mhurhangee/ep-ind-claims huggingface dataset:
A truck mounted forklift (20, 30) for mounting on the rear of a vehicle, the truck mounted forklift comprising a u-shaped chassis having a pair of forwardly projecting side bars bridged by a rear crossbar, a wheel adjacent the forwardmost end of each of the side bars and a rear wheel mounted on the rear cross bar, a driver's station mounted to one side of the chassis, a motive power unit mounted on the other side of the chassis and a lifting assembly (100, 200) mounted on the chassis characterised in that, the lifting assembly comprises a linkage, the linkage comprising: an elongate first link connected at its proximal end to the chassis by a pivot joint; an elongate second link; an elongate third link connected intermediate the first link and the second link, one end of the third link is connected to the distal end of the first link by a pivot joint, and the other end of the third link is connected to the proximal end of the second link by a pivot joint; a fork carriage connected to the distal end of the second link by a pivot joint; a plurality of link cylinders (111, 113) for actuating the links; and a tilt cylinder for actuating the fork carriage. an elongate first link connected at its proximal end to the chassis by a pivot joint; an elongate second link; an elongate third link connected intermediate the first link and the second link, one end of the third link is connected to the distal end of the first link by a pivot joint, and the other end of the third link is connected to the proximal end of the second link by a pivot joint; a fork carriage connected to the distal end of the second link by a pivot joint; a plurality of link cylinders (111, 113) for actuating the links; and a tilt cylinder for actuating the fork carriage.
A heart valve prosthesis for a percutaneous replacement of a tricuspid valve, said heart valve prosthesis comprising a stent-like support structure and a biological heart valve, wherein the stent-like support structure is automatically expandable from a radially compressed state into a radially expanded state and has a tapering in the radially expanded state that divides the support structure into a vena cava section and an atrium section, wherein the heart valve is arranged in the atrium section, wherein the vena cava section has an annular passage segment and a stabilizing segment, wherein the annular passage segment is arranged in the region of the tapering, wherein the stent-like support structure has interwoven wires or webs that are connected in one piece to one another and that bound meshes, characterized in that the meshes have a larger mesh width in the passage segment than in the stabilizing segment.
A resource mapping method, performed by a terminal device, comprising: determining a plurality of contiguous virtual resource blocks; and mapping the plurality of virtual resource blocks to a plurality of physical resource blocks in a distributed-type resource mapping manner, wherein at least two physical resource blocks in the plurality of physical resource blocks are contiguous; wherein the resource mapping method further comprises: determining a mapping granularity for mapping the plurality of virtual resource blocks; and the mapping the plurality of virtual resource blocks to the plurality of physical resource blocks comprises: mapping the plurality of virtual resource blocks to the at least two contiguous physical resource blocks based on the mapping granularity; wherein the resource mapping method further comprises: receiving precoding granularity information transmitted by a network device, wherein the precoding granularity information is used by the terminal device to determine a precoding granularity adopted by the network device; and the determining the mapping granularity for mapping the plurality of virtual resource blocks comprises: determining the mapping granularity based on the precoding granularity information. determining a plurality of contiguous virtual resource blocks; and mapping the plurality of virtual resource blocks to a plurality of physical resource blocks in a distributed-type resource mapping manner, wherein at least two physical resource blocks in the plurality of physical resource blocks are contiguous; wherein the resource mapping method further comprises: determining a mapping granularity for mapping the plurality of virtual resource blocks; and the mapping the plurality of virtual resource blocks to the plurality of physical resource blocks comprises: mapping the plurality of virtual resource blocks to the at least two contiguous physical resource blocks based on the mapping granularity; wherein the resource mapping method further comprises: receiving precoding granularity information transmitted by a network device, wherein the precoding granularity information is used by the terminal device to determine a precoding granularity adopted by the network device; and the determining the mapping granularity for mapping the plurality of virtual resource blocks comprises: determining the mapping granularity based on the precoding granularity information.
A method of preventing rollover of a forward vehicle section of an articulated vehicle, the forward vehicle section provided with a forward frame and a wheel axle supported by the forward frame, the articulated vehicle further comprising: - a rear vehicle section with a rear frame and at least one wheel axle supported by the rear frame, and - an articulation joint connecting the forward frame and the rear frame, and adapted to allow the forward frame and the rear frame to pivot in relation to each other with an adjustable level of rotatability, characterized in that the method comprises the steps of: - increasing the level of rotatability between the forward frame and the rear frame to a level above a rotatability threshold if: - an intermediate level of rotatability between the forward frame and the rear frame is determined to be below the rotatability threshold, and - an upcoming rollover situation for the articulated vehicle is indicated. - a rear vehicle section with a rear frame and at least one wheel axle supported by the rear frame, and - an articulation joint connecting the forward frame and the rear frame, and adapted to allow the forward frame and the rear frame to pivot in relation to each other with an adjustable level of rotatability, - increasing the level of rotatability between the forward frame and the rear frame to a level above a rotatability threshold if: - an intermediate level of rotatability between the forward frame and the rear frame is determined to be below the rotatability threshold, and - an upcoming rollover situation for the articulated vehicle is indicated. - an intermediate level of rotatability between the forward frame and the rear frame is determined to be below the rotatability threshold, and - an upcoming rollover situation for the articulated vehicle is indicated.
A heat exchanger adapted to be used in a vapor compression system, comprising: a shell with a longitudinal center axis extending generally parallel to a horizontal plane; a distributing part disposed inside of the shell, and configured and arranged to distribute a refrigerant; a tube bundle including a plurality of heat transfer tubes disposed inside of the shell below the distributing part so that the refrigerant discharged from the distributor is supplied onto the tube bundle, the heat transfer tubes extending generally parallel to the longitudinal center axis of the shell, the tube bundle including a falling film region disposed below the distributing part, and a flooded region disposed at a bottom portion of the shell; characterized in that the tube bundle further includes an accumulating region disposed below the falling film region, wherein the flooded region is disposed below the accumulating region and that the heat exchanger further comprises a trough part extending generally parallel to the longitudinal center axis of the shell under at least one of the heat transfer tubes in the accumulating region to accumulate the refrigerant therein, the trough part at least partially overlapping with the at least one of the heat transfer tubes in the accumulating region when viewed along a horizontal direction perpendicular to the longitudinal center axis of the shell. a shell with a longitudinal center axis extending generally parallel to a horizontal plane; a distributing part disposed inside of the shell, and configured and arranged to distribute a refrigerant; a tube bundle including a plurality of heat transfer tubes disposed inside of the shell below the distributing part so that the refrigerant discharged from the distributor is supplied onto the tube bundle, the heat transfer tubes extending generally parallel to the longitudinal center axis of the shell, the tube bundle including a falling film region disposed below the distributing part, and a flooded region disposed at a bottom portion of the shell; a falling film region disposed below the distributing part, and a flooded region disposed at a bottom portion of the shell; characterized in that the tube bundle further includes an accumulating region disposed below the falling film region, wherein the flooded region is disposed below the accumulating region and that the heat exchanger further comprises a trough part extending generally parallel to the longitudinal center axis of the shell under at least one of the heat transfer tubes in the accumulating region to accumulate the refrigerant therein, the trough part at least partially overlapping with the at least one of the heat transfer tubes in the accumulating region when viewed along a horizontal direction perpendicular to the longitudinal center axis of the shell.
A memory cell (100, 200, 400, 400', 500), comprising: a magnetic cell core (101, 201, 401, 401', 501) comprising: a magnetic region (120, 320, 420) exhibiting a free magnetic orientation, the magnetic region comprising a depleted magnetic material formed from a precursor magnetic material comprising at least one diffusive species and at least one other species, the depleted magnetic material comprising the at least one other species; another magnetic region (110, 310) exhibiting a fixed magnetic orientation; an oxide region between the magnetic region and the another magnetic region; and an amorphous region (180, 280, 480, 480') proximate to the magnetic region, the amorphous region formed from a precursor trap material comprising at least one attracter species having at least one trap site and a chemical affinity for the at least one diffusive species that is higher than a chemical affinity of the at least one other species for the at least one diffusive species, the amorphous region comprising the at least one attracter species bonded to the at least one diffusive species from the precursor magnetic material, the at least one attracter species comprising at least one of tungsten, hafnium, molybdenum and zirconium and at least another attracter species comprising at least one of iron, cobalt, ruthenium, and nickel. a magnetic region (120, 320, 420) exhibiting a free magnetic orientation, the magnetic region comprising a depleted magnetic material formed from a precursor magnetic material comprising at least one diffusive species and at least one other species, the depleted magnetic material comprising the at least one other species; another magnetic region (110, 310) exhibiting a fixed magnetic orientation; an oxide region between the magnetic region and the another magnetic region; and an amorphous region (180, 280, 480, 480') proximate to the magnetic region, the amorphous region formed from a precursor trap material comprising at least one attracter species having at least one trap site and a chemical affinity for the at least one diffusive species that is higher than a chemical affinity of the at least one other species for the at least one diffusive species, the amorphous region comprising the at least one attracter species bonded to the at least one diffusive species from the precursor magnetic material, the at least one attracter species comprising at least one of tungsten, hafnium, molybdenum and zirconium and at least another attracter species comprising at least one of iron, cobalt, ruthenium, and nickel.
A heterogeneous integrated circuit (100, 400, 500) comprising: a voltage converter configured to receive an input voltage, and to convert the input voltage to an output voltage that is different from the input voltage, wherein the voltage converter comprises a first gallium nitride, GaN, FET and a second GaN FET, the first GaN FET having a drain couplable to a positive terminal of a power source and a source coupled to a drain of the second GaN FET and the second switch FET being coupled between the source of the first GaN FET and couplable to a negative terminal of the power source, wherein the voltage converter comprises a digital PWM circuit (104, 200), and wherein the digital PWM circuit is implemented as a CMOS device; and a feedback circuit configured to receive the output voltage, and to generate a control signal used to vary a pulse width of a PWM signal generated by the PWM circuit, the PWM signal being applied to a gate of the first GaN FET and the second GaN FET, wherein the voltage converter and the feedback circuit are integrated with the digital PWM circuit on a common substrate. a voltage converter configured to receive an input voltage, and to convert the input voltage to an output voltage that is different from the input voltage, wherein the voltage converter comprises a first gallium nitride, GaN, FET and a second GaN FET, the first GaN FET having a drain couplable to a positive terminal of a power source and a source coupled to a drain of the second GaN FET and the second switch FET being coupled between the source of the first GaN FET and couplable to a negative terminal of the power source, wherein the voltage converter comprises a digital PWM circuit (104, 200), and wherein the digital PWM circuit is implemented as a CMOS device; and a feedback circuit configured to receive the output voltage, and to generate a control signal used to vary a pulse width of a PWM signal generated by the PWM circuit, the PWM signal being applied to a gate of the first GaN FET and the second GaN FET, wherein the voltage converter and the feedback circuit are integrated with the digital PWM circuit on a common substrate.
A lithium ion secondary battery, comprising a positive electrode plate, a negative electrode plate, a separator, and an electrolyte, the positive electrode plate comprising a positive active material layer, and the negative electrode plate comprising a negative active material layer, wherein: the positive active material layer comprises a lithium manganese-based positive active material as a positive active material; the negative active material layer and/or electrolyte comprise a sulfur-containing compound so that the sulfur-containing compound forms a sulfur-containing solid electrolyte interface film in the negative active material layer, and the mass percentage v of the sulfur element present in the negative active material layer containing the interface film and the mass percentage u of the manganese element present in the positive active material satisfy the following formula: v = 0.018u + ω, in which u and v both are in wt% and ω is 0.01 ∼ 2; and the negative active material layer has a compaction density in the range of 1.3 g/cm 3 ∼1.65 g/cm 3 and the positive active material layer has a compaction density in the range of 3.0 g/cm 3 ∼3.6 g/cm 3. the positive active material layer comprises a lithium manganese-based positive active material as a positive active material; the negative active material layer and/or electrolyte comprise a sulfur-containing compound so that the sulfur-containing compound forms a sulfur-containing solid electrolyte interface film in the negative active material layer, and the mass percentage v of the sulfur element present in the negative active material layer containing the interface film and the mass percentage u of the manganese element present in the positive active material satisfy the following formula: v = 0.018u + ω, in which u and v both are in wt% and ω is 0.01 ∼ 2; and the negative active material layer has a compaction density in the range of 1.3 g/cm 3 ∼1.65 g/cm 3 and the positive active material layer has a compaction density in the range of 3.0 g/cm 3 ∼3.6 g/cm 3.
A back light unit, comprising: a light source; a plate (20,50) disposed at a predetermined interval from the light source; characterised by further comprising: a first reflection pattern and a second reflection pattern disposed on respective sides of the plate (20,50), wherein the first reflection pattern includes a plurality of first reflection units disposed on one side of the plate (20,50) at predetermined intervals, and the second reflection pattern 40 includes a second reflection unit disposed on the other side of the plate (20,50) without overlapping with the plurality of first reflection units. a light source; a plate (20,50) disposed at a predetermined interval from the light source; characterised by further comprising: a first reflection pattern and a second reflection pattern disposed on respective sides of the plate (20,50), wherein the first reflection pattern includes a plurality of first reflection units disposed on one side of the plate (20,50) at predetermined intervals, and the second reflection pattern 40 includes a second reflection unit disposed on the other side of the plate (20,50) without overlapping with the plurality of first reflection units. a first reflection pattern and a second reflection pattern disposed on respective sides of the plate (20,50), wherein the first reflection pattern includes a plurality of first reflection units disposed on one side of the plate (20,50) at predetermined intervals, and the second reflection pattern 40 includes a second reflection unit disposed on the other side of the plate (20,50) without overlapping with the plurality of first reflection units.
A liquid coating machine including transport means for transporting a sheet, a stencil printing cylinder, provided below the transport means, for coating a liquid on the sheet transported by the transport means, and a plate replacing work space whose upper side is closed, with respect to which a transport direction of the sheet is restrained by another device of the liquid coating machine and a liquid coating unit including the stencil printing cylinder, which is open in at least one of directions orthogonal to the transport direction of the sheet, and where an operator performs work of replacing a stencil printing plate, characterized in that the liquid coating machine comprises: a plate rest provided below the stencil printing cylinder and supported to be movable to a first position within the liquid coating unit and a second position within the plate replacing work space, and an ink pan supported by the plate rest, and the stencil printing plate is supported by the plate rest via the ink pan. a plate rest provided below the stencil printing cylinder and supported to be movable to a first position within the liquid coating unit and a second position within the plate replacing work space, and an ink pan supported by the plate rest, and the stencil printing plate is supported by the plate rest via the ink pan.
An electronic device comprising: a housing including a front surface and a rear surface opposite to the front surface; a display provided on a side of the front surface of the housing, the display including a first side on a lower side and a second side on an upper side; a light source provided inside the housing and on the lower side; a light guide plate provided between the display and the rear surface, the light guide plate illuminating the display by guiding light from the light source to the upper side from the lower side of the display; and a mark portion provided in the rear surface of the housing, the mark portion including a portion that shines as light from the light source passes, wherein with a lower end of the mark portion being defined as a first end and with an upper end of the mark portion being defined as a second end, when viewed in a direction from the rear surface toward the front surface, characterized in that the light source is located between the first end and the second end and a distance from the second end to the light source is longer than a distance from the first end to the light source. a housing including a front surface and a rear surface opposite to the front surface; a display provided on a side of the front surface of the housing, the display including a first side on a lower side and a second side on an upper side; a light source provided inside the housing and on the lower side; a light guide plate provided between the display and the rear surface, the light guide plate illuminating the display by guiding light from the light source to the upper side from the lower side of the display; and a mark portion provided in the rear surface of the housing, the mark portion including a portion that shines as light from the light source passes, wherein with a lower end of the mark portion being defined as a first end and with an upper end of the mark portion being defined as a second end, when viewed in a direction from the rear surface toward the front surface, characterized in that the light source is located between the first end and the second end and a distance from the second end to the light source is longer than a distance from the first end to the light source.
A user plane selection method, which is performed by a central unit of a radio access network, comprising: receiving, by the central unit, a service establishment request message sent by a user equipment, and obtaining a distributed unit via which the service establishment request message is received; obtaining at least one user plane division mode supported by the distributed unit, and sending the at least one user plane division mode together with the service establishment request message to a core network; receiving a service establishment message sent from the core network, wherein the service establishment message is configured to require the central unit to establish a service bearing for the user equipment in accordance with a corresponding service bearing mode, and the corresponding service bearing mode is selectable, by the core network, according to a final user plane division mode selectable by the core network from the at least one user plane division mode; and establishing, by the central unit, a user plane in the central unit and the distributed unit according to the final user plane division mode selectable by the core network. receiving, by the central unit, a service establishment request message sent by a user equipment, and obtaining a distributed unit via which the service establishment request message is received; obtaining at least one user plane division mode supported by the distributed unit, and sending the at least one user plane division mode together with the service establishment request message to a core network; receiving a service establishment message sent from the core network, wherein the service establishment message is configured to require the central unit to establish a service bearing for the user equipment in accordance with a corresponding service bearing mode, and the corresponding service bearing mode is selectable, by the core network, according to a final user plane division mode selectable by the core network from the at least one user plane division mode; and establishing, by the central unit, a user plane in the central unit and the distributed unit according to the final user plane division mode selectable by the core network.