914results about "Vehicle fittings for lifting" patented technology

a system 100 that facilitates determining a user's intent given a user search query comprises a search engine that is employed to search over a collection of objects within a data store to retrieve a user search result set. The objects within the result set are associated with queries that were previously utilized to locate such objects. A level of relatedness between the previous queries and the user search query is determined, and previous queries that are associated with a result set that is novel and related to the user search result set are returned to the user.

A transportable utility carrier apparatus for coupling to a transport vehicle, including an upper frame, a recessed platform connected to the upper frame, a wheeled base, a lift system interposed between the base and the upper frame for moving the wheeled base relative to the platform between a transport position and a freestanding position, a square hitch tube connected to the upper frame, and a rollered receiver hitch mountable to the transport vehicle. The wheels are spaced from the ground in the transport position. The square hitch tube is receivable within the rollered receiver hitch and the rollered receiver hitch eases insertion of the square hitch tube thereinto to prevent binding on unleveled ground.

A system and method for remotely controlling loading dock components is disclosed that includes a distribution center having at least one dock station for exchanging materials and a dock component configured to in at least two operational states. An actuator is included that is configured to change the operational state of the dock component in response to an activation signal. A mobile remote control is configured to generate the activation signal to cause the actuator to change the operational state of the dock component and at least one predefined non-activation zone is included such that changing of operational state of the dock component is inhibited when the mobile remote control is located within the at least one predefined non-activation zone.

A permanently mounted pneumatic jack (jacklift) system for motor vehicles, as well as an impact wrench for removing and installing lug nuts. The system provides a quick and safe means of lifting one or more tires off the ground for replacement of a spare or rotating the tires on a motor vehicle. The present invention comprises two or more (typically four) pneumatic jacks, a system ON/OFF switch, an air compressor, a 120-psi air tank, air lines (hoses), individual jack extend/retract switches, jack position-locking pins, safety-locking pins, and impact wrench. Each jack can be locked in a horizontal stowaway or vertical operational position. The jack is cylindrical shaped with a telescopic body that can be extended or retracted as needed to raise and lower the vehicle. A solid cylindrical lift rod slides inside a cylindrical outer housing with a high-pressure seal means used to maintain pressure on the support rod. A ground support foot (plate) is mounted on the lower end of the solid cylindrical lift rod to provide sufficient traction with the ground to support the lifting process. A quick release air coupler is included on the pneumatic chamber to support the use of an air hose and impact wrench. An extend/retract toggle switch is included on each jack to control a solenoid valve to allow the air to flow into the jack. A quick release safety-locking pin is used to mechanically pin the solid cylindrical lift rod to the outer housing once the desired height is achieved to assure that the vehicle does not fall down in the event of a high-pressure air loss, thereby providing safety to the person(s) working around the vehicle. An air compressor located in the engine compartment of the vehicle is mechanically belt-driven off the engine. A high-pressure air line carries the air to a high-pressure (at least 120-psi) air tank located in the trunk or other suitable storage area on the vehicle. Separate air lines extend from the air tank to the individual jacks.

A power trailer support structure and leveling system continuously monitors the levelness a trailer containing the machinery train of a mobile power system. The invention can level the power trailer automatically while the gas turbine and electrical generator in the trailer are shut down, and can monitor and provide alarm and shut down protection when the gas turbine and electrical generator are operating. The invention includes a plurality of jacks and level sensors mounted to a power trailer, a programmable logic controller interconnected with the jacks and level sensors, and an interface for displaying jack positions and the output of the level sensors. A plurality of actuator mechanisms provide for automatic and manual control and a plurality of power systems between the actuator mechanisms and the jacks extend and retract the jacks in response to operation of the actuator mechanisms.

Systems and methods for a vehicle mounted articulator are described. A vehicle conveniently allows an articulator to be moved to various remote work sites. In one embodiment, the articulator can be mounted on a movable base, thereby increasing the flexibility of use and/or reach of the articulator. Such vehicle-mounted articulators can be subjected to various potentially damaging situations due to motion of the vehicle. Various features that allow safe operation of the vehicle and the articulator are disclosed.

A pseudo four-leg leveling system for a vehicle, such as a recreational vehicle or the like, includes four jacks in the form of hydraulic cylinders mounted in pairs at the front and rear of the vehicle. A power system supplies hydraulic fluid to extend and retract the jacks thereby adjusting the attitude of the vehicle relative to level. The front two jacks are driven in parallel and the rear jacks are driven separately and independent of the front jacks. When the power system is de-energized the front jacks are hydraulically isolated to improve the stability of the system when static. Pressure operated valves automatically control the isolation of the jacks driven in parallel, as well as return passage to the tank, without the need for additional electronically controlled valves.

The utility model relates to the technical field of automobile parts, in particular to an automobile self-rescue unit for an automobile to get rid of an accident or turn around in situ when the automobile gets stuck. According to the technical scheme, the automobile self-rescue unit comprises a fixing mechanism, a lifting mechanism and a supporting mechanism, wherein the lifting mechanism is particularly a hydraulic lifting device, and a hydraulic cylinder of the hydraulic lifting device is connected with the fixing mechanism via a bearing capable of allowing the hydraulic cylinder to rotate correspondingly; a lifting rod of the hydraulic lifting device rises from the top end thereof to be fixedly connected with the supporting mechanism; the supporting mechanism is propped against the ground to jack up the automobile; and the lifting rod rotates relative to the hydraulic unit body, so that the wheel can be deviated from the upper part of a pit, and then the automobile can be put down. Accordingly, the automobile self-rescue unit saves the trouble in manually pushing or pulling the automobile and is fast, convenient and practical; a lifting jack is not required for jacking up the automobile and replacing the tires; and the automobile self-rescue unit can effectively prevent the fatigue and contraction of the shock absorption system, turn the automobile around in situ by 180-degree rotation and protect the chassis of the automobile.

A mobile base assembly wherein a plurality of wheels 12 are attached to a frame 14 for movably supporting the frame 14 on a support surface 16 and an anchor mechanism 10 lifts the wheels 12 from the support surface 16 and anchors the frame 14 to the support surface 16. A pair of spaced plates (20 or 22) are attached to the frame 14 and an anchor member 34 is pivotally mounted between the plates (20 or 22) for pivotal movement between an anchor position (FIG. 4) and a retracted position (FIG. 3). A lever 70 is pivotally mounted between the plates (20 or 22) and presents a cam 72 for engaging and pivoting the anchor member 34 against the biasing reaction of a spring 60 from the retracted position to the anchor position. A foot 40 is attached to a foot flange extending from the anchor member 34 and has a base 42 for engaging the support surface 16 in the anchor position.

The invention discloses a mobile engineering machine and a control system of a support leg thereof. The control system of the support leg of the mobile engineering machine comprises a controller, a horizontal detection device and multiple hydraulic control devices, wherein the horizontal detection device acquires an inclination angle of the mobile engineering machine; multiple support leg oil cylinders are connected with a main hydraulic source through one hydraulic control device respectively; and the controller controls the hydraulic control devices according to the inclination angle of themobile engineering machine. The controller can determine the state of the mobile engineering machine and can enable the support leg oil cylinders to stretch/retract synchronously and enable some of the support leg oil cylinders to stretch or retract so as to perform leveling operation. By using the control system, dependence on the personal experience and field observation and judgment ability ofoperators can be get rid of, and the state transition of the mobile engineering machine can be implemented while the safety of the mobile engineering machine is ensured, thus the control operation efficiency can be greatly improved.

A support strut for mobile working machines, especially for mobile concrete pumps. The support strut (20) has a strut body (38) that can be pivoted around a vertical pivoting axis (32) on a chassis (10), a telescopic part (40), a dual-acting hydraulic cylinder (42) (38) and the telescopic part (40), in addition to a foot part (26) that. Both ends of the telescopic hydraulic cylinder (42) are fixed on fixing points (46, 50) in the area of the opposite ends of the body of the strut (39/8) and the telescopic part (40). The vertical pivoting axis (32) is defined by a divided bearing or journal location arranged at an axial distance (S) from the inboard fixing point (46) in the direction of the foot part on the body of the boom (38), said location being positioned in such a way that it transects the displacement axis (52) of the hydraulic cylinder (42) transversely.

A standing wheelchair device includes a wheeled base for enabling the device to move on a supporting surface. A harness assembly includes a plurality of braces for attaching to parts of a body of a user of the device, at least some adjacent braces of being connected by joints. A lifting unit mounted on the base, supports a hip joint of the harness assembly, and is configured to raise or lower the hip joint. When the user is attached to the harness assembly and is in a sitting position, raising a height of the hip joint causes the user to assume a standing position. When the when the user is attached to the harness assembly and is in a standing position, lowering the hip joint causes the user to assume a sitting or reclining position.

A semitrailer antitheft system is described for use with a semitrailer landing gear of the type having a housing-enclosed gear train coupled to a telescoping lower strut. The antitheft system includes a non-rotatable shaft-mounted gear segment for engaging the gear on the stationary shaft of the existing gear train, thereby preventing unauthorized raising or lowering of the telescoping lower strut. A lock is provided on one end of the non-rotatable shaft to prevent unauthorized disengagement of the gear segment from the gear train. The antitheft system may be incorporated into an existing housing, if room permits, or the housing may be modified so as to provide for incorporation. Alternatively, the antitheft system may be provided as an add-on kit to be attached to the existing housing.

A landing gear assembly for a semitrailer includes a pair of legs that may be simultaneously raised or lowered by turning a single crank. Each of the legs is configured to be able to be mounted in either an inboard or outboard configuration. This is achieved by providing both sides of each leg with no protrusions that extend beyond the space provided in the mounting bracket and the mounting hole used to connect the landing gear to the semitrailer. The gear assembly of the landing gear includes a unique floor base that receives and supports the input shaft. A cover is used to support the input ends of the input shaft and the output shaft. The cover is connected to the input side of the upper tube of the leg and allows the gear assembly to be easily assembled within the perimeter of the upper leg.

A trailer landing gear drive system in which pneumatic, hydraulic and electric motors, as well as the traditional hand crank, are easily interchangeable. The landing gear jack mechanism is disposed to easily connect to any one of these drive motors. The system can utilize any one of the three motor combinations without making any change to the jack itself. Each drive motor output shaft is keyed to connect to the input shaft driving the worm gear of the jack. The output shaft of each type of motor is keyed the same so that the motors are swappable with respect to the input shaft of the landing gear. The hand crank shaft is also keyed to be the same as the keyed motor output shafts. Each motor may include a flange to permit it to be secured to the landing gear. The system eliminates the gear reduction box and replaced it with a worm gear. Furthermore, the system can be operated remotely so that the operator need not be exposed to the perils of weather, a shifting load, other vehicles in the vicinity or other similar hazards.

A self-leveling and balancing vehicle composed of a base and a moving and driving mechanism installed on the base, the mechanism having two longitudinal moving seats installed on the guiding rails fixed on the base, a connecting frame extending to and connecting the two moving seats, and two sector gears installed on the two moving seats. A driving motor and a sensor are installed on the connecting frame, two level driving gears installed on two ends of the driving shaft and engaged with the two sector gears, a balance gear box installed on the driving shaft and having an output shaft extending to the connecting frame, and two driven gears installed on two ends of the output shaft and engaged with the racks fixed on the base.

An actuation mechanism is used with the deployment apparatus mounting a running board on an automotive vehicle for laterally outward movement to increase rollover resistance for the vehicle. The actuation mechanism includes a cup with a hollow tube attached thereto to provide a path for the movement of a ball from the cup into engagement with the latching mechanism on the deployment apparatus. The ball is retained within the cup member until the actuation mechanism and the automotive vehicle to which it is mounted tilts to a minimum roll angle, whereupon the ball is released to roll down the hollow tube into engagement with the latching mechanism of the deployment apparatus. In one embodiment, a single cup with a pair of laterally extending tubes directs the ball to the deployment apparatus that requires actuation. In other embodiments, a separate actuation mechanism is provided for each respective deployment apparatus.

The invention discloses an intelligent anti-rollover control system for an oil tank truck and a use method. The intelligent anti-rollover control system comprises a truck frame, a tank body, multi-dimensional pneumatic pressing plate adjusting devices, a combined pressing plate, annular gravity center adjusting devices, six-dimensional posture adjusting bionic wheel legs, a central control unit, a tank body gravity center controller and tank truck sensors. The use method is mainly characterized as follows: the central processing unit performs coordination control on the tank body gravity center controller and a wheel leg posture adjusting controller; the tank body gravity center controller performs coordination control on a pressing plate adjusting controller, a pressing plate controller and an annular gravity center adjusting controller; the wheel leg posture adjusting controller performs six-dimensional posture adjusting on the six-dimensional posture adjusting bionic wheel legs. The intelligent anti-rollover control system can realize real-time online monitoring and control of the gravity center of a chassis of the oil tank truck and the gravity center of the tank body of the oil tank truck, prevent rollover when the oil tank truck is disturbed by the bad road surface and the outside in a high-speed running state and remarkably improve the running stability, safety and the anti-rollover capacity of the oil tank truck.

A mechanical jack that is used with trailers that has a functional combination of several working gears as well as a drop leg feature is disclosed. The mechanical jack has a gearbox having gears that not only have the capacity to handle a relatively heavy load, but also have the ability to handle small and midsize loads while maintaining sufficient and commercially acceptable cranking speeds without excessive force required. The jack includes a crank or handle for use with the mechanical jack that assists in both effective raising and lowering of the jack, as well as efficient transition from one working gear to another. The crank provides an efficient way to change from one operating gear of the jack to another, and facilitates operator use of the mechanical jack to which it is connected, in order to provide improved cranking and improved changing of one operating gear to another. The invention facilitates multiple working speeds and a drop leg speed to create a commercially valuable selection of working gear ratios and mechanical jack load capacities in a trailer (e.g., gooseneck, flatbed, etc.) operating environment.

A motorcycle includes at least a first auxiliary member mounted on a body of the motorcycle for contacting a road and providing assistance to the motorcycle body to support itself, when necessary, and a second auxiliary member mounted on the motorcycle body, wherein the second auxiliary member is inflatable, in order to contact the road to support the motorcycle body, in addition to the first auxiliary member.

An inclination-measuring apparatus for use with a motor vehicle includes a rotary sensor connected to the motor vehicle, the rotary sensor selected from one of a rotary position sensor and a rotary angle sensor, a pendulum and a controller. The pendulum has a pendulous mass being oriented to hang substantially aligned with the earth's gravitational forces. The movement of the pendulum providing an input to the rotary sensor to generate a signal to ascertain the inclination of the vehicle relative to the earth's gravitational forces. The signal is processed by the controller that is operatively connected to control one of an electric park brake, a chassis leveling device while parked, a lateral inclination device while the vehicle is operational and a longitudinal inclination device while the vehicle is operational.

The invention relates to a mobile type large air control secondary radar, and belongs to the technical field of air control secondary radars. The mobile type large air control secondary radar comprises a transport platform and support assemblies; a large secondary radar antenna is arranged on the transport platform in a rotatable manner, and a square electronic equipment cabinet for controlling the antenna is arranged on one side of the antenna; each support assembly of a planar hinged connecting rod structure is formed by hinging a hydraulic cylinder, an upper support arm and a lower support arm one by one; one corner end of the upper support arm and the wall of the hydraulic cylinder are hinged to the upper surface of the transport platform, a piston rod end of the hydraulic cylinder is hinged to one sidewall of the upper support arm, the lower support arm includes an overhung arm body, and hinging axes of the hinged portions are in parallel with one another; and the secondary radar further comprises servo locking assemblies. According to the invention, the transport mobility is very high during movement, and the requirement for highly smooth working environment in the working state can be met.

The invention provides a method and a system for automatic table supporting leg leveling control, and leveling equipment with the system for automatic table supporting leg leveling control. Inclination angles formed by a target plane and two coordinate axes of a parallelogram which is formed by intersection points of supporting legs with a table plane are detected, and retracting speed of the supporting legs is controlled during leveling according to the size of the inclination angles, so that stability and accuracy of the whole leveling process can be guaranteed while quickness in leveling is guaranteed, and table leveling efficiency is greatly improved.

A stabilizing leg apparatus for stabilizing a trailer during the loading or unloading of goods transported by the trailer is provided. The trailer includes a transport container and a wheel assembly coupled to the transport container. The transport container has a front end, a rear end, and an underside having a width extending between a first side and a second side of the container. The wheel assembly is located between a lengthwise midpoint of the container and the rear end of the transport container. The stabilizing leg apparatus includes at least one stabilizing leg and a drive mechanism. The stabilizing leg is mounted adjacent the rear end of the transport container and is selectively operable between a transport position wherein the stabilizing leg does not contact ground and a stabilizing position wherein the stabilizing leg does contact ground. The drive mechanism is configured to move the stabilizing leg from the transport position to the stabilizing position.

Disclosed is an automotive road construction engine (1), particularly a recycler or a cold stripping machine, comprising an engine frame (4) that is supported by a chassis (2), a working roller (6) which is stationarily or pivotally mounted on the engine frame (4) and is used for machining a ground surface or road surface (24). The chassis (2) is provided with wheels (10) or tracked running gears which are connected to the engine frame (4) via lifting column (14) and are vertically adjustable relative to the engine frame (4). The lifting columns (14) are composed of two hollow cylinders (13, 15) that can be inserted into each other, are used as a guiding unit, and preferably coaxially accommodate at least one piston-cylinder unit (16) therein for vertical adjustment purposes. Each individually vertically adjustable lifting column (14) is equipped with a device (18) for measuring the actual vertical state of the lifting column (14). Said measuring device (18) is coupled to lifting column (14) elements that can be adjusted relative to each other according to the vertical position in such a way that the measuring device (18) can continuously detect a path signal regarding the vertical position of each lifting column (14). A controller (23) which receives the measured path signals of the measuring devices (18) of all lifting columns (14) regulates the vertical state of the lifting columns (14) in accordance with the measured path signals of the measuring devices (18) and/or the changes thereof over time.

A drilling machine includes a frame, two tracks, and a plurality of yokes interconnecting the frame and the tracks. Each yoke is pivotable with respect to the frame by the extension and retraction of a hydraulic cylinder. Each of a plurality of sensors senses a parameter indicative of force and generates a signal representing the force. A controller receives the force signals, and generates control signals to extend or retract the hydraulic cylinders when an associated force deviation for a hydraulic cylinder exceeds a predetermined magnitude.

Disclosed are a movable battery replacing platform (103) and a quick replacing system (100), wherein the movable battery replacing platform (103) comprises: a travel-driving portion (106) used for driving the movable battery replacing platform (103) to move on the ground; a lifting portion (107) mounted on the travel-driving portion (106), for lifting a battery during the replacement of the battery; and a battery mounting portion (108) mounted on the top of the lifting portion (107), for placing a battery to be replaced or a replaced battery, wherein the battery mounting porting (108) is provided with a battery replacing device. The device can use an unlocking device (50) to unlock a battery locked on the bottom of an electric vehicle, automatically aligning an unlocking point of a battery locking mechanism and realizing automatic unlocking in the movement. The whole process is fully automated without manual intervention and can improve battery replacement efficiency. In addition, the angle of an upper board (10) relative to the battery unlocking position can be adjusted by a movement actuating device, so that the unlocking point of the battery can automatically fit where the movable battery replacing platform (103) remains still, so as to further improve unlocking efficiency.

Mobile self-balancing robots for telepresence are provided. The robots comprise a base, a head, and a shaft therebetween. The shaft can be telescoping to allow the head to be extended above the base to about the height of a normal sized person, or can be retracted to make the robot more compact for easier storage and transportation. The head includes components for telepresence such as cameras, a speaker, a microphone, a laser pointer, and a display screen, as well as protection from impacts and falls. The base provides locomotion and balance, and a narrow shaft between the head and base minimizes the robot's weight and reduces the likelihood of collisions with protrusions like table edges.

A demountable drive mechanism for coupling to a drive shaft of an operating device, the drive mechanism being directly secured to the drive shaft to cause the drive shaft to rotate, the drive mechanism comprising a geared electric motor having an output for coupling to the drive shaft, the drive mechanism having a torque arm adapted to engage a reaction surface so that the electric motor can impart torque to the drive shaft, and control means to control operation of the electric motor.

A trailer for carrying cargo includes a frame, at least two axles mounted to the frame, and a deck. The axles have wheels at opposite ends of the axles for movably supporting the frame above the ground. The deck is pivotally mounted to the frame and is pivotable about a first axis relative to the frame and a second axis relative to the frame via at least two supports. The first axis extends generally longitudinally along the deck and the second axis extends generally laterally across the deck and generally normal to the first axis. The deck is also slidable generally along the first axis relative to the frame and/or one of the supports. The deck thus may be adjusted about multiple axes and may be moved forwardly or rearwardly relative to the frame to position the deck in a desired location and orientation relative to the frame.