ELECTRICAL CONNECTOR AND TERMINAL FOR SERIALLY MOUNTING ELECTRICAL CIRCUIT COMPONENTS

Abstract: An electrical terminal (20) having electrical circuit components (64) mounted in series thereon comprises a body section (26) having terminal sections (22, 24) extending outwardly from each end thereof, the terminal sections (22, 24) being adapted to be electrically connected to complementary conductive means of other respective electrical articles. The body section (26) includes at least one component-receiving portion (28) having a first section (30) and a second section (32) initially integrally joined by a severable section (34). A dielectric housing means (50) is secured to the body section (26), the housing means (50) having a component-receiving aperture (52) therein associated with each of the component-receiving portions (28), the first and second and severable sections (30, 32, 34) initially being exposed along a bottom surface of the aperture (52). The housing means (50) is adapted to permit severing of the severable section (34), thus electrically disconnecting the associated first (30) and second sections (32). An electrical circuit component (64) having respective first and second contact means (66, 68) can be joined in series along the circuit path to corresponding first and second sections (30, 32) of the component-receiving portion (28) thus permitting means for altering an electrical signal as it passes through the terminal (20). A method for making the electrical terminal (20) is also disclosed. An electrical connector (80) having a plurality of such terminals and filtering means therein is also disclosed.

Description: The present invention relates generally to electrical connectors, and more particularly to electrical connectors having terminals therein which carry electrical circuit From DE-U-1 963 840 it is known to provide a connector element with an additional desired component as a resistor, a capacitor, etc.. The connector element is a separate assembly which can be inserted between plug and socket of an existing connection part if desired. From US-A-4,580,866 an assembly is known for use as a multiple pin electrical connector having a capability of filtering the electromagnetic interference from the signals passing through the pins of the connector. The assembly includes a filtering interface having an electrically non-conductive body provided with a plurality of generally parallel grooves for receiving respective, individual capacitors. The body has a plurality of pin-receiving holes, each hole communicating with one end of a respective Groove. The holes, portions of the grooves, and an outer face of the body adjacent to the outer ends of the grooves are plated with an electrically conductive material. The capacitors placed in respective grooves complete a plurality of electrical paths between the holes and the outer face of the body, such plated outer face defining a ground plane which can be placed in electrical contact with grounded equipment by a screw or other attachment device. The filtering interface can be separate from or integral with an electrical connector member having multiple pins. The filtering interface can be placed between a pair of multiple pin electrical connector members or between an electrical connector member and a printed circuit board. There is an increasing need to protect electronic equipment against radiated and conducted electromagnetic interference. While shielding is the main means for protecting against radiated EMI, some equipment requires extensive and complex filtered circuits combined with shielding to meet standards required by industry and/or various government agencies. There is an increasing need, therefore, for means to limit the frequency content of information signals to prevent radiation and thereby reduce the need for elaborate shielding. This basic concept is known as "wave shaping" and it is accomplished by filtering a signal such that the shape of the fundamental signal is noticeably altered. By slowing down the rise time, the high frequency content of a signal is greatly reduced, which results in less radiation. The wave shaping is achieved by providing capacitance, inductance, and/or resistance, or combinations thereof, in series with the signal. Currently, wave shaping capability is provided by mounting respective leaded components on a printed circuit board and attaching the printed circuit board to a connector. This method results in a relatively large package for the wave shaping device. It is desirable to have a means for accomplishing wave shaping that may be packaged inside the connector rather than external to the connector. It is also desirable to have a means for integrating one or more active or passive electrical components in series along the circuit path of an individual electrical terminal, which may then be included in a connector package. Furthermore, it is desirable to eliminate problems generally associated with leaded components. In addition it is desirable to have a more cost effective method for achieving wave shaping. The present invention consists in an electrical terminal comprising a body section having terminal sections extending outwardly from each end thereof, said terminal sections being adapted to be electrically connected to complementary conductive means of other respective electrical articles, wherein said body section has at least one component-receiving portion extending therealong, the or each component-receiving portion having a first section and a second section initially integrally joined by a severable section, dielectric housing means is secured to said body section and has at least one component-receiving aperture therein associated with the or each component-receiving portion, said first and second and severable sections initially being exposed along a bottom surface of the or each aperture, and said housing means being adapted to permit severing of the or each severable section, said severable section of the or each component-receiving portion has been severed from said first and second sections and electrically disconnected from the associated first and second sections, and at least one electrical circuit component having respective first and second contact means is joined to the first and second sections of the or each component-receiving portion, whereby the or each electrical component is joined in series along the circuit path of said terminal, thus providing means for altering an electrical signal as it passes through said terminal. In a preferred embodiment, the body section includes two component-receiving portions having respective first and second sections initially integrally joined by a severable section and the second section of the first component-receiving portion being integrally joined to the first section of the second component-receiving portion. The dielectric housing means, in the preferred embodiment, includes two electrical circuit component-receiving apertures each being in alignment with respective component-receiving portions. Upon severing each of the respective severable sections, the contact means of two respective components may be joined in series along the circuit path of the terminal. The invention also consists in an electrical connector incorporating one or more electrical terminals constructed in accordance with the invention. Such an electrical connector may include filtering means in parallel with the terminal(s) to provide a connector having filter means for altering an electrical signal as it passes through the terminal(s) and for filtering undesired electromagnetic radiation. The present invention further consists in a method for making an electrical terminal member having at least one electrical circuit component mounted in series thereon, including forming a metal member into a body section having terminal sections extending outwardly from each end thereof, said terminal sections being adapted to be electrically connected to complementary conductive means of other respective electrical articles, the method comprising the steps of forming said body section having at least one component-receiving portion having a first section and a second section initially integrally joined by a severable section, forming a dielectric housing means secured to said body section, said housing means having at least one component-receiving aperture therein associated with the or each component-receiving portion, said first and second and severable sections being exposed along a bottom surface of the or each aperture, and said housing means being adapted to permit severing of the or each said severable section, severing the or each severable section, thus electrically disconnecting the associated first and second sections, and joining respective contact means of at least one electrical circuit component to respective first and second sections to achieve an electrical terminal having at least one component joined in series along the circuit path of said terminal, thus providing means for altering an electrical signal as it passes through said terminal. The present invention enables electrical circuit components to be mounted in series in an electrical terminal, thereby also enabling the provision of means for altering signals through a terminal in a compact packaging manner. Furthermore, the invention can provide a cost effective means for providing wave shaping capabilities for a connector within a standardized packaging system. Additionally, it enables the provision of means for altering electrical signals while eliminating the problems associated with leaded electrical circuit components, particularly the increased impedance owing to the length of the leads. An electrical connector embodying the invention may readily be provided for altering an electrical signal as it passes through the terminals therein and means for providing filtering capabilities. In order that the present invention may be more readily understood, reference will now be made to the accompanying drawings, in which:- FIGURE 1 is a perspective view of an electrical terminal made in accordance with the invention with the electrical components exploded therefrom. FIGURE 2 is an enlarged partially cross-sectional view of the terminal taken along line 2-2 of Figure 1. FIGURE 3 is a perspective view of an electrical connector having therein electrical terminals made in ce with the present invention. FIGURE 4 is a cross-sectional view of the connector of Figure 3. FIGURES 5 through 10 illustrate the method of assembling the electrical terminal members of Figure 1. FIGURE 5 is a top plan view of a strip of stamped terminal blanks. FIGURES 6 is a perspective view of a portion of the strip of Figure 5 after the terminal sections have been formed. FIGURE 7 is a perspective view of a plurality of terminal members removed from the strip with the broken lines illustrating the severable sections. FIGURE 8 is a perspective view of the formation of the housing over the terminals of Figure 7 with the severable sections exploded from one member thereof. FIGURE 8A is a perspective view of an alternative method for forming the housing means over a plurality of terminals. FIGURE 9 is a top plan view of Figure 8. FIGURE 10 is a cross-sectional view of two strips of terminals taken along the line 10-10 of Figure 9, illustrating the internesting of the terminal strips to provide a row of terminals having the desired centerline. FIGURE 10A is a view similar to that of view 10 illustrating the internested rows of terminals. FIGURE 11 is a perspective view of an alternative embodiment of the electrical terminal wherein the housing means has a single component-receiving cavity. FIGURE 11A is a perspective view of a strip of electrical terminal members having the housing means of Figure 11. FIGURES 12 is a perspective view of an alternative embodiment of the connector of Figure 3 having the terminals of Figure 11. FIGURE 13 is a perspective view of a further alternative embodiment of a connector having electrical terminals made in accordance with the present invention. FIGURES 14A through 14H and 15A through 15D are schematic diagrams of representative circuits achievable by means of the present invention. Figures 1 and 2 illustrate the preferred embodiment of terminal 20 made in accordance with the invention. Terminal 20 is comprised of first and second terminal sections 22, 24 which extend outwardly from respective ends of intermediate body section 26. Terminal sections 22, 24 are adapted to be electrically connected to complementary conductive means of other respective electrical articles. In the embodiment shown, first terminal section 22 is a pin terminal and second terminal section 24 is a socket. It is to be understood that terminal pins and sockets are used herein in the broad sense to denote any type of contact which can extend through a connector and can be electrically connected to complementary conductive means of other articles. In the preferred embodiment, body section 26 has two component-receiving portions 28 and 36 extending therealong, each component-receiving portion 28, 36 having respective first sections 30, 38 and second sections 32, 40 initially integrally joined by respective severable sections 34, 42, as best seen in Figure 7. As is further seen in Figure 7, second section 32 of first component-receiving portion 28 is integrally joined to the first section 38 of second component-receiving portion 36 to allow electrical circuit components to be mounted in series with the signal passing through terminal 20. Referring again to Figures 1 and 2, body section 26 further has dielectric housing means 50 secured thereto. Housing means 50 has two component-receiving apertures 52, 54 associated therewith, aperture 52 being aligned with first component-receiving portion 28 and aperture 54 being aligned with second component-receiving section 36 and with their respective severable sections 34, 42. In the embodiment shown, component-receiving apertures 52, 54 are formed in housing means 50 on opposite sides of terminal 20. Dielectric housing means 50 further includes first and second apertures 56 and 58 overlying respective severable sections 34, 42 of body section 26 to permit removal of severable sections 34 and 42. First and second electrical components 64 and 70 are mounted in respective component-receiving apertures 52 and 54. Each of the components includes first contact means 66, 72 and second contact means 68, 70 respectively, which are electrically engaged to respective first component-receiving sections 30, 38, and second component-receiving sections 32, 40. Components 64, 70 are preferably surface-mounted components. Various components such as inductors, resistors, capacitors, fuses, diodes, and the like, may be mounted in the component-receiving apertures. Figures 5 through 8 illustrate the construction of electrical terminal of Figures 1 and 2. A strip of metal is first stamped, as shown in Figure 5, to form carrier strip 44 having the blanks for first and second terminal sections 22, 24 and body sections 26 extending outwardly therealong. It is to be understood that the configuration of the first and second terminal section blanks will be different from the shown in Figure 5 for other terminal constructions. Owing to the amount of material necessary for forming the pin and socket terminal sections of Figure 6, the metal strip is stamped so that formed terminal sections 22, 24 will have twice the centerline spacing as required in a finished connector assembly, such as the connector shown in Figures 3 and 4. Two strips of formed terminal members, such as those shown in Figures 4 or 8, can then be superimposed upon each other to provide terminal sections with the desired centerline spacing. In the embodiment illustrated, carrier strip 44 forms part of body section 26 when individual terminal members are severed form carrier strip 44. Figure 7 shows a plurality of terminal members severed from carrier strip 44. The broken lines indicate the locations of severable sections 34 and 42. Figures 8 and 8A illustrate alternative methods for molding respective dielectric housing means 50, 150 on the terminals to form intermediate articles 60, 160 respectively. Figure 8 illustrates one method of forming housing means 50. The formed terminals are placed in the mold such that the centerline spacing of adjacent terminal sections is twice that of the desired centerline spacing of the connector in which the terminal members 20 are to be used. Housing means 50 is disposed around each terminal such that respective component-receiving apertures 52, 54 overly their respective component-receiving sections 28, 36 as best seen in Figure 9. Each housing means 50 is spaced from its immediately adjacent housing means 50. Adjacent housing means 50 are integrally joined to dielectric carrier strips 62, which hold the terminal sections in the desired configuration. This method of forming housing means 50 enables two strips 62, 62 of terminal members 20 to be superimposed upon one another and the housing means 50 on one strip 62 to be internested between the housing means 50 for adjacent terminal members 20 of the second strip 62, thus providing terminal sections having the correct centerline spacing, as best seen in Figures 10 and 10A. Figure 8A shows an alternative method in which the terminals are placed in the mold with the centerline spacing required by the connector in which terminals 20 are to be used. Housing means 150 is molded around the terminals in a continuous strip with respective component-receiving apertures 52, 54 overlying their respective component-receiving sections 28, 36. After the housing means 50 has been molded, severable sections 34, 42 are removed or punched from body section 26 as shown in Figure 8, thus providing mechanical and electrical discontinuity between respective first and second component-receiving sections 30, 32 and 38, 40, as best seen in Figure 9. Components 64 and 70 are then mounted into the cavities as shown in Figures 1, 2 and 8A. Figures 11 shows an alternative embodiment 120 of a terminal member having housing means 250 disposed thereon. Housing means 250 has a single component-receiving cavity 52. Figure 11A shows a strip 260 of housing means 350 disposed onto a plurality of terminal members 120, each terminal member 120 having a single component-receiving cavity 52 associated therewith. Figures 3 and 4 disclose a connector 80 made in accordance with the present invention. This particular embodiment is known in the art as an adaptor and often is used to provide filtering means for unfiltered equipment or to increase the filtering capability of a filtered system. In accordance with the present invention, the adaptor is provided with wave shaping as well as filtering capabilities. The adaptor is readily inserted into a system by unplugging existing connector members and mating them with respective sides of the adaptor. In the embodiment shown, the adaptor is provided with oppositely directed configurations suitable for intermating with plug and receptacle members. The adaptor is useful for retrofitting existing electrical connectors of known configurations to provide wave shaping and other filtering capabilities. It is to be understood that the connector of Figures 3 and 4 is representative of the types of connectors that can be made in accordance with this invention. Connector 80 is comprised of an outer conductive shell member 81 having a passageway extending therethrough, a plurality of terminal members 20 extending axially along the passageway and first and second substrate members 108, 112 extending laterally across the passageway. Each terminal member 20 include means thereon for mounting one or more electrical circuit components in series along its circuit path. Substrate members 108, 112 include apertures 110 and 114 through which terminal members 20 extend. In the preferred embodiment, the electrical components provide wave shaping capabilities for connector 80. Preferably connector 80 also includes means for filtering signals. Conductive shell 81 includes a first end portion 82, an intermediate portion 88, and a second end portion 94, having passageway portions 83, 91 and 95 respectively extending therethrough. First and second end shell portions 82, 94 are profiled to accommodate respective terminal sections 22, 24 disposed therein. In the embodiment shown, first end portion 82 is comprised of an outwardly extending wall 84, which surrounds passageway 83, and an upward extending flange 86 around the periphery of wall 84. As can be seen in Figure 3, flange 86 includes clinching tines 87 at selected locations around its periphery for securing first end portion to intermediate shell portion 88. Flange 86 also includes a mounting portion including aperture 85 extending therethrough for receiving mounting bolt 102. Second end portion 94 is comprised of an outwardly extending wall 96, which surrounds passageway 95, and an upward extending flange 98 around the periphery of wall 96. Flange 98 includes clinching tines 99 at selected locations around its periphery for securing second end portion 94 to intermediate shell portion 88 in the same manner as flange 86. Flange 98 also includes a mounting portion having aperture 97 extending therethrough for receiving mounting bolt 102. In the embodiment illustrated, intermediate portion 88 includes wall 90 having a substantially rectangular center portion with outwardly directed flanges 92 extending around the entire front and rear peripheries. For ease of manufacturing, intermediate portion 88 is preferably formed from two essentially identical parts, which are secured together. It may, however, be formed as a single unit. Flanges 92 include notches 89 which cooperate with corresponding clinching tines 87, 99 on end shell portions 82, 94 respectively. Flanges 92 include apertures 97 for receiving mounting bolt 102. Portions of shell 81 are assembled by securing respective flanges 86, 98 of end portions 82, 94 onto respective flanges 92 on opposite ends of the intermediate portion 88 by engaging clinching tines 87, 99 of end portions 82, 94 in corresponding notches 89 of intermediate portion 88. Bolts 102 extend through respective apertures 97, 93 and 85 in mating flange portions to secure the adaptor to a ground plane. It is to be understood that other means may be used to secure the shell members together and to mount connector 80 at its desired location. First and second substrate members 108, 112 are disposed laterally in passageway 91 and have apertures 110 and 114 extending therethrough in which are disposed terminal sections 22, 24 respectively. Substrate members 108, 112 provide support for terminal sections 22, 24 and maintain them in the configuration required for engagement with a complementary connector. Substrate members 108, 112 are secured in a spaced relationship by spacer means shown in connector 80 as spacer plates 104, which extend along the top and bottom inner surfaces of intermediate shell portion 88. Depending upon the physical configuration of a connector the spacer means may be a one piece plate, tubular or box member or comprised of two or more members. Spacer plate 104 have upstanding fingers 106 thereon for engagement with internal surfaces 109, 113 of substrate members 108, 112 respectively. Substrate members 108, 112 may be passive or active substrates. When terminal members 20, having components mounted in series therealong are used in combination with at least one active substrate member, filtering as well as wave shaping capabilities can be provided for an electrical connector. In the preferred embodiment, first and second substrate members 108, 112 are planar capacitors having conductive surfaces along outer edges 111, 115 respectively for electrical connection to ground, shown as 124. Planar capacitors are known in the art and are commercially available. Other active substrate members include planar resistive members and transient suppression substrates, such as those disclosed in EP-A-0 211 508. Terminal sections 22 and 24 are electrically connected at 121, preferably by solder or conductive adhesive to conductors on respective substrate members 108, 112. Figures 14 and 15 illustrate schematic circuits that are possible when various components are inserted into the component-receiving apertures of the present invention. These components include resistors, inductors, capacitors, diodes, fuses, and the like. They may be used in various combinations depending upon the amount of filtering or wave shaping desired for the particular terminal. Figures 14A illustrates a typical pi-filter construction having two capacitive substrates and having an inductor in series and two capacitive substrates in parallel. Figure 14B shows the two capacitive substrates in parallel and an inductor and resistor in series, forming what is known in the art as a tuning circuit. Figure 14C again shows the two capacitive substrates in parallel and a resistor and inductor in parallel. Figure 14D shows a substrate having a blocking diode and a capacitive substrate, forming an L-style filter with the diode. Figure 14E illustrates a capacitive substrate in parallel and a blocking diode in series. Figure 14F shows a capacitor and resistor in parallel and an inductor in series to form a simulated termination-style connector. Figure 14G illustrates a second pi-filter construction having two capacitive substrates in parallel and two inductors in series, thus providing greater inductance for the terminal. Figure 14H illustrates a connector having a diode in parallel and a fuse in series, thus protecting premise wiring from large fault currents caused by diode or internal equipment failures. Figure 15 shows electrical schematics for connectors having passive substrate members and various components mounted in the component-receiving apertures. Figures 15A through 15C show respectively, an inductor, a resistor, and a blocking capacitor. Figure 15D shows a resistor and capacitor in series to form what is known as an RC tuning circuit. As can be seen from the various diagrams of Figures 14 and 15, it is also possible to vary the components in individual terminals within the same connector. Figure 4 also shows insulator member 116 having apertures 117 therein for receiving terminal portion 22 and insert means 118 having apertures 119 therein for receiving terminal portions 24. Insulator member 116 and insert means 118 are retained in position in connector 80 by appropriately configured end shell portions 82 and 94. Figure 12 is a cross-section of a connector 180, similar to connector 80 shown in Figures 3 and 4, but having the electrical terminal members 120 of Figure 11. Figure 13 is an alternative embodiment 280 of a connector having dielectric housing means 288, end shell portion 94 and terminal members 220. In this embodiment, first terminal sections 122 are right-angle mounting pins for a printed circuit board (not shown) and second terminal sections 24 are socket members. Since housing member 288 provides support for first terminal sections 122, only second terminal sections 24 need to be supported by a substrate member, 212. Substrate 212 may be active or passive, depending upon the electrical requirements of the connector. In assembling connector 80, as shown in Figures 3 and 4, a subassembly is formed comprising a plurality of terminals 20, first and second substrate members 108, 112 and spacer plates 104. First and second terminal sections 22, 24 and inserted into corresponding apertures 110, 114 in respective substrate members 108, 112. When the substrate members are active, such as planar capacitive elements as in the preferred embodiment, terminal sections 22, 24 are thereby electrically connected to corresponding conductors on their respective substrate members 108, 112. Substrate members 108 and 112 are then brought into alignment against fingers 106 of spacer plates 104 and secured thereto. Spacer plates 104 are also secured to and electrically engaged with respective ground conductors 111, 115 on the ends of capacitive substrates 108, 112. To ensure electrical engagement between terminal sections 22, 24 and the corresponding conductors on substrates 108, 112 respectively, terminal sections 22, 24 are preferably secured in place by solder or conductive epoxy. The subassembly is then placed inside intermediate shell member 88 and spacer plates 104 are electrically connected and preferably secured to the outer shell members with solder or conductive epoxy. To complete the assembly of connector 80, dielectric insulator member 116 is disposed over the first terminal sections and dielectric insert means 118 is disposed over second terminal portions 24 members. Appropriately profiled first and second end shell members 82, 94 are then assembled in place and secured to intermediate shell member 88 by means of clinching tines 87, 99 in flanges 86, 98 and notches 89 in flanges 92. It is to be understood that other means may be used to secure the shell members together. Cavities 83 and 95 in first and second end shell members 82, 94 are suitably profiled to retain insulator member 116 and insert means 118 in connector 80, as can best be seen in Figure 4. The present invention provides a means for accomplishing wave shaping that may be packaged inside an electrical connector package in a cost effective manner. The invention is directed to an electrical terminal member that carries means thereon for mounting one or more active or passive electrical components in series along its circuit path.

Claims: An electrical terminal (20) comprising a body section (26) having terminal sections (22, 24) extending outwardly from each end thereof, said terminal sections (22, 24) being adapted to be electrically connected to complementary conductive means of other respective electrical articles, wherein said body section (26) has at least one component-receiving portion (28) extending therealong, the or each component-receiving portion (28) having a first section (30) and a second section (32) initially integrally joined by a severable section (34); dielectric housing means (50) is secured to said body section (26) and has at least one component-receiving aperture (52) therein associated with the or each component-receiving portion (28), said first and second and severable sections (30, 32, 34) initially being exposed along a bottom surface of the or each aperture (52), and said housing means (50) being adapted to permit severing of the or each severable section (34); said severable section (34) of the or each component-receiving portion (28) has been severed from said first and second sections (30, 32) and electrically disconnected from the associated first and second sections (30, 32); and at least one electrical circuit component (64) having respective first and second contact means (66, 68) is joined to the first and second sections (30, 32) of the or each component-receiving portion 28, whereby the or each electrical component (64) is joined in series along the circuit path of said terminal (20), thus providing means for altering an electrical signal as it passes through said terminal (20). The electrical terminal (20) as claimed in claim 1 wherein said body section (26) includes two component-receiving portions (28, 36), each having first and second sections (30, 38; 32, 40) initially integrally joined by the severable section (34, 42), the second section (32) of the first component-receiving portion (28) being integrally joined to the first section (38) of the second component-receiving portion (36), and said dielectric housing means (50) includes two component-receiving apertures (52, 54), whereby upon severing each severable section (34, 42) respective contact means (66, 68; 72, 74) of two electrical circuit components (64, 70) may be joined in series along the circuit path of said terminal (20). The electrical terminal (20) as claimed in claim 1 or 2, wherein the or each electrical circuit component (64) comprises an inductor, capacitor, resistor, diode, fuse or combination thereof. An electrical connector (80) having disposed therein at least one electrical terminal as claimed in claim 1, 2 or 3. An electrical connector (80) comprising a shell means (81) having a passageway extending therethrough; at least one electrical terminal (20) disposed in said passageway, said terminal comprising a body section (26) having terminal sections (22, 24) extending outwardly from each end thereof, said terminal sections (22, 24) being adapted to being electrically connected to complementary conductive means of other respective electrical articles; and at least one planar substrate means (108) disposed in said passageway, said substrate means (108) having at least one aperture (110) extending therethrough for receiving the or each electrical terminal member (20) therein; wherein said body section (26) of the or each terminal (20) has at least one component-receiving portion (28) extending therealong, the or each component-receiving portion (28) having a first section (30) and a second section (32) initially integrally joined by a severable section (34); dielectric housing means (50) is secured to said body section (26) and has at least one component-receiving aperture (52) therein associated with the or each component-receiving portion (28), said first and second and severable sections (30, 32, 34) initially being exposed along a bottom surface of the or each aperture (52), and said housing means (50) being adapted to permit severing of the or each severable section (34); said severable section (34) of the or each component-receiving portion (28) being severed from said first and second sections (30, 32) and electrically disconnected from the associated first and second sections (30, 32); and at least one electrical circuit component (64) having respective first and second contact means (66, 68) is joined to the first and second sections (30, 32) of the or each component-receiving portion (28), each said component (64) being joined thereby in series along the circuit path of said terminal (20); whereby the or each electrical component (64), which is joined in series along the circuit path of the or each terminal (20), provides means for altering an electrical signal as it passes through the or each terminal (20) in said connector (80). The electrical connector (80) as claimed in claim 5, wherein said body section (26) includes two component-receiving portions (28, 36), each having first and second sections (30, 38; 32, 40) initially integrally joined by the severable section (34, 42), the second section (32) of the first component-receiving portion (28) being integrally joined to the first section (38) of the second component-receiving portion (36), and said dielectric housing means (50) includes two component-receiving apertures (52, 54), whereby upon severing each severable section (34, 42) respective contact means (66, 68; 72, 74) of two electrical circuit components (64, 70) may be joined in series along the circuit path of said terminal (20). The electrical connector (80) as described in claim 5 or 6, wherein the or each electrical circuit component (64) comprises an inductor, capacitor, resistor, diode, fuse or combination thereof. The electrical connector (80) as claimed in claim 5, 6 or 7 wherein the or each substrate member is active and comprises a capacitive, resistive and/or transient suppression substrate. The electrical connector (80) as claimed in claim 5, 6, 7 or 8, including filtering means. A method for making an electrical terminal member (20) having at least one electrical circuit component (64) mounted in series thereon, including forming a metal member into a body section (26) having terminal sections (22, 24) extending outwardly from each end thereof, said terminal sections (22, 24) being adapted to be electrically connected to complementary conductive means of other respective electrical articles, the method comprising the steps of: forming said body section having at least one component-receiving portion (28) having a first section (30) and a second section (32) initially integrally joined by a severable section (34); forming a dielectric housing means (50) secured to said body section (26), said housing means (50) having at least one component-receiving aperture (52) therein associated with the or each component-receiving portion (28), said first and second and severable sections (30, 32, 34) being exposed along a bottom surface of the or each aperture (52), and said housing means (50) being adapted to permit severing of the or each said severable section (34); severing the or each severable section (34), thus electrically disconnecting the associated first and second sections; and joining respective contact means (66, 68) of at least one electrical circuit component (64) to respective first and second sections (30, 32) to achieve an electrical terminal (20) having at least one component (64) joined in series along the circuit path of said terminal (20), thus providing means for altering an electrical signal as it passes through said terminal (20).

Inventors: ULERY, KIRK DAVID
Applicants: THE WHITAKER CORPORATION
Application year: 1988
Main classification: H01R13
IPC codes: H01R13