mhurhangee/ep-ind-claims huggingface dataset:
Leisure facility system comprising a support guide tube and a moveable support device, wherein the support device is arranged to move along the longitudinal axis of the support guide tube, and comprising at least one support roller and at least one counter roller, wherein the support roller and the counter roller are in contact with the support guide tube, the supporting device comprising a suspension device, suitable for supporting a suspended load, characterised in that the suspension device interacts with a braking device of the support device in such a way that by means of the contact force of the at least one support roller and the at least one counter roller against the support guide tube and as a function of the load, a braking action is exerted on the support device in relation to a motion of the support device along the support guide tube, wherein the braking action is created by elastic deformation of the respective at least one support roller and/or counter roller.
A computer-implemented method for constructing a patch net model for image representation, wherein the patch net model is of a forest-shaped structure consisting of a plurality of composite nodes and basic nodes, each composite node is a non-leaf node, and each basic node is a leaf node; the basic node comprises a certain patch region of an image and a representative patch representing an apparent feature of the patch region; the composite node comprises a certain patch region of the image and can be further decomposed into basic nodes and/or composite nodes; an edge exists between two nodes, which are located on the same layer of the forest-shaped structure and are spatially connected, and a relation matrix used for expressing the spatial relative position of the two nodes is arranged on the edge, the method comprising the following steps: S1. selecting representative patches and image regions represented by the representative patches, and establishing basic nodes; S2. combining the basic nodes with image region areas smaller than a preset value into a composite node according to a spatial connection relation; S3. using the composite node and basic nodes with image region areas larger than the preset value as the first layer of the forest-shaped structure; S4. decomposing the composite node into basic nodes and/or composite nodes until all leaf nodes are basic nodes; S5. adding an edge between two nodes, which are located on the same layer of the forest-shaped structure and are spatially connected, and adding the relation matrix on the edge. S1. selecting representative patches and image regions represented by the representative patches, and establishing basic nodes; S2. combining the basic nodes with image region areas smaller than a preset value into a composite node according to a spatial connection relation; S3. using the composite node and basic nodes with image region areas larger than the preset value as the first layer of the forest-shaped structure; S4. decomposing the composite node into basic nodes and/or composite nodes until all leaf nodes are basic nodes; S5. adding an edge between two nodes, which are located on the same layer of the forest-shaped structure and are spatially connected, and adding the relation matrix on the edge.
A disposable handset component (310, 310A) comprising: a handle portion that defines a hub section and a mating section, the handle defines a fluid path that extends through the hub section and the mating section; an elongated shaft coupled to the hub section of the handle portion, the elongated shaft defines an internal flow channel fluidly coupled to the fluid path, and a central axis; an aperture through a distal end of the elongated shaft; a cutting blade within the elongated shaft and in operational relationship to the aperture; a rotating hub disposed within hub section and in operational relationship to a portion of the fluid path within the hub section, the rotating hub defines a drive connector exposed at a transition between the hub section and the mating section; a drive shaft that mechanically couples the cutting blade to the rotating hub, the drive shaft disposed within the internal flow channel of the elongated shaft and also disposed in the portion of the fluid path in the hub section; and a seal in operational relationship to the rotating hub and the hub section, the seal fluidly isolates the fluid channel from drive connector exposed at the transition between the hub section and the mating section. a handle portion that defines a hub section and a mating section, the handle defines a fluid path that extends through the hub section and the mating section; an elongated shaft coupled to the hub section of the handle portion, the elongated shaft defines an internal flow channel fluidly coupled to the fluid path, and a central axis; an aperture through a distal end of the elongated shaft; a cutting blade within the elongated shaft and in operational relationship to the aperture; a rotating hub disposed within hub section and in operational relationship to a portion of the fluid path within the hub section, the rotating hub defines a drive connector exposed at a transition between the hub section and the mating section; a drive shaft that mechanically couples the cutting blade to the rotating hub, the drive shaft disposed within the internal flow channel of the elongated shaft and also disposed in the portion of the fluid path in the hub section; and a seal in operational relationship to the rotating hub and the hub section, the seal fluidly isolates the fluid channel from drive connector exposed at the transition between the hub section and the mating section.
Method of operating a vacuum generator device which has an ejector device with an inlet connected to an air supply duct and a suction side connected to a suction passage linked to a suction gripper, and which has a pressure sensing device serving to detect the vacuum prevailing in the suction passage, wherein the vacuum prevailing in the suction passage is controlled by the air supply of the inlet being switched off at a point in time t 1 when the vacuum reaches an upper switching value p so and switched back on again at a point in time t 2, at which the vacuum falls to a lower switching value p su, until a point in time t 3 when the upper switching value p so is reached once more, characterised in that the control time elapsing between the time t 1 of switching off the air supply and either the subsequent restarting at point in time t 2 or the subsequent fresh switch-off of the air supply at point in time t 3 is detected and compared with at least one preset reference time value, in order to generate an electrical diagnostic signal based on the compared result.
A method for supporting a voice service of a user equipment, UE, of a network in a wireless communication system, comprising: transmitting (S604, S712) an update location request, ULR, message to a home subscriber server, HSS, by a Mobility Management Entity, MME, wherein when the MME does not evaluate specific information as to whether the IMS voice over PS session for the UE is supported, the homogeneity of support of IMS voice over PS session information element is not contained in the ULR message; and characterised in that if the ULR message does not contain the homogeneity of support of IMS voice over PS session information element, the homogeneity of support of IMS voice over PS session information element is included in a Notify Request message transmitted from the MME to the HSS after the ULR message. transmitting (S604, S712) an update location request, ULR, message to a home subscriber server, HSS, by a Mobility Management Entity, MME, wherein when the MME does not evaluate specific information as to whether the IMS voice over PS session for the UE is supported, the homogeneity of support of IMS voice over PS session information element is not contained in the ULR message; and characterised in that if the ULR message does not contain the homogeneity of support of IMS voice over PS session information element, the homogeneity of support of IMS voice over PS session information element is included in a Notify Request message transmitted from the MME to the HSS after the ULR message.
An augmented reality-based lighting design method, comprising: displaying, by an augmented reality device (100, 120, 130), a real-time image of a target physical area on a display screen; displaying, by the augmented reality device (100, 120, 130), a lighting fixture 3-D model (602-608, 1102) on the display screen in response to a user input, wherein the lighting fixture 3-D model is overlaid on the real-time image of the target physical area; the method characterized by sensing, by an ambient light sensor comprised in the augmented reality device (100, 120, 130), ambient lighting conditions in the target physical area; generating, by the augmented reality device (100, 120, 130), a display model based on at least photometric data associated with the lighting fixture 3-D model (602-608, 1102), the display model representing a lighting pattern resulting from the lighting fixture 3-D model (602-608, 1102); and displaying, by the augmented reality device (100, 120, 130), the lighting pattern on the display screen overlaid on the real-time image of the target physical area, wherein the lighting pattern displayed on the display screen accounts for the sensed ambient lighting conditions in the target physical area. displaying, by an augmented reality device (100, 120, 130), a real-time image of a target physical area on a display screen; displaying, by the augmented reality device (100, 120, 130), a lighting fixture 3-D model (602-608, 1102) on the display screen in response to a user input, wherein the lighting fixture 3-D model is overlaid on the real-time image of the target physical area; the method characterized by sensing, by an ambient light sensor comprised in the augmented reality device (100, 120, 130), ambient lighting conditions in the target physical area; generating, by the augmented reality device (100, 120, 130), a display model based on at least photometric data associated with the lighting fixture 3-D model (602-608, 1102), the display model representing a lighting pattern resulting from the lighting fixture 3-D model (602-608, 1102); and displaying, by the augmented reality device (100, 120, 130), the lighting pattern on the display screen overlaid on the real-time image of the target physical area, wherein the lighting pattern displayed on the display screen accounts for the sensed ambient lighting conditions in the target physical area.
A photovoltaic device comprising: an n-type crystalline silicon substrate; a p-type amorphous silicon thin film formed on the n-type crystalline silicon substrate; and an intrinsic amorphous silicon thin film without a conductive impurity dopant or a substantially intrinsic amorphous silicon thin film interposed between the n-type crystalline silicon substrate and the p-type amorphous silicon thin film, characterized in that an impurity that is an atomic element in group 3B of the periodic table is provided at an interface formed with said crystalline silicon substrate and said intrinsic amorphous silicon thin film without a conductive impurity dopant or said substantially intrinsic amorphous silicon thin film, wherein the impurity is the same as that used in the p-type amorphous silicon film. an n-type crystalline silicon substrate; a p-type amorphous silicon thin film formed on the n-type crystalline silicon substrate; and an intrinsic amorphous silicon thin film without a conductive impurity dopant or a substantially intrinsic amorphous silicon thin film interposed between the n-type crystalline silicon substrate and the p-type amorphous silicon thin film, characterized in that an impurity that is an atomic element in group 3B of the periodic table is provided at an interface formed with said crystalline silicon substrate and said intrinsic amorphous silicon thin film without a conductive impurity dopant or said substantially intrinsic amorphous silicon thin film, wherein the impurity is the same as that used in the p-type amorphous silicon film.
An organopolysiloxane composition comprising: at least one type of an inorganic acid or a carboxylic acid, and an organopolysiloxane obtained by condensation reacting at least one type of a silicon-containing compound containing a silicon-bonded hydroxyl group and at least one type of a silicon-containing compound containing a silicon-bonded aminoxy group, wherein the concentration of the inorganic acid or the carboxylic acid is not less than 0.3 mol per 1 mol of the silicon-containing compound containing the silicon-bonded aminoxy group.
Method for controlling an internal combustion engine, wherein the method comprises: detecting (30, 25) an increase of a setpoint torque, which is to be provided by the internal combustion engine, to an increased setpoint torque; increasing (32, 14, 16) a density of gas (11, 15, 23) to an increased density by means of an activated electrical compressor; feeding the gas of increased density into a combustion chamber of the internal combustion engine; and recirculating exhaust gas (19, 15) discharged from the combustion chamber into the combustion chamber at an exhaust-gas recirculation rate (91, 92, 93) which is increased in relation to a reference rate used in the presence of the increased setpoint torque in steady-state operation, wherein the increase of the density of the gas (11, 15, 23) and the recirculation of the exhaust gas (19, 15) at the increased exhaust-gas recirculation rate is performed during a time interval between a start of the increase to the increased setpoint torque from a low setpoint torque and after the end of the increase of the setpoint torque, wherein the time interval amounts to between 0.1 s and 5 s, wherein the exhaust-gas recirculation rate is characterized by a time profile (91, 92, 93) during the time interval, wherein the exhaust-gas recirculation rate firstly increases, reaches a maximum and subsequently falls to the reference rate, and wherein the exhaust-gas recirculation rate (72; 91, 92, 93) is adjusted synchronously in terms of time with respect to a charge quantity (78; 91, 92, 93) of the gas fed into the combustion chamber. detecting (30, 25) an increase of a setpoint torque, which is to be provided by the internal combustion engine, to an increased setpoint torque; increasing (32, 14, 16) a density of gas (11, 15, 23) to an increased density by means of an activated electrical compressor; feeding the gas of increased density into a combustion chamber of the internal combustion engine; and recirculating exhaust gas (19, 15) discharged from the combustion chamber into the combustion chamber at an exhaust-gas recirculation rate (91, 92, 93) which is increased in relation to a reference rate used in the presence of the increased setpoint torque in steady-state operation, wherein the increase of the density of the gas (11, 15, 23) and the recirculation of the exhaust gas (19, 15) at the increased exhaust-gas recirculation rate is performed during a time interval between a start of the increase to the increased setpoint torque from a low setpoint torque and after the end of the increase of the setpoint torque, wherein the time interval amounts to between 0.1 s and 5 s, wherein the exhaust-gas recirculation rate is characterized by a time profile (91, 92, 93) during the time interval, wherein the exhaust-gas recirculation rate firstly increases, reaches a maximum and subsequently falls to the reference rate, and wherein the exhaust-gas recirculation rate (72; 91, 92, 93) is adjusted synchronously in terms of time with respect to a charge quantity (78; 91, 92, 93) of the gas fed into the combustion chamber.
A reinforced honeycomb sandwich panel comprising: a plurality of honeycomb core sheets having edges, and having a first core density, first skin layers with 0° fiber reinforcement laminated on both sides of each of the plurality of honeycomb core sheets, to form laminated reinforced honeycomb core sheets, a butt joint between edges of respective laminated reinforced honeycomb core sheets in a side-by-side location of the edges of the laminated reinforced honeycomb core sheets so that the edges overlap each other or interpenetrate each other or are deformed to create an area of a second core density higher than the first core density at the conjunction of the laminated reinforced honeycomb cores and of the first skin layers with 0° fiber reinforcement layer above and below a position where the edges of the honeycomb cores join, second skin layers with 90° fiber reinforcement layer on both sides of the laminated reinforced honeycomb cores on the 0° fiber reinforced layers, to form a laminated reinforced honeycomb sandwich panel. first skin layers with 0° fiber reinforcement laminated on both sides of each of the plurality of honeycomb core sheets, to form laminated reinforced honeycomb core sheets, a butt joint between edges of respective laminated reinforced honeycomb core sheets in a side-by-side location of the edges of the laminated reinforced honeycomb core sheets so that the edges overlap each other or interpenetrate each other or are deformed to create an area of a second core density higher than the first core density at the conjunction of the laminated reinforced honeycomb cores and of the first skin layers with 0° fiber reinforcement layer above and below a position where the edges of the honeycomb cores join, second skin layers with 90° fiber reinforcement layer on both sides of the laminated reinforced honeycomb cores on the 0° fiber reinforced layers, to form a laminated reinforced honeycomb sandwich panel.
Frame device (114, 200, 300, 400, 500, 502, 600) for a profiled sail device, wherein the frame device (114, 200, 300, 400, 500, 502, 600) features several frame elements (202, 204, 206, 302, 304, 306, 402, 404, 406, 602, 604, 606) that can be adjusted relative to one another, wherein at least one frame element (202, 204, 206, 302, 304, 306, 402, 404, 406, 602, 604) has a first profile contour (312, 316, 320, 414, 608, 618) that is assigned to one sail surface (102, 104, 308, 310, 612, 614) and a second profile contour (314, 318, 322, 420, 610, 620) that is assigned to the other sail surface (102, 104, 308, 310, 612, 614), wherein the frame device (114, 200, 300, 400, 500, 502, 600) has a profile contour with at least one profile contour section that is formed with the aid of a profile contour (312, 314, 316, 318, 320, 322, 414, 420, 608, 610, 618, 620) of the at least one frame element (202, 204, 206, 302, 304, 306, 402, 404, 406, 602, 604), and wherein the frame device (114, 200, 300, 400, 500, 502, 600) can be adjusted between a first operating position and a second operating position, characterized in that the first profile contour (312, 316, 320, 414, 608, 618) of the at least one frame element (202, 204, 206, 302, 304, 306, 402, 404, 406, 602, 604) forms in the first operating position at least one profile contour section of the frame device (114, 200, 300, 400, 500, 502, 600) for the first sail surface (102, 308, 612) or for the second sail surface (104, 310, 614) whereas the second profile contour (314, 318, 322, 420, 610, 620) of the at least one frame element (202, 204, 206, 302, 304, 306, 402, 404, 406, 602, 604) does not form a profile contour section of the frame device (114, 200, 300, 400, 500, 502, 600) for the sail surface (102, 104, 308, 310, 612, 614), and in that the first profile contour (312, 316, 320, 414, 608, 618) of the at least one frame element (202, 204, 206, 302, 304, 306, 402, 404, 406, 602, 604) does not form a profile contour section of the frame device (114, 200, 300, 400, 500, 502, 600) for the sail surface (102, 104, 308, 310, 612, 614) in the second operating position whereas the second profile contour (314, 318, 322, 420, 610, 620) of the at least one frame element (202, 204, 206, 302, 304, 306, 402, 404, 406, 602, 604) forms at least one profile contour section of the frame device (114, 200, 300, 400, 500, 502, 600) for the respective other sail surface (102, 104, 308, 310, 612, 614).
Mobile home, which comprises a substantially cuboid-shaped interior and a water outflow pipe, whereby the interior is defined by a floor panel, a ceiling panel and wall panels, wherein these panels (11, 12, 13) are designed in a heat insulating way for a thermal bridge-free insulation of the interior and wherein panel abutment surfaces abut directly to panel interior surfaces at the edges of the interior, so that heat insulation realised by means of the panels (11, 12, 13) is designed in a completely heat bridge-free way, and wherein the panels (11, 12, 13) are held from the outside by means of a self-supporting base frame designed as a support construction, made of steel or aluminium, so that the complete support construction is realised in a cold area, characterised in that the mobile home comprises equipment for temperature controlling the interior as well as a power supply and a water supply, with an outer panel also arranged at each wall panel at a distance from the same, affixed to the outside of the base frame, and an electrical installation and/or a water installation arranged in a gap between the wall panel and the outer panel.