Abstract: A system and method for reducing rotor loads in a wind turbine that includes a brake and one or more rotor blades coupled to a rotor. Upon detection of a loss of counter torque and a blade-pitch failure in at least one rotor blade, a processor reduces a generator overspeed threshold value by a predetermined amount and determines a brake-release threshold value. The brake is applied to slow the rotor if the generator/rotor speed exceeds the reduced generator/rotor overspeed threshold value. In addition, the brake is applied to slow the rotor until the generator/rotor speed is below the brake-release threshold value. The rate of change of the pitch angle of the rotor blade may be varied as the blade moves toward feather in response to the detected blade-pitch failure.

Abstract: This invention provides a nacelle of a wind energy converter and a corresponding mounting method of a nacelle of a wind energy converter and a generator for a wind energy converter. The nacelle includes a main frame; a generator including a stator and a rotor; a generator housing attached to the main frame and at least partially enclosing the stator and a rotor space; wherein the generator housing (20; 20?) has a first and second side face (S1, S2); wherein the first side face (S1) of the generator housing (20; 20?) exposes the rotor space (21); and a flange rotatably supported on the main frame and having a first end which is connected to the rotor; wherein the rotor extends into the rotor space (25) from the first side face (S1) without being supported in the generator housing.

Abstract: An output voltage controller for an AC vehicle generator is proposed. The output voltage controller can easily suppress variation in rectified output voltage due to a switching surge without using a slope generation circuit in a voltage adjustment circuit. An excitation circuit that excites a field coil 13 includes a circulation element 31, a semiconductor switch element 33, an inductor 35, and transient voltage absorption means 40. The circulation element 31 is connected in parallel to the field coil 13. The semiconductor switch element 33 is connected in series with the field coil 13 and turned on and off by a voltage adjustment circuit 60. The inductor 35 is connected in series with the field coil 13 and the semiconductor switch element 33. The transient voltage absorption means 40 absorbs a transient voltage generated in the inductor 35 in association with the switching of the semiconductor switch element 33 between ON and OFF.

Abstract: A conductive contact includes a first contacting element that is brought into contact with one of different circuitries; a second contacting element that is brought into contact with another one of the different circuitries; a resilient element that is interposed between the first contacting element and the second contacting element to be expandable and contractible in a longitudinal direction; a first connecting element that connects the resilient element and the first contacting element; and a second connecting element that connects the resilient element and the second contacting element, and has an opening penetrating therethrough in a through-thickness direction. At least a portion of the resilient element is shorter than the first connecting element and the second connecting element in a width direction perpendicular to the longitudinal direction and the through-thickness direction.

Abstract: A grounding electrical connector includes: an inner sleeve, a front end of the inner sleeve having an outer flange, an annular groove being formed on an inner circumference of the outer flange; an outer sleeve coaxially positioned around the inner sleeve; a nut formed with an inner threaded section for locking with a threaded interface connector of an electronic device, the nut further having a receptacle for receiving the outer flange of the inner sleeve therein; and a conductive grounding spring mounted in the annular groove of the inner sleeve and having multiple inner resilient concave sections. When the threaded section of the nut is screwed onto the threaded interface connector of the electronic device, the inner resilient concave sections of the conductive grounding spring are mechanically and electrically connected with a circumference of the threaded interface connector.

Abstract: In a coaxial plug-connector part with a cap nut, which is disposed rotatably and in an axial force-fit manner on the outer-conductor and which can be screw-connected, in order to generate the contact pressure between the outer-conductor butting contact surfaces of the plug connector, with an external thread of the counter plug-connector part, the frictional torque of the axial force-fit between the cap nut and the outer-conductor is selected to be smaller than the frictional torque between the outer-conductor butting contact surfaces of the plug connector.

Abstract: There is provided a lever-type connector capable of preventing the dropping off from an inner housing from an outer housing to remain at a mating connector side, when the lever-type connector is separated from the mating connector. A lever-type connector is provided with an inner housing, an outer housing that is attached to the inner housing and that prevents the separation of a second seal; sliders that are received in slider receiving slots to move slidably and that have cam grooves into which cam pins arranged at the mating connector are inserted; and a lever that is provided at the outer housing to be movable and that slides the sliders. When the lever-type connector is separated from the mating connector, the sliders pull the inner housing in a direction away from the mating connector.

Abstract: Active clamping of an electronic device such as a power strip to the edge of a desk, table, or board featuring at least one force-redirecting mechanism comprising one, two, four, or more moving parts and biasing mechanisms that bias the moving parts into contact with the edge, such that a frictional force increases a clamping force to resist removal of the device from the edge. Different embodiments feature a roller, a ramp, and springs, or cams and springs. In some embodiments, one or two arms project from a housing of the device, which define or form a void configured to engage the edge, and, in certain embodiments, one of the arms has a pivot mount and a release mechanism, or a rotatable knob and clamp. Various embodiments feature a housing containing electronic components such as surge suppression components, power receptacles, a cord, a status indicator, pins, and elastomeric surfaces.

Abstract: A cable connector comprising having a housing with an opening for receiving an end of a flat cable therein. The housing also has a plurality of terminal recesses, and a plurality of conductive terminals disposed in the recesses for connecting to conductive leads of the flat cable. The terminals are provided with solder connecting portions for adhering to conductive pads by soldering, and contact portions for contacting the flat cable conductive leads. The terminals recesses are at least partly defined by terminal holding walls confronting external surfaces of the terminals received therein, by broad width portions, and a cut-away portions formed between parts in the terminals holding walls, the parts facing the terminal solder connecting portions and contact portions, respectively.

Abstract: An electrical connector includes a plug (20) and a socket (40). The plug (20) and the socket (40) have identical numbers of at least two plug contacts (201 to 208) and at least two socket contacts (401 to 408). At least two of the plug contacts (201 to 208) and at least two of the socket contacts (401 to 408) are conductively connected.

Abstract: A lever-type connector having a housing that includes a contact receiving area, a slider receiving slot, a slider, a wire cover, an outlet, a lever provided with a connector and being rotatably and detachably disposed on the housing and the cover to slide the slider; a pair of arms that extend from both ends of the connector, and a pair of wall portions arranged at the pivotal end of the arms of the lever. The wall portions extend from a pivotal end of the arms, respectively, and oppose each other at end edges of the wall portions, respectively. The outlet arranged at the wire cover has a width set greater than a width of a contact receiving area in the housing.

Abstract: A device for interfacing power from an electrical supply having power terminals, that permits implementation of a wide range of power cord lengths and voltage connection combinations. The device includes a body having a cord side and an appliance side. The body has four or more terminals located on the cord side of the body, with one terminal being a ground terminal. At least one electrical connecting device is adapted to connect terminals. In a first configuration, the device is used at a lower voltage. In a second configuration, the device is used at a higher voltage.

Abstract: An electrical connector (1) comprises an insulative housing (2), a plurality terminals received in the housing (2), a stiffener (3) engaged with the housing (2), a clip (5) and a lever (4) pivotably mounted on two opposite sides of the stiffener (3). The lever (4) comprises a pair of locating portions (424) pivotably received in the stiffener (3), an offset actuating portion (422) between the locating portions (424), and an operating portion (43) extending upward and frontward from an end of the locating portions (424) and bent far away from the housing (2).

Abstract: An electrical connector element for connection of a conductor to a circuit board, having a housing, at least one clamp connector for the conductor and at least two connector pins for preferably soldered connection to the circuit board, is disclosed. The housing has at least one separating element made from insulating material, projecting from the lower side, facing away from the circuit board in the assembled position, at least partly arranged between the connector pins and extending through the circuit board in the assembled position, in order to permit the connector pins of the electrical connector element to be arranged closer together.

Abstract: An electrical connector includes a housing, a seat body, a terminal group, a printed circuit board, and a cover. The housing has a hollow body. The seat body is disposed in the housing. The terminal group is disposed on the seat body. An end of the terminal group electrically connects with the printed circuit board. The printed circuit board electrically connects with a microprocessor. The cover covers a bottom portion of the seat body. Pins of the printed circuit board passes through the cover and electrically connects with a main board of an electronic device, making the microprocessor able to calculate or control the electronic device to execute different functions and operations.

Abstract: It is an object to provide electrical equipment eliminating the need to change the diameter of wires, and capable of improving assembly workability. Vehicle-mounted camera equipment includes a circuit substrate having a substrate connector, and a camera housing. An inside connector section which is connected to the substrate connector is provided integrally on an inner surface side of the camera housing, and an outside connector section which is connected to an external connector provided at the end of an external harness is provided integrally on an outer surface side of the camera housing. Connector terminals of the inside connector section and connector terminals of the outside connector section are connected by connecting conductors, respectively, which are provided to be buried in the camera housing. The connector terminals, and the connecting conductors are made of a single conductive material.

Abstract: A press-fit terminal is adapted to be press-fitted in an through-hole of board for electrically conducting with the press-fit terminal. The press-fit terminal includes a terminal-base portion and a board inserting portion at least partially plated with tin. A thickness of the plated tin is from 0.1 to 0.8 ?m.

Abstract: A connector system for a vehicle antenna is a system by joining a fixed connector having legs connected to a terminal of the vehicle antenna, with a movable connector that is removably connected to the fixed connector and has a cable connected to a signal receiving apparatus. A first slide mechanism is located on the fixed connector, extended along a surface where the legs touch, and the second slide mechanism, able to be fitted in the slide mechanism on the fixed connector, is located on the movable connector. By sliding the first slide mechanism and the second slide mechanism to be fitted in each other, the movable connector can be joined to the fixed connector along the surface where the connector system is installed.

Abstract: A server with an improved connecting port is provided. The server comprises a casing, a fastening module and a connecting port. The fastening module is disposed in an internal receiving space of the casing and further comprises a fastening base plate with a first through hole, a first fastening plate with a second through hole, and a second fastening plate with a third through hole. The connecting port has two ends connected to two engaging wings, respectively. The connecting port is inserted into the first through hole, the second through hole, and the third through hole. The engaging wings are embedded in the second through hole and held by and between the fastening base plate and the second fastening plate.

Abstract: An electrical wall outlet comprises an insulating cover portion, LEDs, a pair of magnetic electrodes, and insulating pads. The insulating cover portion encloses outlet electrodes of the wall outlet. The one or more outlet electrodes are ferrous. The LEDs are disposed on the front surface of the insulating cover portion. The pair of magnetic electrodes are disposed on the rear surface of the insulating cover portion, extending from a pair of common terminals of the LEDs that are disposed on the insulating cover portion, toward to one of the one or more outlet electrodes of the electrical wall outlet. The pair of magnetic electrodes are flexible to bend. Also, the pair of magnetic electrodes are resilient to recover when the insulating cover portion is plucked out. The insulating pads keeps the magnetic electrodes from touching parts other than the electrodes of wall outlet.