954results about How to "Increase the support area" patented technology

A telemetric tibial tray includes a lower plate that defines a plurality of cylindrical transducer cavities having circular load diaphragms. An upper plate is attached to the lower plate through support posts projecting from the load diaphragms. The support posts have a circular cross-section and a diameter of about 5.0 mm. The lower plate further defines wiring channels communicating between the transducer cavities and a central cavity housing the circuit board for the telemetric tray. The wiring channels are arranged at a 45 degree angle relative to the sagittal plane of the knee joint in order to reduce the effects of the wiring channel intersection on the strain sensitivity of the tray. Each transducer cavity includes a radial strain gage array with four pairs of radially aligned strain gages, each pair aligned at a 45 degree angle relative to the sagittal plane of the knee joint. Each pair of strain gages includes an inner gage positioned at the point of maximum positive micro-strain across the diaphragm when loaded, and an outer gage positioned at the point of maximum negative micro-strain, to thereby increase the differential strain measured by the gages and increase the strain sensitivity of the tibial tray.

A floor construction covered with ceramic tiles, in which a film-like plastic mat having support elements disposed in a uniform area distribution, hollow towards the underside, capable of support, projecting out beyond the top of the mat, is applied on the sub-floor. Channels carrying open water are formed between the support elements, and a water-permeable or vapor-permeable covering in the manner of a non-woven fabric or woven fabric is disposed on the support elements. The plastic mat is embedded and attached, supported in a still soft, hardening thin-bed mortar layer on the sub-floor, over its full area, in the region of its lower contact surfaces. The ceramic tiles are laid and attached on the covering in the manner of a non-woven fabric, directly, with a thin-bed mortar layer.

The invention discloses a flexible connecting mechanism which comprises a fixed supporting piece, mobile supporting pieces slidably or rotatably connected with the fixed supporting piece and a flexible piece. The flexible piece can be bent and can cover on the fixed supporting piece and the mobile supporting pieces, and at least one end of the flexible piece is slidably connected with the fixed supporting piece or the mobile supporting pieces. According to the flexible connecting mechanism, the area of supporting to the flexible piece can be changed through relative sliding or rotating of the fixed supporting piece and the mobile supporting pieces, and when the flexible piece is a flexible screen or is used for arranging a part of the flexible screen, the display area can be changed by changing the supporting area so that the size of the screen of electronic equipment can be flexibly changed according to different use needs, and the diversified use needs of a user are met. The invention further provides the electronic equipment provided with the flexible connecting mechanism.

The invention discloses an interventional surgical robot subordinate end and a mobile platform and a control method of the robot subordinate end and belongs to the technical field of minimally invasive blood vessel interventional operations. The mobile platform comprises a platform main beam, and platform connection blocks are arranged on the platform main beam through a linear guide rail pair D; the platform connection blocks are driven by a platform driving mechanism and used for installing a catheter controller or a guide wire controller. The interventional surgical robot subordinate end comprises the catheter controller, the guide wire controller and the mobile platform; the catheter controller and the guide wire controller are mounted on the two platform connection blocks respectively. According to the interventional surgical robot subordinate end, the catheter controller and the guide wire controller are installed on the mobile platform, and the problem is solved that it is difficult for an existing robot to complete co-operating of a catheter and a guide wire.

The invention relates to an offline hybrid stacking method and system. The method comprises the steps of acquiring the attribute information of each box and the parameter information of a tray, and numbering all boxes according to the volumes of the boxes from big to small; stacking the boxes on the tray from bottom to top according to the number of the boxes in a layered manner, and acquiring aninitial stacking sequence and the utilization rate of a corresponding initial tray; regulating the initial stacking sequence for many times, and acquiring the maximum value of the tray utilization rate; and taking the stacking sequence corresponding to the maximum value of the tray utilization rate as the optimal stacking sequence of the boxes, and output the optimal stacking sequence. According to the offline hybrid stacking method, cuboid boxes of different sizes can be stacked in a hybrid manner, and the stacking stability can be ensured; the horizontal layered stacking is achieved, and theoffline hybrid stacking method has the advantages that the stacking stability is high, and the stacking by a robot is facilitated; the utilization rate of the tray is high, etc., and the automation and intelligence of the hybrid stacking process are achieved.

The present invention provides a multi plate screw press sludge dewatering machine and a helical shaft thereof. The multi plate screw press sludge dewatering machine includes fixed rings, movable rings, the helical shaft, a sludge inlet tank and a sludge discharging tank; the helical shaft adopts a variable diameter variable pitch helical shaft, a lead angle arrangement sequence of a helical blade of the whole helical shaft is gradual reduction from the sludge discharging tank to the sludge inlet tank, and the lead angle arrangement sequence is gradually reduced from 16°-22° to 6°-14°; a pitch of the helical shaft is gradually increased along a direction from the sludge inlet tank to the sludge discharging tank; a diameter of a shaft body of the helical shaft is gradually increased along with a direction of the sludge discharging tank from a ⅓ position of a shaft length; and blockage prevention plates are arranged on two sides of the bottom of the helical blade. The helical shaft in the present invention is specially designed, so that the pitch is more reasonable, a helical angle is gentler, frictional resistance when sludge passes through the helical shaft may be effectively reduced, and phenomena of shaft blockage and shaft sticking of the sludge may be reduced.

The invention relates to an electronic device with a magnetic supporting foot rack, which comprises an electronic device machine body and the magnetic supporting foot rack. The magnetic supporting foot rack comprises a magnetic element, a connecting rod and a foot rack. The magnetic element is absorbed at the back face of the electronic device machine body, one end of the connecting rod is pivoted at the magnetic element, and the foot rack is pivoted at the other end of the connecting rod. Under the function of the connecting rod, the foot rack is placed at the storing position at the back face of the electronic device machine body; under the function of the linkage of the connecting rod, the foot rack is stretched to the supporting position that can support the electronic device machine body; when the foot rack is placed at the supporting device and the load of the electronic device is over high, the magnetic element can be separated from the electronic device machine body so as to prevent the foot rack and the connecting rod from being permanently damaged.

The invention is a thick coal bed hydraulic shield support, able to implement synthetic mechanized mining of thick coal beds, comprising top beam, shield beam, seat, column, balancing jack, front link rod, rear link rod, displacive jack and operating valve set, where the top beam and shield beam are equipped with side push jacks, and long and short guide rods inside and equipped with side backplates and hinged mutually; the top and bottom ends of the balancing jack are equipped on the top beam and shield beam, respectively; the top and bottom ends of the column are arranged on the lower part of the top beam and the seat, respectively; the upper ends of the front and rear link rods are hinged at the rear end of the shield beam and the lower ends of them are hinged on the seat; the displacive jack is equipped on the seat; the operating valve set is equipped on the bottom surface of the top beam. And it has large height regulating range and high moving speed, and improves force bearing conditions of the support and prolongs the service life of the support. And the support is made of high-intensity low-alloy steel sheet, small- bulk and lightweight.

The invention discloses a driving face self-moving temporary support hydraulic support and a support method thereof. The driving face self-moving temporary support hydraulic support comprises a tetrastyle inner support, a tetrastyle outer support and a hydraulic system. The inner support and the outer support are both made of two transverse top beams, two transverse bottom beams and four elastic stand columns, a plurality of longitudinal beams are arranged on the two transverse top beams to form a top support of a supporting top plate, the tetrastyle inner support is embedded with the outer support to form a pull-draw type combined support, the hydraulic system enables the inner support and the outer support to be capable of lifting and mutually pulling and drawing, and forward movement of the hydraulic support along a working face is achieved. The driving face self-moving temporary support hydraulic support is a novel driving face mechanization temporary support device. The support is a tetrastyle support and can automatically move so that supporting intensity and supporting areas of the temporary support are improved, tunneling construction speed and safety can be substantially improved, and technical supports for rapid and safe tunneling are achieved.

The invention provides a motion control method suitable for exoskeleton robots. By establishing a seven-link kinematics model, collecting exoskeleton-wearer system motion information based on a multi-sensor system, calculating the wearer's ground pressure center position, and designing an exoskeleton walking finite state machine, the wearer's walking motion intention and the state transitions in the walking finite state machine can be quickly, accurately and automatically recognized, effective and smooth motion assistance for paralyzed patients who have no perception and strength of the lowerlimbs is realized, the walking intention of the exoskeleton robot is automatically recognized and controlled, and the convenience and intelligence of using the exoskeleton robots are improved. At thesame time, by calculating the distance between the ankle joint of the front leg and the location of the crutches after the exoskeleton-wearer system moves forward with both crutches during the leg support period, the step length of the wearer under different walking conditions is determined, the exoskeleton joint motion reference trajectory is updated in real time, and real-time adjustment and control of the wearer's walking step length is realized.

A negative impression of an anatomical portion of a person is captured by forcing the anatomical portion into impression foam to collapse the impression foam into the negative impression. The impression foam has a crush characteristic of approximately constant resistance force over a relatively wide predetermined range of collapse distances. The negative impression is obtained by collapsing the impression foam within the range of constant-force collapse distances, thereby creating the negative impression under conditions which reflect an equally-loaded anatomical portion. A cushion support contour created from the equally-loaded negative impression is beneficial in more appropriately supporting the anatomical portion. The present invention is particularly useful in fabricating wheelchair seat cushions.

The invention discloses an engineering machine comprising a chassis and a fixed rotating tower arranged on the chassis, wherein the fixed rotating tower is connected with a supporting leg device comprising a horizontal supporting leg and a first supporting leg connected to the tail end of the horizontal supporting leg; the fixed rotating tower comprises a turntable frame connected with a turntable of the engineering machine and a supporting leg frame fixed below the turntable frame, wherein the supporting leg frame comprises at least two connecting arms, and the outer end of each connecting arm is hinged with the horizontal supporting leg; any two adjacent connecting arms are intersected or extending lines of any two adjacent connecting arms are intersected; the horizontal supporting leg comprises at least two arm joints hinged in sequence, and a second driving part for driving any two adjacent arm joints to unfold and fold is arranged between the two adjacent arm joints; a root end arm joint in each arm joint is hinged with the connecting arms, a first driving part for driving the root end arm joint to unfold and fold is arranged between the root end arm joint and the connecting arms, and the first supporting leg is connected to the tail end of a tail end arm joint in each arm joint.

A support shirt comprising a shirt body and a pair of shirt body sleeves positioned adjacent to an upper shirt body is provided. The sleeves are attached to the shirt body at sleeve body holes, with each of the sleeves including sleeve reinforcement regions extending at least a portion of the distance from the sleeve holes to an outer edge of the sleeves. The sleeve reinforcement regions extend substantially along a centerline extending longitudinally across the sleeves and the upper sleeve body to stabilize and provide support to the shoulders of a wearer during an upward lifting motion.

The invention aims to provide a coil built-in semiactive vibration absorber with a closed structure. The coil built-in semiactive vibration absorber comprises an outer shell, a base, a shaft, an armature, a spring, an upper cover and a ferromagnetic coil, wherein the outer shell is connected with the base; the upper cover is arranged on the outer shell; the armature is arranged in the outer shell and is connected with the outer shell; the shaft passes through the armature and is arranged on the base; a spring for positioning is arranged between the shaft and the armature; the outer shell, the base and the upper cover form the closed structure; an annular slot is formed on the central outer wall of the armature; and the ferromagnetic coil is arranged in the annular slot. A base supporting mode replaces a shaft supporting mode, so the gravity center is reduced, the supporting area is increased, the installation stability is improved, and the anti-swing capacity of the supporting mode is about within 45 degrees. A coil winding is combined with an active cell mass block, so the mass of a stator is reduced relatively and the mass of an active cell is increased; therefore, the volume of the whole vibration absorber is reduced, the effective mass of the vibration absorber is increased and the working efficiency and the applicability are improved.

The inventive structural support is made of the braided wire or is made of sheet or block material to form a sheet-shaped concave-convex structure with several throughholes by punching, etching, electroplating or electroforming processes. The structural support is combined in the cavity of liquid-vapour two phases cooling assembly and is fit with a capillary structural layer.