mhurhangee/ep-ind-claims huggingface dataset:
A blockchain system, comprising: a blockchain relay communication network, blockchain nodes (21, 22, 23, 24, 25), and a historical block synchronization device, the blockchain nodes are respectively connected to corresponding relay nodes (11, 12, 13, 14) in the blockchain relay communication network, and the relay nodes (11, 12, 13, 14) are connected to the historical block synchronization device, wherein: any relay node is configured to send a block obtaining request to the historical block synchronization device when receiving a block synchronization request initiated by any blockchain node connected thereto; the historical block synchronization device is configured to obtain block data from the blockchain nodes (22, 23, 24, 25); and in response to the block obtaining request, the historical block synchronization device is configured to select a corresponding historical block from locally stored blocks and return the historical block to the any relay node to cause the any relay node to forward the historical block to the any blockchain node, the historical block forwarded to the any blockchain node causes the any blockchain node to perform block synchronization on stored blocks based on the historical block, characterized in that, the historical block synchronization device is further configured to compare a current maximum block height of blocks stored on the any blockchain node, included in the block synchronization request, with a maximum block height of the locally stored blocks to determine at least one historical block, of which a block height is greater than the current maximum block height, as the historical block. any relay node is configured to send a block obtaining request to the historical block synchronization device when receiving a block synchronization request initiated by any blockchain node connected thereto; the historical block synchronization device is configured to obtain block data from the blockchain nodes (22, 23, 24, 25); and in response to the block obtaining request, the historical block synchronization device is configured to select a corresponding historical block from locally stored blocks and return the historical block to the any relay node to cause the any relay node to forward the historical block to the any blockchain node, the historical block forwarded to the any blockchain node causes the any blockchain node to perform block synchronization on stored blocks based on the historical block, characterized in that, the historical block synchronization device is further configured to compare a current maximum block height of blocks stored on the any blockchain node, included in the block synchronization request, with a maximum block height of the locally stored blocks to determine at least one historical block, of which a block height is greater than the current maximum block height, as the historical block.
Method for modernizing an elevator system, which elevator system comprises a first elevator comprising a first car in a firsthoistway, and a second elevator, comprising a second car in a second hoistway, the method comprising using (the first using) the first and the second car (2,5) for transporting passengers and/or goods between vertically displaced floors of a building, and thereafter removing the first elevator car from use for transporting passengers and/or goods between vertically displaced floors, and thereafter installing a construction time elevator into the lower end of the first hoistway, the traveling zone of the car of the construction time elevator covering only partially the height of the first hoistway; and thereafter using (the second using) the car of the construction time elevator and the second car simultaneously for transporting passengers and/or goods between vertically displaced floors of the building, during which using the method preferably comprises performing construction work in the first hoistway above the traveling zone of the car of the construction time elevator; characterized in that the method comprises thereafter changing the traveling zone of the car of the construction time elevator to extend higher in the hoistway, and thereafter using (third using) the car of the construction time elevator and the second car simultaneously for transporting passengers and/or goods between vertically displaced floors, during which using the method preferably comprises performing construction work in the first hoistway above the traveling zone of the car of the construction time elevator. the method comprising using (the first using) the first and the second car (2,5) for transporting passengers and/or goods between vertically displaced floors of a building, and thereafter removing the first elevator car from use for transporting passengers and/or goods between vertically displaced floors, and thereafter installing a construction time elevator into the lower end of the first hoistway, the traveling zone of the car of the construction time elevator covering only partially the height of the first hoistway; and thereafter using (the second using) the car of the construction time elevator and the second car simultaneously for transporting passengers and/or goods between vertically displaced floors of the building, during which using the method preferably comprises performing construction work in the first hoistway above the traveling zone of the car of the construction time elevator; characterized in that the method comprises thereafter changing the traveling zone of the car of the construction time elevator to extend higher in the hoistway, and thereafter using (third using) the car of the construction time elevator and the second car simultaneously for transporting passengers and/or goods between vertically displaced floors, during which using the method preferably comprises performing construction work in the first hoistway above the traveling zone of the car of the construction time elevator.
Stabilizer link for automobile suspensions, characterized in that it comprises: - a tubular body, having at one of its ends a pair of first flattened areas (2, 2') configuring a leak-tight closure of a first inner cavity of the tubular body located between both flattened areas (2, 2'); - a first covering made of polymeric material coupled, during the forming process thereof, on the end of the tubular body such that it surrounds the pair of first flattened areas (2, 2') and wherein said covering comprises a first articulation. - a tubular body, having at one of its ends a pair of first flattened areas (2, 2') configuring a leak-tight closure of a first inner cavity of the tubular body located between both flattened areas (2, 2'); - a first covering made of polymeric material coupled, during the forming process thereof, on the end of the tubular body such that it surrounds the pair of first flattened areas (2, 2') and wherein said covering comprises a first articulation.
Lock having a lock mechanism controlling a latch and/or a bolt, having an actuating handle which is couplable to the lock mechanism in order to actuate the latch and/or the bolt by means of a releasing device, wherein the releasing device has an actuating device, characterized in that the actuating device has two electromagnets (28, 28') which are arranged at an angle to one another and which have a common, pivotably mounted magnet armature, wherein the magnet armature has two lever arms, wherein in each case one of the lever arms interacts with one of the electromagnets (28, 28') and a selector switch, wherein, by means of the selector switch, it is possible to choose between an operating mode in accordance with the closed current principle or in accordance with the working current principle, wherein a spring is arranged between the magnet armature and the selector switch, and the switchover between the operating mode in accordance with the closed current principle or in accordance with the working current principle takes place by way of a change in the direction of tension of the spring by means of the selector switch.
Manhole cover having a frame which can be closed by way of a top cover and has a bearing ring which is made from cast iron, surrounds the manhole of the shaft, supports the top cover and is provided with at least one shaft entry aid holder which has an upwardly open plug-in opening for the attachment of a shaft entry aid which can be inserted into the shaft, characterized in that the shaft entry aid holder is arranged in an insert block which is separate from the bearing ring of the frame and is fixed in a positively locking manner in a matching recess of the bearing ring, the insert block consisting of cast iron and being inserted from above into the recess of the bearing ring in such a way that its upper side lies below the plane of the top cover bearing face of the bearing ring (la), and the side faces (10, 11) of the insert block which lie opposite one another and the side faces (12, 13) of the recess which bear against them in the bearing ring converging from the top to the bottom as viewed in the direction of the shaft axis and from the outside to the inside as viewed radially with respect to the shaft axis.
A composition for use in a method of treating, inhibiting the onset, and/or slowing the rate of development of osteoporosis and a method of treating fractured bone and/ or increasing the rate of healing thereof, wherein administration of a pharmaceutically effective amount of the composition over a sufficient period of time stimulates iNOS and enhances treatment of orthopedic ailments; wherein the composition comprises: ginger or a ginger derivative selected from fresh ginger, partially dried vegetable ginger, dried vegetable ginger, 6-gingerol, ginger rhizome extract, ginger root extract, ginger powder, and mixtures thereof; Muira puama; Paullinia cupana; and at least one of the group consisting of L-arginine and L-citrulline.
A non-aqueous electrolyte solution comprising: i) lithium bis(fluorosulfonyl)imide (LiFSI); ii) an electrolyte solution additive; iii) a lithium salt, wherein the lithium salt is any one selected from the group consisting of LiPF 6, LiAsF 6, Li(CF 3 SO 3), LiN(CF 3 SO 2) 2, LiBF 4, LiSbF 6, LiN(C 2 F 5 SO 2) 2, LiAlO 4, LiAlCl 4, LiClO 4, and a mixture of two or more thereof; and wherein the mixing ratio of the lithium salt to the lithium bis(fluorosulfonyl)imide is in a range of 1:6 to 1:9 as a molar ratio; and iv) a non-aqueous organic solvent, wherein the non-aqueous organic solvent comprises linear carbonate, cyclic carbonate, ester, ether, ketone, or a combination thereof; and wherein the cyclic carbonate is any one selected from the group consisting of ethylene carbonate, butylene carbonate, and a mixture of the two, characterized in that the electrolyte solution additive includes a vinylene carbonate-based compound and a sultone-based compound; and that the non-aqueous electrolyte solution further comprises ethylene sulfate (ESa) and lithium oxalyldifluoroborate (LiODFB). i) lithium bis(fluorosulfonyl)imide (LiFSI); ii) an electrolyte solution additive; iii) a lithium salt, wherein the lithium salt is any one selected from the group consisting of LiPF 6, LiAsF 6, Li(CF 3 SO 3), LiN(CF 3 SO 2) 2, LiBF 4, LiSbF 6, LiN(C 2 F 5 SO 2) 2, LiAlO 4, LiAlCl 4, LiClO 4, and a mixture of two or more thereof; and wherein the mixing ratio of the lithium salt to the lithium bis(fluorosulfonyl)imide is in a range of 1:6 to 1:9 as a molar ratio; and iv) a non-aqueous organic solvent, wherein the non-aqueous organic solvent comprises linear carbonate, cyclic carbonate, ester, ether, ketone, or a combination thereof; and
A window cleaning robot, comprising: a window cleaning robot body; a detecting module disposed on the window cleaning robot body and configured to detect an environment outside the window cleaning robot body; a controlling device connected to the detecting module and configured to control an action of the window cleaning robot body based on a data detected by the detecting module characterized in that the window cleaning robot further comprises a casing formed with a suction inlet on a bottom wall thereof; a window cleaning component disposed on the bottom wall and configured to surround the suction inlet; and a fan disposed within the casing and connected to the controlling device, and configured to be controlled by the controlling device to withdraw the air from a chamber defined by the window cleaning component, the bottom wall together with a window to be cleaned through the suction inlet, so as to enable the window cleaning robot body to adhere to the window to be cleaned. a window cleaning robot body; a detecting module disposed on the window cleaning robot body and configured to detect an environment outside the window cleaning robot body; a controlling device connected to the detecting module and configured to control an action of the window cleaning robot body based on a data detected by the detecting module characterized in that the window cleaning robot further comprises a casing formed with a suction inlet on a bottom wall thereof; a window cleaning component disposed on the bottom wall and configured to surround the suction inlet; and a fan disposed within the casing and connected to the controlling device, and configured to be controlled by the controlling device to withdraw the air from a chamber defined by the window cleaning component, the bottom wall together with a window to be cleaned through the suction inlet, so as to enable the window cleaning robot body to adhere to the window to be cleaned.
A microelectronic packages (40/60/60') comprising: a first semiconductor chip a fluid-carrying cooling tube disposed in proximity to a first surface of said first semiconductor chip a thermally conductive bonding material disposed between said cooling tube and the first surface of said first semiconductor chip thermally bonding said cooling tube to said first surface and a plastic encapsulant molded over said first semiconductor chip and portions of said cooling tube in proximity to said chip wherein said first surface of said first semiconductor chip is an active surface, and said microelectronic package (40/60/60') further comprises: a shunt element disposed adjacent said semiconductor chip; characterized in that said shunt element is electrically coupled to said cooling tube to form an electrical circuit including said first surface, said cooling tube and said shunt element. a first semiconductor chip a fluid-carrying cooling tube disposed in proximity to a first surface of said first semiconductor chip a thermally conductive bonding material disposed between said cooling tube and the first surface of said first semiconductor chip thermally bonding said cooling tube to said first surface and a plastic encapsulant molded over said first semiconductor chip and portions of said cooling tube in proximity to said chip wherein said first surface of said first semiconductor chip is an active surface, and said microelectronic package (40/60/60') further comprises: a shunt element disposed adjacent said semiconductor chip; characterized in that said shunt element is electrically coupled to said cooling tube to form an electrical circuit including said first surface, said cooling tube and said shunt element. a shunt element disposed adjacent said semiconductor chip; characterized in that said shunt element is electrically coupled to said cooling tube to form an electrical circuit including said first surface, said cooling tube and said shunt element.
A method performed by a master device, the method comprising: imaging an object device with the master device and displaying the image of the object device on the master device; identifying the object device using the image of the object device; discovering the object device by exchanging discovery messages between the master device and the object device; upon discovery, pairing with the object device and interfacing with the object device directly with the master device based on the identity of the object device; characterized in that the method additionally comprises: pairing the master device with a second object device; and using the master device to pair the object device and the second object device. imaging an object device with the master device and displaying the image of the object device on the master device; identifying the object device using the image of the object device; discovering the object device by exchanging discovery messages between the master device and the object device; upon discovery, pairing with the object device and interfacing with the object device directly with the master device based on the identity of the object device; characterized in that the method additionally comprises: pairing the master device with a second object device; and using the master device to pair the object device and the second object device. pairing the master device with a second object device; and using the master device to pair the object device and the second object device.
Method for determining a width (w') of a target vehicle by means of a camera system of a motor vehicle, wherein an image of an environmental region of the motor vehicle is provided by a camera of the camera system and the width (w') of the target vehicle in the image is determined by an image processing device of the camera system, including the steps of: - detecting the target vehicle in the image by means of a detection algorithm by the image processing device, wherein the detection includes that a partial region of the image is determined by the detection algorithm, in which the target vehicle is depicted in full, - determining a region of interest within the partial region by the image processing device such that wheels (9, 10) of a common rear axle of the target vehicle are depicted in the region of interest, - identifying respective outer edges (11, 12) of the depicted wheels (9, 10) within the region of interest, and - determining the width (w') of the depicted target vehicle as the distance between the outer edges (11, 12). - detecting the target vehicle in the image by means of a detection algorithm by the image processing device, wherein the detection includes that a partial region of the image is determined by the detection algorithm, in which the target vehicle is depicted in full, - determining a region of interest within the partial region by the image processing device such that wheels (9, 10) of a common rear axle of the target vehicle are depicted in the region of interest, - identifying respective outer edges (11, 12) of the depicted wheels (9, 10) within the region of interest, and - determining the width (w') of the depicted target vehicle as the distance between the outer edges (11, 12).
Electrical apparatus having - a holding frame and - components to which high voltage can be applied and which are held by the support frame, - wherein the holding frame has at least one holding element which is composed of fiber-reinforced plastic and to which at least one component is attached in an electrically isolated manner, wherein the holding element is in the form of a profiled support (1, 2, 3, 4, 5), characterized in that the holding element is a T-profiled support, a U-profiled support, an I-profiled support (2, 3) or an L-profiled support, or the holding element has a quadrilateral hollow profile. - a holding frame and - components to which high voltage can be applied and which are held by the support frame, - wherein the holding frame has at least one holding element which is composed of fiber-reinforced plastic and to which at least one component is attached in an electrically isolated manner, wherein the holding element is in the form of a profiled support (1, 2, 3, 4, 5),
A work vehicle, being an articulated type in which a front frame and a rear frame are linked, comprising: a joystick lever configured to be operated by an operator and allow a target steering angle (θin) to be set; a hydraulic actuator (21, 22) configured to be driven hydraulically and change an actual steering angle (θs) of the front frame with respect to the rear frame according to an operation of the joystick lever; a control valve configured to control flow of fluid supplied to the hydraulic actuator (21, 22) so that there is no deviation between the target steering angle (θin) and the actual steering angle (θs), and be in a neutral position in a state in which the target steering angle (θin) matches the actual steering angle (θs); a force imparting component configured to impart an assist force or a counterforce to the operation of the joystick lever; a displacement sensor configured to sense displacement of the joystick lever; an angle sensor configured to sense the actual steering angle (θs); characterized by a controller configured to control the force imparting component so that a counterforce is imparted to the operation of the joystick lever when it is detected that the joystick lever has been operated in an opposite direction from the rotation direction of the front frame on the basis of detections of the displacement sensor and the angle sensor. a joystick lever configured to be operated by an operator and allow a target steering angle (θin) to be set; a hydraulic actuator (21, 22) configured to be driven hydraulically and change an actual steering angle (θs) of the front frame with respect to the rear frame according to an operation of the joystick lever; a control valve configured to control flow of fluid supplied to the hydraulic actuator (21, 22) so that there is no deviation between the target steering angle (θin) and the actual steering angle (θs), and be in a neutral position in a state in which the target steering angle (θin) matches the actual steering angle (θs); a force imparting component configured to impart an assist force or a counterforce to the operation of the joystick lever; a displacement sensor configured to sense displacement of the joystick lever; an angle sensor configured to sense the actual steering angle (θs); characterized by a controller configured to control the force imparting component so that a counterforce is imparted to the operation of the joystick lever when it is detected that the joystick lever has been operated in an opposite direction from the rotation direction of the front frame on the basis of detections of the displacement sensor and the angle sensor.