3239results about "Connections effected by permanent deformation" patented technology

A window pane has a substrate formed from glass and includes an electrical device including an electrical conductor. An electrical connector is operatively connected to and in electrical communication with the conductor for transferring electrical energy to the conductor. An electrical connector is bonded to the electrical conductor and has a first interacting portion. A terminal is disposed adjacent to the electrical connector and has a second interacting portion for interacting with the first interacting portion to mechanically couple the electrical connector and the terminal. The substrate has a first coefficient of thermal expansion and the connector has a second coefficient of thermal expansion. A difference between the first and second coefficients of thermal expansion is equal to or less than 5×10−6 / ° C. Due to the mechanical coupling between the connector and the terminal, the terminal and connector are less prone to bending, breakage, or delamination than conventional connector structures.

The present invention relates to an electrode catheter for defibrillation, mapping or ablation of cardiac tissue. Said catheter comprises a terminal (40) on the proximal end of the electrode catheter and one or more sensing and / or treatment electrodes (14, 16) that are situated on or in the vicinity of the distal end of the electrode catheter, in addition to at least one electric conductor (44, 62), which is used to electrically connect a respective sensing or treatment electrode to the terminal. The electric conductor (44, 62) is composed of carbon and the electrode catheter is configured to be suitable for us as part of magnetic resonance tomography and for connection to electrophysiotherapy equipment. Said catheter comprises at least one defibrillation electrode, or at least one sensing electrode (14, 16) for the recording and evaluation of cardiac tissue potentials, or at least one treatment electrode (14) for delivering high-frequency currents for ablation purposes.

In a structure 21 for connecting an electric wire and a connecting terminal in the invention, a ductile metal film 29 is formed in advance on an inner surface of a conductor caulking portion 24 of a crimp terminal 22 by such as plating, vacuum deposition, or adhesion. Then, the conductor caulking portion 24 in the rear portion of the crimp terminal 22 is caulked onto core wire portions M in a state of being stripped and extended in the axial direction from an end of a sheathed wire W to thereby establish connection. Subsequently, the metal film 29 is fused on heating. Accordingly, the ductile metal film 29 enters gaps between the inner surface of the conductor caulking portion 24 and the core wire portions M and between adjacent ones of the core wire portions M by the caulking stress. Hence, the area of contact between the conductor caulking portion 24 and the core wire portions M via the metal film 29 increases, and conductivity improves, thereby making it possible to suppress heat generation.

The invention comprises filling a conductive adhesive on a hole end of a wire connection part in tubular shape of the terminal which has an electric contact part at one side and the wire connection part at the other side, inserting an electric wire from a hole opening of the wire connection part toward the hole end, and reducing evenly a size of a tubular wall of the wire connection part, thereby causing the conductive adhesive to infiltrate into a space of the electric contact part or between wires. The invention also comprises tightening the tubular wall of the wire connection part by a rotary swaging process. Further, the conductive adhesive is a nickel paste which is a mixture of nickel powders in a liquid epoxy resin based binder. In addition, at least one of a core wire portion of the electric wire or the terminal is aluminum or aluminum alloy.

PCT No. PCT / DE96 / 01684 Sec. 371 Date Jun. 24, 1998 Sec. 102(e) Date Jun. 24, 1998 PCT Filed Sep. 9, 1996 PCT Pub. No. WO97 / 16867 PCT Pub. Date May 9, 1997To reduce the risk of breakage and yet ensure good electric and thermal conductivity, pull-off strength and long service life of the connection, when connecting a contact element to a conductor (1) by crimping, the inner surface of the crimp section (6), in contact with the conductor (1), is provided with deformations that are grooves (2) and ribs running crosswise and obliquely to the longitudinal axis of the conductor (1).

A terminating device for interconnecting service provider wiring with subscriber wiring includes a base, a customer bridge, a removable cover and insulation displacement contacts for terminating the service provider wiring and the subscriber wiring. The insulation displacement contacts for the subscriber wiring are housed within the customer bridge and terminate the subscriber wiring by moving an actuating arm from a disconnected position to a connected position. The insulation displacement contacts for the service provider wiring terminate the service provider wiring by moving a stuffer from a disconnected position to a connected position. The cover includes a locking slide having a movable clasp for deterring unauthorized access to the customer bridge, while permitting authorized access. A plug on the cover and a jack on the base each have a resilient seal that telescope together to effectively seal test contacts located within the jack when the plug is inserted into the jack.

A coaxial cable connector 1 including a connection terminal (2) to be connected to an internal conductor (34) of a coaxial cable 31 and a metal shell (4) for supporting the connection terminal (2) via an insulating member 3 establishes electrical connection between the internal conductor (34) of the coaxial cable (31) and the connection terminal (2) by bending the connection terminal (2) according to the respective bending forces of the shell (4) and the insulating member (3) and making such connection terminal (2) retain the internal conductor (34) of the coaxial cable (31).

A crimp terminal includes barrel pieces respectively on both of two sides in a width direction thereof. The barrel pieces are included in a pressure-bonding section for pressure-bonding an exposed part of an electric wire conductor of an insulated wire. The insulated wire includes the electric wire conductor and an insulating cover for covering an outer circumference of the electric wire conductor, and the exposed part is a part of the electric wire conductor which is exposed from a tip of the cover by a predetermined length. The barrel pieces have a length in a longitudinal direction which is longer than the length of the exposed part of the electric wire conductor. The pressure-bonding section pressure-bonds, by the barrel pieces, a continuous part from a tip of the electric wire conductor to a position rear to the tip of the cover.

An improved heating element connector assembly includes an insulative, rectangular frame with a central opening and a plurality of conductive terminals which are press fit into openings in the frame. The terminals are spaced apart from each other lengthwise of two opposing sidewalls of the frame, and pairs of terminals are aligned with each other between the two sidewalls. A plurality of conductive strips extend across the frame opening to interconnect the pairs of terminals together. The terminals include compliant pin tail portions for receipt by corresponding holes formed in a circuit board of the assembly and deformable head portions for crimping onto the conductive strips.

An earphone cable structure includes a first connection sleeve, a primary cable, a first branch cable, a second branch cable and a thin-type bridging section. The first connection sleeve includes a first end and a second end. The primary cable is connected to the first end, and includes first core lines and second core lines. The first branch cable is connected to the second end, and includes third core lines connected to the first core lines. The second branch cable is connected to the second end, and includes fourth core lines connected to the second core lines. The axial cross-sectional width of the primary cable is equal to the axial cross-sectional width of the first branch cable plus that of the second branch cable. The thin-type bridging section is connected between the first branch cable and the second branch cable.

A terminal crimping structure onto aluminum electric-wire, for crimping a terminal onto an aluminum electric-wire including: an electrical conductor part comprising numerous strands; and a coating part coated on the . electrical conductor part; wherein the terminal has a wire barrel to be crimped onto the electrical conductor part of the aluminum electric-wire; and wherein the compressed ratio of the aluminum electric-wire's conductor part by the wire barrel is within a range of 50 to 70%, in terms of the ratio of (cross-sectional area of aluminum electric-wire's conductor part at crimped portion) / (cross-sectional area of aluminum electric-wire's conductor part before crimping).

A method of connecting a terminal fitting and an electric wire, includes the steps of: providing a terminal fitting; providing an electric wire in which a core wire is covered with an insulating sheath; providing a conductive connecting member formed with an insertion hole; inserting the electric wire into the insertion hole of the connecting member; compressing the connecting member radially inwardly so as to caulk an inserted portion of the electric wire uniformly over a whole periphery thereof; and welding the connecting member and the terminal fitting by applying ultrasonic wave.

After bringing a conductor of an electric wire into press contact to connect with a wire caulking portion of a connection terminal, the conductor and the wire caulking portion are welded to connect by irradiating laser beam to a bottom wall of the wire caulking portion. Laser irradiation is carried out intermittently by three times and the laser irradiation at the second time and thereafter which is carried out later is carried out such that during a time period in which a laser welded portion immediately previously is brought into a predetermined state of elevating temperature, portions or welded regions overlap welded regions in laser irradiation irradiated previously.

The invention relates to a power transmission line repairing robot and particularly relates to a broken strand crimping work robot mechanism of a super-high-voltage power transmission line. The broken strand crimping work robot mechanism comprises a front line stroking device, a front walking clamping mechanism, a front arm, an electrical equipment box body, a crimping arm, a rear arm, a rear walking clamping mechanism and a rear line stroking device, wherein one ends of the front arm and the rear arm are respectively and fixedly connected to the electrical equipment box body and the other ends of the front arm and the rear arm are hinged with the front walking clamping mechanism and the rear walking clamping mechanism; the front line stroking device and the rear line stroking device are respectively arranged on the outer sides of the front walking clamping mechanism and the rear walking clamping mechanism; one end of the crimping arm is fixedly connected with the electrical equipment box body; and the other end of the crimping arm is a crimping end and is located between the front walking clamping mechanism and the rear walking clamping mechanism. The broken strand crimping work robot mechanism has the advantages of large climbing angle, good safety protection, short obstacle crossing time, simple obstacle crossing process, simple and efficient line stroking process, small abrasion on the line and good broken strand crimping effect, improves the personal safety, reduces the labor intensity of staff and improves the efficiency.

An electric wire with terminal connector including an electric wire having a core wire including a plurality of wires and a female terminal connector including a wire barrel that is crimped onto the core wire exposed from the electric wire, the following steps are executed. The steps include a step of removing wire insulation covering an outer peripheral surface of the core wire to expose the core wire, a step of holding the exposed core wire with jigs provided in a pair and applying ultrasonic vibration to the core wire via the jigs, and a step of crimping the wire barrel so as to surround a part of the core wire to which the ultrasonic vibration is applied.

A cable arm for a computer system includes a first leg, a second leg hingedly joined to the first leg, and an enclosure flange hingedly joined to the second leg. The cable arm further includes a rack flange, hingedly joined to the first leg, capable of being attached to a rack for holding the computer system, an enclosure bracket capable of being attached to the computer system and capable of being attached to the enclosure flange, and a hook, extending from the second leg, capable retaining a cable attached to the computer system.

A shielded electric cable assembly comprises a shielded electric cable and a shielded electric connector that has an inner terminal, an insulator and an outer shielding terminal. The inner terminal has an attachment portion that is supported on a projecting anvil of the insulator that is disposed in an intermediate bay of the outer shielding terminal. The bay has an opening for a crimp tool that crimps the attachment portion of the inner terminal onto an exposed end of a conductive core of the shielded electric cable. The intermediate bay is closed by side wall flaps of the intermediate bay or by a closure shell. The crimp tool that may be part of the insulator.

A one piece integral electrical terminal has a mount portion and a wire receiving portion. The wire receiving portion has a continuous annular interior wall having a contact portion with an integral oxide breaker especially suited to breaking through the oxide layer on aluminum wire. The wire receiving portion also has a sealing portion with at least one integral seal ring. An electrical cable is made by crimping the electrical terminal to an aluminum wire using a modified hexagonal crimp.