Abstract: A shielded surface mount connector mounted to a PCB includes a housing, a plurality of terminals and a shelter enclosing the housing. The housing provides a first protruding portion and a second protruding portion. The first and second protruding portions extend downwards respectively to form a first pillar and a second pillar. The shelter provides a first shielding portion and a second shielding portion for covering the first and second protruding portions respectively. The edges of the shielding portions extend downwards respectively to form a first inserting portion and a second inserting portion. As mentioned above, by inserting the first and second pillars and the two inserting portions into the corresponding holes of a PCB, the shielded surface mount connector is mounted to the edge of the PCB, which makes the electronic products much thinner due to the present invention, and saves more space of the PCB for other designs.

Abstract: Various embodiments are provided herein for a connector that can provide electrical and mechanical coupling between first and second objects. The connector generally comprises at least one connecting element that has at least one first and second contact portion, at least one guidance portion located towards the end of the at least one connecting element and adjacent to one of the at least one first and second contact portions; and a biasing portion that is adjacent to the at least one first and second contact portions. The biasing portion is configured to provide an electrical connection between the at least one first and second contact portions and to resiliently move the at least one connecting element from a first position to a second position to provide a mechanical coupling force to the first and second objects.

Abstract: A base connector includes an insulating base housing and a plurality of base contacts retained by the base housing. An anterior wall of the base housing includes a central convex portion which is formed at the center portion in a left-and-right direction of the anterior face of the anterior wall and projects forward, and a pair of concave portions formed on both sides sandwiching the central convex portion therebetween. At least a part of the upper face on the anterior wall including the upper face of the central convex portion is formed as a flat face. The upper face of the anterior wall is provided with a wide portion including the upper face of the central convex portion and being relatively wide in the front-and-rear direction, and a pair of narrow portions relatively narrow in the front-and-rear direction corresponding in position to the pair of concave portions. The wide portion is provided with a flat adsorbed face, which can be adsorbed by an adsorption member.

Abstract: An electrical connector (100) for electrically connecting with a chip module and a printed circuit board comprises a plurality of insulative housings (1), a plurality of contacts received in the insulative housing, and a frame (2) defining an accommodating space (26) to accommodate the insulative housings. The frame defines continuous lateral walls (23) and a plurality of enhancing ribs (24) extending from the lateral walls into the accommodating space. A plurality of first rivet sections (231) are disposed on at least one of the lateral walls of the frame and the insulative housings and a plurality of first mounting holes (16) are defined in at least one of the insulative housings and the lateral walls of the frame to receive the first rivet sections.

Abstract: A card edge connector (100) for receiving a memory card (200) includes an insulative housing (1) and a number of terminals (2) retained therein. The insulative housing (1) includes an elongated base (10) extending along a longitudinal direction thereof and a pair of tower section (18) extending upwardly from opposite ends of the base (10). The base (10) defines a receiving slot (10) for receiving the memory card (200) and two rows of contact receiving channels (111) communicated with the slot (10). Each tower section (18) includes a pair of opposed arms (13) and a cavity (15) located therebetween. The arm (13) has a cantilever type resilient finger (132) formed from an inner wall of the arm (13) and extending downwardly for sandwiching the memory card (200), and a locking projection (131) at an upper portion thereof to engage with a notch (203) of the memory card (200).

Abstract: An electrical connector assembly comprises an insulating housing (1), a plurality of terminals (2) retained in the insulating housing and a picking up section (5) mounted on the insulating housing. Wherein the insulating housing has a base section (10) and an engaging plate (14) extending backwardly from the base section. The picking up section comprises a plurality of elastic clasps (52) engaging with the opposite sides of the engaging plate directly.

Abstract: A portable reader is arranged to read a card. The card is provided with a set of contact areas. The reader is provided with a connector. The connector is provided with a set of contact pads. The portable reader comprises a first and a second holding elements arranged to hold the card so that at least one contact pad of the set contact pads can be connected to at least one contact area of the set of contact areas. At least the one of the holding elements is arranged to be movable.

Abstract: A card connector (100) for receiving a card, includes an insulative housing (10) receiving a number of terminals (20), a shield plate (40) assembled on the insulative housing, and a pair of supporting plates (70). The shield plate includes a pair of lateral walls (42, 43). The lateral walls define an inserting cutout opposite to the insulative housing along a card inserting direction. The supporting plates coupled with corresponding lateral walls of the shield plate, extends beyond the inserting cutout along a direction opposite to the card inserting direction, and each supporting plate forms an engaging portion (77) at the portion beyond the inserting cutout.

Abstract: An IC socket includes a socket body (1) having a plurality of passageways (10) extending obliquely from a mating surface (101) toward a mounting surface (103). At least two terminals (2) are insertable into each of the passageways. Thus, even if the at least two terminals are laterally and obliquely movable with respect to an end of the passageway upon the pressure of the IC package toward the IC socket, effective electrical connection between the IC package and the printed circuit board are also established through the use of the IC socket due to having every two terminals of one passageway employed for electrically mating with a common contact pad of the IC package or a common conductive element (31) of the printed circuit board.

Abstract: The DIP connector of the present invention comprises a housing being provided with a receiving chamber into which a counterpart member being to be fitted, and a contact being fitted in a storing concaved part being concaved from the receiving chamber. The storing concaved part is bounded by a bottom wall, and a first wall and a second wall on both the ends in a width direction and third walls on both sides in a depth direction, of the housing. The bottom wall is provided with a support wall dividing the storing concaved part into a first concaved part and a second concaved part.

Abstract: A circuit board (PCB) and connector design, which provides for better electrical connection between the PCB and its host, especially for when used in high-speed optical systems. The PCB has an electrical flex embedded within it. The flex is connected to electrical component located on the PCB by means of a via at one end and protrudes from the PCB at the other end. The connector has a flex connection means arranged to receive the flex protruding from the PCB.

Abstract: A connector is provided with a male unit having a frontal end that includes an inserting portion having a plurality of troughs and fitting troughs on lateral sides thereof. Each of two clip-on hooks are located inside of a respective fitting trough, and each of the clip-on hooks are formed with a hook portion, an elastic portion, and a pressing portion. A metal partition covers the top of the male unit. A connecting component connects with the insertion portion and includes a female unit, a circuit board, and a plurality of terminals. The female unit has a pair of clip-on openings for respective releasable coupling with the clip-on hooks to fasten the male and female units together.

Abstract: The present invention of a latching device includes a positioning portion and at least one retaining element. The positioning portion has at least one positioning post and at least one receiving groove. The receiving groove passes through the positioning portion and the positioning post. The retaining element is received in the receiving groove. The retaining element has at least one clamping portion. Because the clamping portion of the latching device passes through the hole of the card and buckles the card, the latching device can be disposed on the bottom of the card. Thereby, the object of the embodiment is achieved.

Abstract: A PCB type connector (10) includes a PCB (1), an insulative housing (2), a pair of latch members (3), and a metal shell (4). The PCB (1) includes a top surface and a bottom surface. The top surface has a row of golden fingers (11) locating at the front of the PCB (1), a pair of holes (12) being symmetrical along a central axial of the PCB (1) extending from the top surface to bottom surface, and two pairs of rectangle metal sheets (13) respectively locate at the two opposite sides of the holes (12) of the PCB (1). The insulative housing (2) comprises an elongate body portion (211) and two side portions (212) locating at two sides of the body portion (211). The body portion (211) has a pair of posts (21) extending along a vertical direction corresponding to the holes (12) and two pair of rectangle slots (25) corresponding to the rectangle metal sheet (13). The latch members (3) are locked to the two sides of the insulative housing (2). The metal shell (4) is assembled with the insulative housing (2).

Abstract: An adapter having a housing, a ground clip and an adapter subassembly all located in the housing. The adapter subassembly includes a proximal portion that can be coupled to a coaxial connector and a distal portion that can be coupled to a printed circuit board. A central conductor in the form of an elongated shaft that runs through the subassembly and has a ball contact end for contacting a conductor located on a printed circuit board and the elongated shaft is tapered in a region near the bal contact.

Abstract: A low-profile, insert molded contact block and corresponding printed circuit board assembly are provided for coupling electronic circuitry disposed on printed wiring boards to external electronic devices. The contact block includes a plurality of L-shaped, metal contacts insert molded into a housing. The housing includes bracing members that circumscribe the metal contacts so that at least a portion of the front and rear faces of the metal contacts are exposed between the bracing members. The contact block may be coupled to a printed wiring board in an automated, reflow solder process utilizing automated pick and place equipment. The contact block is placed on the printed wiring board such that the metal contacts are seated on conductive pads with solder paste disposed thereon. The resulting assembly may then be heated in a reflow oven to permanently affix the metal contacts to the conductive pads. The contact block, which can be on the order of 0.

Abstract: Circuit board orientation in a computer system. A system includes a first set of circuit boards and a second set of circuit boards. The first set of circuit boards may be mated via a first and second set of connectors to the second set of circuit boards such that the first set of circuit boards is oriented substantially orthogonal with respect to the second set of circuit boards. Each of the boards may be accessible and hot swappable.

Abstract: A package for being electrically connected to an external printed wiring board and an external electronic device comprises a substrate, a semiconductor chip, a mold compound, and a connector. The substrate is electrically connected to the external printed wiring board. The semiconductor chip is disposed on and electrically connected to the substrate. The molding compound is used for encapsulating the semiconductor chip. The connector is disposed on the substrate for electrically connecting the semiconductor chip to the external electronic device.

Abstract: An adapter having a housing, a ground clip and an adapter subassembly all located in the housing. The adapter subassembly includes a proximal portion that can be coupled to a coaxial connector and a distal portion that can be coupled to a printed circuit board. A central conductor in the form of an elongated shaft that runs through the subassembly and has a ball contact end for contacting a conductor located on a printed circuit board and the elongated shaft is tapered in a region near the bal contact.

Abstract: The present invention provides an electric card fastener with elastic metal cantilever, configured to a circuit board, for fastening an electric card. The electric card fastener is formed by a corresponding mounted base. The mounted base includes a cantilever with a restricted portion disposed along and a mounted portion on the button, connecting with one end of the cantilever. After the connection of the cantilever and the mounted portion, the cantilever is elastic for backward and forward movement. Whereby, the electric card fastener fastens the electric card in a predetermined position for preventing poor electrical connection and strengthening the construction of components of the present invention for improving support ability, and the fastening components are used as a short cut for the grounding circuit on the electric card to connect ground.

Abstract: Contacts are provided wherewith attachment to a board can be made with adequate attachment strength, without requiring soldering, which can be easily removed from the board without causing damage to occur. Parts of wiring rounds 37 positioned at the extreme diagonally lower right point on a printed circuit board 31 are clamped from above and below by the upper portion of a wiring round side contact part W, indicated by solid lines, facing on a slit 39 positioned at the extreme diagonally lower right point in a base 19, and by the lower portion of a wiring round side contact part W indicated by broken lines. The part of the wiring rounds 37 is clamped by the wiring round side contact part W, by spring forces that operate in directions to tighten that part, which spring forces develop in the upper portion and the lower portion of the wiring round side contact part W.

Abstract: A card-edge connector of the present invention includes a card member including a circuit board and a plurality of card-edge electrodes arranged on the circuit board. A connector is affixed to a stationary board and includes a plurality of contacts corresponding one-to-one to the card-edge electrodes. The card member further includes an insulation cover covering an area where the card-edge electrodes are arranged and formed with a plurality of slots via which the card-edge electrodes each are partly exposed to the outside. When the card member is inserted into the connector, the card-edge electrodes and contacts are electrically connected to each other.

Abstract: An electrical connector assembly (1) includes an electrical connector (10) and a module (20). The electrical connector includes an insulative housing (11) defining a mating port (173), a number of contacts (12) received in the insulative housing and exposed into the mating port, and a shield member (13) surrounding the insulative housing. The module includes a daughter card (21) having a mating edge inserted into the mating port of the electrical connector and a number conductive pads (211) arranged on the mating edge and electrically connecting with the contacts, and a shell (22) covering the daughter card and having shield plate (220) electrically connecting with the shield member of the electrical connector.

Abstract: A connector mounting structure includes a connector housing having terminal accommodating chambers, and wire connecting terminals accommodated in the terminal accommodating chambers. The terminals accommodated in the rightmost and leftmost ones of the terminal accommodating chambers are employed as dummy fixing terminals when the connector housing mounted on a printed circuit board. Fixing portions of the dummy fixing terminals are inserted into terminal insertion holes formed in the printed circuit board so that the fixing portions protrude from a rear surface of the printed circuit board. The fixing portions are secured to contacts of the printed circuit board by soldering.

Abstract: A circuit board connector for connecting a disc drive circuit board to a device outside the disc drive includes a circuit board tab forming part of the circuit board and extending from the circuit board tab. Contact pads are formed on the circuit board tab. A housing attached to the circuit board includes a housing tab extending from the housing, the housing tab being substantially parallel and adjacent to the circuit board tab, such that the circuit board tab and the housing tab together form a connecting tab.

Abstract: A spring connector for connecting at least one electrical track of a display screen with an electrical circuit also holds the display screen in position. A flexible metal foil forms a spring and a plastics material film which includes at least one electrical track has substantially the same shape as the metal foil and is fixed to one face of the metal foil. At least one of the tracks of the plastics material film connects tracks of the display screen with the electrical circuit.

Abstract: Contacts are provided wherewith attachment to a board can be made with adequate attachment strength, without requiring soldering, which can be easily removed from the board without causing damage to occur. Parts of wiring rounds 37 positioned at the extreme diagonally lower right point on a printed circuit board 31 are clamped from above and below by the upper portion of a wiring round side contact part W, indicated by solid lines, facing on a slit 39 positioned at the extreme diagonally lower right point in a base 19, and by the lower portion of a wiring round side contact part W indicated by broken lines. The part of the wiring rounds 37 is clamped by the wiring round side contact part W, by spring forces that operate in directions to tighten that part, which spring forces develop in the upper portion and the lower portion of the wiring round side contact part W.

Abstract: A clip connector (A) includes an insulating housing (1) and a plurality of terminals (2) projecting from the housing (1). The housing (1) includes an outer surface (1a) for engaging a support member such as a printed board. The outer surface (1a) is irregular, including a plurality of projecting portions (12) and a plurality of retreating portions (13). Each of the terminals (2) includes a straight portion (20a) and a bent portion (20b). Each of the straight portion (20a) is formed with a through-hole (22) through which a resin for bonding the support member and the outer surface (1a) is applied.

Abstract: Various module structures are disclosed which may be used to implement modules having 1 to N channels. Bus systems may be formed by the interconnection of such modules.

Abstract: Contacts are provided wherewith attachment to a board can be made with adequate attachment strength, without requiring soldering, which can be easily removed from the board without causing damage to occur. Parts of wiring rounds 37 positioned at the extreme diagonally lower right point on a printed circuit board 31 are clamped from above and below by the upper portion of a wiring round side contact part W, indicated by solid lines, facing on a slit 39 positioned at the extreme diagonally lower right point in a base 19, and by the lower portion of a wiring round side contact part W indicated by broken lines. The part of the wiring rounds 37 is clamped by the wiring round side contact part W, by spring forces that operate in directions to tighten that part, which spring forces develop in the upper portion and the lower portion of the wiring round side contact part W.

Abstract: A circuit board connector for connecting a disc drive circuit board to a device outside the disc drive includes a circuit board tab forming part of the circuit board and extending from the circuit board tab. Contact pads are formed on the circuit board tab. A housing attached to the circuit board includes a housing tab extending from the housing, the housing tab being substantially parallel and adjacent to the circuit board tab, such that the circuit board tab and the housing tab together form a connecting tab.

Abstract: An input/output connector adapted for a mobile electric device. The input/output connector includes a connector body and at least one pair of terminals. The connector body is exposed to the outside and having at least one pair of terminal holes. Each terminal hole is provided with an engaging block at a position adjacent to the outside respectively. A contact portion is formed at one end of the terminal, and an engaging portion is formed at the other end. Each engaging portion engages with the engaging block, and the opposing contact portions hold a printed circuit board of the mobile electric device. Therefore, the printed circuit board is capable of electrically communicating with the external electric device.

Abstract: A structure and a circuit of an input/output (I/O) port bar to connect between a computer and a computer peripheral. The structure of the I/O port bar has a laminate, a loop and a sliding member (with a pushing portion, a first protrusion portion and a second protrusion portion). Thus constructed, the connecting cable can be restored to the inside of the I/O port bar. In the circuit of the I/O port bar, a power switching circuit is formed to control whether the power of the main circuit is supplied by an external computer via the connecting cable or directly by an external DC power source.

Abstract: An improved flexible circuit connector that is particularly useful in connections for circuit boards has a housing and a circuit card engaging assembly mounted therein. The circuit card engaging assembly includes at least two contact spring members having a U-shaped portion adjoining a body portion thereof such that when the two contact spring members are brought together at their body portions, a U-shaped channel is formed that supports two lengths of flexible circuity close to the surface and edge of a circuit board inserted into the connector channel.

Abstract: An electrical connector (2) interconnects a first PCB (50) and a second PCB (52) arranged vertical to the first PCB, and includes an insulative housing (4) and a plurality of terminal modules (6). The insulative housing has a top surface (22) and a bottom surface (24) and a cavity (18) defined between the top surface and the bottom surface. Each terminal module is received in the cavity and comprises a first terminal (8) and a second terminal (10). The first terminal has a first limb (28) and a second limb (30), wherein the first limb projects beyond the top surface of the insulative housing for engaging the first board. The second terminal has an engaging portion (44) aligned with the second limb, and the engaging portion and the second limb define a passageway for clamping the second board therebetween.

Abstract: An automatic power docking mechanism for establishing a power connection between a computer electronic subsystem and a power distribution board within a computer chassis is provided. In one embodiment, the power docking mechanism includes power pads electrically coupled to a power distribution board and a housing with slotted openings secured over the power pads. The housing's slotted openings are configured to receive power bus bars from a computer subsystem and hold the bus bars in contact with the power pads.

Abstract: A compact programmable logic controller provides a floating mounting of circuit cards carried by opposed terminal blocks of the industrial controller the latter only which are directly mounted to the housing. Positioning of the cards between opposed connector blocks prevents torsion on the cards resulting from unbalanced forces on the terminal blocks and provides an extremely rigid structure.

Abstract: An electrical card connector (1) includes a top lid (10) and a contact module (12). The top lid comprises a metal cover (100) and a pair of elongated grip arms (101) at opposite sides of the metal cover. Each grip arm is separately formed by insert molding at opposite sides of the cover and includes a rail (106) and a rib (107) projecting from a side of the rail. A pivot (108) is provided at a distal end of the rail and a wedge (109) extends from a forward end of the rail opposite the pivot. The contact module includes an insulative housing (120) and plurality of contacts (121). A pair of shaft lids (114) and a pair of lock portions (129) extend rearwardly and forwardly from rear and front corners of the insulative housing. Each shaft lid has a pivot hole (125) for pivotably engaging with a pivot of the grip arms. In use, an electrical card (2) is inserted into the top lid and the top lid is rotated to a closed position.

Abstract: A semiconductor device including bond pads disposed proximate an edge thereof, and an overcoat layer. The overcoat layer defines notches around each of the bond pads. The overcoat layer may be formed from a photoimageable material such as a photoimageable epoxy. The invention also includes an alignment device that secures the semiconductor device perpendicularly upon a carrier substrate. The alignment device includes intermediate conductive elements which correspond to the bond pads of the semiconductor device. Upon insertion of the semiconductor device into the alignment device, the notches facilitate alignment of the bond pads with their corresponding intermediate conductive elements. The intermediate conductive elements establish an electrical connection between the semiconductor device and the carrier substrate.

Abstract: There is provided a contacting device (1) for chip cards, preferably for SIM cards, comprising a base (2), a slider (12) arranged at the base (2) and being movable with respect to the base (2), the chip card (4) being slidable between an insert/removal position and a reading position by means of said slider, and means (7, 22) for inhibiting removal of the slider from the contacting device (1). Preferably, the slider (12) is slidably mounted to the base (2) and is in abutting engagement with an abutment in the insert/removal position such that the slider (12) cannot be removed from the contacting device (1), i.e. the slider (12) cannot be moved beyond the insert/removal position. Thus, the contacting device does not comprise any loose parts that could get lost.

Abstract: A connector (1) according to the present invention includes a housing (2) and terminal pins (3) mounted on the housing (2) for electrically connecting connection terminals (16) of a circuit board (15) to a conductor pattern of a flat cable (11). The housing (2) is bonded to the circuit board (15) by an adhesive for mechanical connection thereto. The housing (2) has a projection (5) which, together with the circuit board (15), forms a recess (17) for applying an adhesive thereto.

Abstract: A semiconductor device including bond pads disposed proximate an edge thereof, and an overcoat layer. The overcoat layer defines notches around each of the bond pads. The overcoat layer may be formed from a photoimageable material such as a photoimageable epoxy. The invention also includes an alignment device that secures the semiconductor device perpendicularly upon a carrier substrate. The alignment device includes intermediate conductive elements which correspond to the bond pads of the semiconductor device. Upon insertion of the semiconductor device into the alignment device, the notches facilitate alignment of the bond pads with their corresponding intermediate conductive elements. The intermediate conductive elements establish an electrical connection between the semiconductor device and the carrier substrate.

Abstract: A printed circuit card having first and second circuit units mounted thereon in connection to terminal pads adjacent two card edges, with the first and second circuit units being in connection to each other and to select pads of a first edge such that upon insertion of that edge into a given card socket, both circuit units are enabled, and the circuit units also being in connection to the pads of a second edge such that upon insertion of that edge into a second card socket, only the second circuit unit is enabled. In the preferred embodiment, the card is a memory module card having buffer and memory circuit units designed to cooperate with each other and with either of standard, buffered or unbuffered memory card sockets in a system board in accordance with insertion of a first or second pad edge in one of the card sockets to automatically provide, either combined circuit unit operation, or single circuit operation. The invention is also applicable to clocked register circuits and series pass devices.

Abstract: A semiconductor device including bond pads disposed proximate an edge thereof, and an overcoat layer. The overcoat layer defines notches around each of the bond pads. The overcoat layer may be formed from a photoimageable material such as a photoimageable epoxy. The invention also includes an alignment device that secures the semiconductor device perpendicularly upon a carrier substrate. The alignment device includes intermediate conductive elements which correspond to the bond pads of the semiconductor device. Upon insertion of the semiconductor device into the alignment device, the notches facilitate alignment of the bond pads with their corresponding intermediate conductive elements. The intermediate conductive elements establish an electrical connection between the semiconductor device and the carrier substrate.

Abstract: A computer system is described having a chassis, a motherboard coupled to the chassis, the motherboard having at least one PCI (Peripheral Component Interconnect) connector, and a riser board coupled to the at least one PCI connector. When installed, a surface of the riser board having at least one PCI connector is oriented substantially perpendicular to the motherboard. The computer system may also include a bracket connected to the motherboard, that allows the motherboard to be slideably inserted and removed from the chassis.

Abstract: A contact carrier includes an insulating body and contacts positioned therein. Each contact has contact and connection ends projecting beyond the insulating body, and the connection ends of the contacts resting under prestress on corresponding portions of the insulating body, while forming coplanar contact surfaces.

Abstract: An IC card includes a generally rectangular frame. A circuit board assembly is mounted on the frame, with the circuit board assembly including a generally planar dielectric substrate having circuit traces and at least one electrical component mounted thereon. A receptacle connector including terminals is mounted at an edge of the circuit board assembly, with the terminals being adapted to mechanically and electrically engage the circuit traces on the circuit board assembly. Complementary interengaging latches are provided between the frame and the receptable connector for securing the receptacle connector at the edge of the circuit board assembly and for ensuring a mechanical and electrical connection between the terminals and the circuit traces on the circuit board assembly. The invention also contemplates a method of fabricating the IC card according to the above.

Abstract: A line card is provided for a mechanical enclosure unit for an optical network unit. The line card includes a printed circuit board, a mechanical enclosure and a connector element. The mechanical enclosure substantially surrounds and support the printed circuit board. The connector element, which is coupled to provide access to the printed circuit board, is exposed at a surface of the mechanical enclosure. The line card further includes a fastener coupled to the mechanical enclosure. The fastener is adapted to hold the mechanical enclosure on an external support plate of the mechanical enclosure unit of the optical network unit.

Abstract: A circuitized electrical cable having a flat cable having a stripped portion exposing conductors of the cable and having a circuit board mounted to the stripped portion wherein the conductive fingers at a first edge of the circuit board are soldered directly to the correspondingly oriented conductors of the cable. The circuit board may include componentry in order to provide for altered signal transmission of the signal lines of the cable such as for signal line termination. The circuit board may include a second edge having a beam having conductive fingers adhered thereto and the circuit board may be inserted within a housing having a shroud protruding therefrom surrounding the beam in order to provide for a male I/O connector electrically connected to conductors of the electrical cable.

Abstract: A connection scheme for a Programmable Logic Controller is taught. Briefly stated, a printed circuit board having a plurality of electrically conductive traces therein and a plurality of electrically conductive fingers associated with the conductive traces is disclosed. The pitch and size of the conductive fingers coincide with that of a PLC I/O connector. One or more of a plurality of interconnective devices may be connected to the printed circuit board thereby minimizing adverse thermal effects from adjacent thermocouple wires or providing for use of various interconnection devices or signal conditioning such as switches, displays, discrete devices and the like.