and a conductive gasket (220) extends from the body (205) to the conductive bar (232), wherein a ground path is formed between the body (205) and the conductive bar (232) with the conductive gasket (220).

Abstract: The present invention relates to a feedthrough (200) adapted for use within a passage (300). The feedthrough (300) has a body (202) having a first interface region (204) and a second interface region (206). The first interface region (204) comprises a platform region (214). At least one electrical conductor (212) extends through the body (202) and out of the body (202) to both the first interface region (204) and the second interface region (206). A printed circuit board (216) is attached to the platform region (214). At least one pin hole (234) defined by the printed circuit board (216) is configured to accept the at least one electrical conductor (212).

Abstract: A capacitive button interface assembly (100) and a method for assembling the same, comprising a housing member (202), an electrode board (204) coupled to the housing member (202), one or more resilient members (212) positioned between the housing member (202) and the electrode board (204), one or more alignment members (216) coupled to the electrode board (204), operable to align the electrode board (204) with respect to the housing member (202), and a cover (804) coupled to the housing member (202) to apply a force on the electrode board (204).

Abstract: An embodiment of a barrier member (102) for use in forming an assembly (100, 200) with an interference fit standard barrier (199) is disclosed. The barrier member (102) comprises a first face (120), a second face (122), a peripheral edge (124) between the first face (120) and the second face (122), the peripheral edge (124) being at least partially angled by an angle (128) relative to a barrier reference line (130) that is perpendicular to both of at least part of the first face (120) and at least part of the second face (122), the angle (128) declining from the first face (120) to the second face (122).

Abstract: An EMI resistant electronics enclosure (200) is provided having a first compartment (206) and a second compartment (207), each defined by a body (205), being separated by a septum (208). A first aperture (209) in the septum (208) connects the first compartment (206) and the second compartment (207). A feed-through element (210) is provided having a first interface region (211) and a second interface region (212), wherein one or more primary conductors (217) extend between the first interface region (211) and the second interface region (212), and wherein the first interface region (211) resides in the first compartment (206), and the second interface region (212) resides in the second compartment (207). A conductive bar (232) circumscribes at least a portion of the feed-through element (210), and a conductive gasket (220) extends from the body (205) to the conductive bar (232), wherein a ground path is formed between the body (205) and the conductive bar (232) with the conductive gasket (220).

Abstract: An explosion proof electronics enclosure (200), is provided having a first compartment (206) and a second compartment (207) defined by a body (205). A septum (208) is between the first compartment (206) and the second compartment (207). A first aperture (209) in the septum (208) connects the first compartment (206) and the second compartment (207). A cavity (225) communicates with the first aperture (209), wherein the cavity (225) comprises an undercut taper (226). A potting (230) in the cavity (225) conforms to the cavity (225) shape, and forms a substantially explosion-proof interface between the first compartment (206) and the second compartment (207).

Abstract: A capacitive button interface assembly (100) and a method for assembling the same, comprising a housing member (202), an electrode board (204) coupled to the housing member (202), one or more resilient members (212) positioned between the housing member (202) and the electrode board (204), one or more alignment members (216) coupled to the electrode board (204), operable to align the electrode board (204) with respect to the housing member (202), and a cover (804) coupled to the housing member (202) to apply a force on the electrode board (204).

Abstract: An enhanced safety serial bus connector (100) is provided. The enhanced safety serial bus connector (100) includes a shell (110) with a first end (110a) and a second end (110b), the first end (110a) being a terminal end of the shell (110) and having a terminal centerline (CL), and the second end (110b) being the lead end of the shell (110). The enhanced safety serial bus connector (100) also includes an insulating body (120) disposed inside the shell (110) and extending from approximately the first end (110a) to the second end (110b) and a plurality of conductors (130) substantially disposed in the insulating body (120) and extending from the first end (110a) to the second end (110b).

Abstract: An enhanced safety serial bus connector (100) is provided. The enhanced safety serial bus connector (100) includes a shell (110) with a first end (110a) and a second end (110b), the first end (110a) being a terminal end of the shell (110) and having a terminal centerline (CL), and the second end (110b) being the lead end of the shell (110). The enhanced safety serial bus connector (100) also includes an insulating body (120) disposed inside the shell (110) and extending from approximately the first end (110a) to the second end (110b) and a plurality of conductors (130) substantially disposed in the insulating body (120) and extending from the first end (110a) to the second end (110b).