Abstract: A male connector, including: a body having a proximal end and a distal end; and an elastomeric member disposed around an outer surface of the distal end of the body, wherein the distal end of the body is configured to be received into a female connector interface in a medical device, and wherein the proximal end of the body is configured to receive an electronic block connector therein.

Abstract: A micro solder pot includes a dielectric substrate having at least one hole formed therein, a conductive coating coupled to the interior of the hole, and at least one heat transfer pad spaced from the hole in thermal communication with the conductive coating of the hole. When the heat transfer pad is exposed to a heat source, the conductive coating inside the hole is heated. The micro solder pot may also include a thermally activated conductive material disposed within the hole. When the heat transfer pad is exposed to a heat source, the thermally activated conductive material becomes liquidus such that a component can be inserted into the liquidus material. When the heat source is removed, the thermally activated conductive material cools to couple the component to the conductive coating in the hole.

Abstract: A male connector, including: a body having a proximal end and a distal end; and an elastomeric member disposed around an outer surface of the distal end of the body, wherein the distal end of the body is configured to be received into a female connector interface in a medical device, and wherein the proximal end of the body is configured to receive an electronic block connector therein.

Abstract: A male connector includes a body and an elastomeric member. The body has a proximal end and a distal end. The elastomeric member is disposed around an outer surface of the distal end of the body. The distal end of the body is configured to be received into a female connector interface in a device. The proximal end of the body is configured to couple with an electronic block connector selected from a plurality of electronic block connectors, each of which has a different pin arrangement but a common coupling interface.

Abstract: An intelligent connector assembly for use in an interface between a device and a cable, including: a block having a circuit thereon, the block being configured to be received onto a housing, with alignment features on the housing and the block such that the block is receivable in only one orientation into the housing, and a plurality of external interfaces on the block. A method of simultaneously fabricating a plurality of circuit blocks for aligned positioning onto the housing of individual connectors, by: simultaneously fabricating a plurality of blocks on a single sheet of material; cutting a repeating pattern of holes across the single sheet; and separating the single sheet into sections such that each individual block is disposed on an identically shaped section of the single sheet.

Abstract: A method of simultaneously fabricating a plurality of circuit blocks is presented. Each circuit block is configured for aligned positioning onto a housing of an individual electrical connector. The method includes simultaneously fabricating a plurality of circuits on a single sheet of material and cutting a repeating pattern of holes across the sheet of material. Then the sheet is separated into individual identical sections that have one or more peripheral edge. A circuit board is defined by each section. Each of the sections has a peripheral shape that is defined by the one or more peripheral edges. The peripheral shape is sized and configured to be receivable in only one orientation into a housing of an electrical connector. The holes are cut in the sheet of material such that holes are associated with each peripheral edge of each section.

Abstract: A mechanical limiter device, having: a housing with a slot passing at least partially therearound, the slot forming a plurality of teeth in a side of the housing; a plunger movable within the housing; a biasing mechanism configured to urge the plunger in a proximal direction within the housing; a contact member extending through the slot in the side of the housing, the contact member being configured to advance past at least one of each of the plurality of teeth in the slot each time the plunger is moved back and forth within the housing. The contact member may perform a switching function.

Abstract: A mechanical limiter switch for use in a medical or surgical device has a substantially cylindrically shaped housing with a perimeter and an opening in an axial direction. The housing has a pattern along the perimeter. A spring is mounted in the opening along the axial direction, and is pre-stressed for movement in a radial direction and pre-stressed for movement in the axial direction. The spring has a radial member protruding through the pattern of the housing. A plunger is mounted in the opening along the axial direction, abutting the spring for urging the spring in the axial direction and for moving the member in the pattern along the perimeter. After a pre-determined number of activations of the plunger in the axial direction, the member will come to a terminating position and will either contact a pin to establish electrical continuity or at the terminating position break electrical continuity.

Abstract: A mechanical limiter switch device, having: a housing with a slot passing at least partially therearound, the slot forming a plurality of teeth in a side of the housing; a plunger movable within the housing; a biasing mechanism configured to urge the plunger in a proximal direction within the housing; a contact member extending through the slot in the side of the housing, the contact member being configured to advance past at least one of each of the plurality of teeth in the slot each time the plunger is moved back and forth within the housing. The contact member may perform a switching function.

Abstract: A mechanical limiter switch for use in a medical or surgical device has a substantially cylindrically shaped housing with a perimeter and an opening in an axial direction. The housing has a pattern along the perimeter. A spring is mounted in the opening along the axial direction, and is pre-stressed for movement in a radial direction and pre-stressed for movement in the axial direction. The spring has a radial member protruding through the pattern of the housing. A plunger is mounted in the opening along the axial direction, abutting the spring for urging the spring in the axial direction and for moving the member in the pattern along the perimeter. After a pre-determined number of activations of the plunger in the axial direction, the member will come to a terminating position and will either contact a pin to establish electrical continuity or at the terminating position break electrical continuity.

Abstract: A mechanical limiter device, having: a housing with a slot passing at least partially therearound, the slot forming a plurality of teeth in a side of the housing; a plunger movable within the housing; a biasing mechanism configured to urge the plunger in a proximal direction within the housing; a contact member extending through the slot in the side of the housing, the contact member being configured to advance past at least one of each of the plurality of teeth in the slot each time the plunger is moved back and forth within the housing.

Abstract: A mechanical limiter switch for use in a medical or surgical device has a substantially cylindrically shaped housing with a perimeter and an opening in an axial direction. The housing has a pattern along the perimeter. A spring is mounted in the opening along the axial direction, and is pre-stressed for movement in a radial direction and pre-stressed for movement in the axial direction. The spring has a radial member protruding through the pattern of the housing. A plunger is mounted in the opening along the axial direction, abutting the spring for urging the spring in the axial direction and for moving the member in the pattern along the perimeter. After a pre-determined number of activations of the plunger in the axial direction, the member will come to a terminating position and will either contact a pin to establish electrical continuity or at the terminating position break electrical continuity.