mhurhangee/ep-ind-claims huggingface dataset:
A fire retaining wall structure assembly for partitioning adjacent spaces (2a, 2b), comprising: a first frame comprising a set of vertically extending first studs spaced apart from each other in a first lateral direction, and one or more first cladding elements attached at least to one or more of the first vertically extending studs, thereby forming a first outer surface, a second frame comprising a set of vertically extending second studs spaced apart from each other in a first lateral direction, and one or more second cladding elements attached at least to one or more of the second vertically extending studs, thereby forming a second outer surface, wherein the first frame and the second frame are separate from each other and spaced apart from each other in a second lateral direction, and wherein the wall structure assembly further comprises a fire-retaining intermediate layer formed by one or more intermediate board elements supported between the first frame and the second frame, characterised in that said intermediate layer is unattached at least to the first vertical studs and the second vertical studs, and in that either the first outer surface is equipped with at least an opening for allowing ventilation of the space between the first outer surface and the intermediate layer, the second outer surface is equipped with at least an opening for allowing ventilation of the space between the second outer surface and the intermediate layer, or both. a first frame comprising a set of vertically extending first studs spaced apart from each other in a first lateral direction, and one or more first cladding elements attached at least to one or more of the first vertically extending studs, thereby forming a first outer surface, a second frame comprising a set of vertically extending second studs spaced apart from each other in a first lateral direction, and one or more second cladding elements attached at least to one or more of the second vertically extending studs, thereby forming a second outer surface, wherein the first frame and the second frame are separate from each other and spaced apart from each other in a second lateral direction, and wherein the wall structure assembly further comprises a fire-retaining intermediate layer formed by one or more intermediate board elements supported between the first frame and the second frame, characterised in that said intermediate layer is unattached at least to the first vertical studs and the second vertical studs, and in that either the first outer surface is equipped with at least an opening for allowing ventilation of the space between the first outer surface and the intermediate layer, the second outer surface is equipped with at least an opening for allowing ventilation of the space between the second outer surface and the intermediate layer, or both.
A recording apparatus comprising: a recording head that includes a nozzle and is configured to discharge liquid through the nozzle on the basis of image data, the recording apparatus being configured to receive a set of image data without causing a PC or the like to convert the set of image data to obtain an additional set of converted image data, and being capable of adjusting the image density level of an image formed on a recorded medium P in accordance with the type of the recorded medium P for use in recording, and the like, on the basis of the received set of image data, the recording apparatus being configured such that, when the recording head discharges the liquid onto the recorded medium on the basis of pixel data constituting the image data and corresponding to any one of recording target pixels, the liquid is discharged such that the liquid landed on the recorded medium indicates any one of a plurality of image density levels in accordance with the type of the recording medium; the recording apparatus further comprising a movement portion configured to cause the recording head to move relative to the recorded medium in a direction intersecting a nozzle row direction in which a plurality of the nozzles are arranged, wherein: the recording apparatus is configured such that, when the recording head discharges the liquid onto the recorded medium on the basis of the pixel data corresponding to any one of the recording target pixels, in a case where the liquid is discharged a plurality of times through one of the nozzles during one movement of the recording head, the movement portion makes a speed of the movement of the recording head lower, as compared with a case where the liquid is discharged only once through the one of the nozzles during the one movement of the recording head. a recording head that includes a nozzle and is configured to discharge liquid through the nozzle on the basis of image data, the recording apparatus being configured to receive a set of image data without causing a PC or the like to convert the set of image data to obtain an additional set of converted image data, and being capable of adjusting the image density level of an image formed on a recorded medium P in accordance with the type of the recorded medium P for use in recording, and the like, on the basis of the received set of image data,
A device for driving an elongated construction element, such as a pile, a tubular post, a profiled beam, or a sheet pile segment, into a ground layer and/or for pulling the elongated construction element from the ground layer, wherein the device comprises at least two actuators and a base with an aperture and a clamping device; wherein each of the actuators is fixedly mounted onto the base and wherein the actuators are arranged around the aperture on the base; wherein the aperture defines a passageway that extends along the axial direction through the base and terminates on two axially opposite sides (54, 55) of the base, wherein the aperture is adapted to receive a part of the elongated construction element such that the construction element extends substantially along the axial direction through the base; and wherein the clamping member is arranged on or around the aperture, and is adapted for temporarily fixing and preventing translation of the construction element in the axial direction relative to the base, characterized in that the device is configured to use a plurality of elongated auxiliary elements that are placed in the ground layer for generating reactive forces and in that each of the actuators is provided with a coupling member for releasably coupling the actuator with a respective auxiliary element and for exerting, along an axial direction and relative to the base, both vertical pushing forces on the auxiliary element for driving the respective auxiliary element deeper into the ground and vertical pulling forces on the auxiliary element for pulling the respective auxiliary element from the ground.
Suction cleaning device, in particular a robot vacuum cleaner, which comprises a fan for conveying suction material from a surface to be cleaned into a suction material chamber, and an accumulator having one or more accumulator cells for operating the fan, it being possible to dissipate heat generated by the accumulator by means of an airflow produced by the fan, the accumulator, together with an accumulator housing, furthermore forming a module unit arranged in the suction cleaning device, which module unit in turn forms a portion of a flow channel for the air flow, so that the air flow can be conveyed through the module unit, characterised in that the module unit is arranged on a suction side of the fan.
Turbine system for wind and/or water power comprising two radial turbines (1, 2), each radial turbine (1, 2) comprising a rotor which can be rotated about a shaft and comprises one or more turbine blades (25, 203), the turbine blades (25, 203) being aligned in parallel with the rotor, the turbine blades (25, 203) being arranged inside a cylindrical shell that is arranged concentrically about the shaft and has an external radius R1 and an internal radius R2, each turbine blade (25, 203) having a first region that extends from the internal radius R2 to the external radius R1, is curved towards the shaft, and has a radius of curvature R3, and each turbine blade (25, 203) having a second region that is connected externally to the first region, is located on the outer face of the cylindrical shell, has a width B2 and has a curvature towards the shaft, the curvature pointing towards the same side as the curvature of the first region and having a radius of curvature R4, characterised in that • the internal radius is R 2 = f 1 × R 1, in which f1 = 0.19 to 0.32, • in that the radius of curvature is R 3 = f 2 × R 1, in which f2 = 1.2 to 2.4, and • in that the radius of curvature R4 of the second region is R 4 = f 3 × R 1, in which f3 > 0.7, • in that the second region has a width of B 2 = f 8 × R 1, in which f8 = 0.11 to 0.19, and • in that two radial turbines (1, 2) that are aligned next to one another and in parallel are arranged having a vertical rotational shaft, are interconnected, and can be pivoted about a pivot shaft in parallel with the turbine shafts, the pivot shaft and a V-shaped wind splitter are located outside the connecting line of the turbine shafts and are both on the same side of the connecting line, • in that the radial turbines (1, 2) comprise stationary endplates at the top and bottom ends, and • in that the turbine blades (25, 203) are mounted on brackets that are in turn fixed to the shaft. • the internal radius is R 2 = f 1 × R 1, • in that the radius of curvature is R 3 = f 2 × R 1, in which f2 = 1.2 to 2.4, and • in that the radius of curvature R4 of the second region is R 4 = f 3 × R 1, in which f3 > 0.7, • in that the second region has a width of B 2 = f 8 × R 1, in which f8 = 0.11 to 0.19, and • in that two radial turbines (1, 2) that are aligned next to one another and in parallel are arranged having a vertical rotational shaft, are interconnected, and can be pivoted about a pivot shaft in parallel with the turbine shafts, the pivot shaft and a V-shaped wind splitter are located outside the connecting line of the turbine shafts and are both on the same side of the connecting line, • in that the radial turbines (1, 2) comprise stationary endplates at the top and bottom ends, and • in that the turbine blades (25, 203) are mounted on brackets that are in turn fixed to the shaft.
A shaft seal assembly (17,19) configured to sealingly separate a high-pressure region and a low-pressure region in a rotary equipment, the shaft seal assembly comprising: a rotary seal member adapted to be drivingly coupled to a rotary shaft of the rotary equipment for co-rotation therewith; a stationary porous seal member adapted to be coupled to a stationary housing of the rotary equipment and extending around the rotary seal member; and at least a seal gas inlet port adapted to communicate a pressurized seal gas to the stationary porous seal member; characterised in that the rotary seal member has a conical outer sealing surface and the stationary porous seal member has a conical inner sealing surface, wherein the conical inner sealing surface faces the conical outer sealing surface. a rotary seal member adapted to be drivingly coupled to a rotary shaft of the rotary equipment for co-rotation therewith; a stationary porous seal member adapted to be coupled to a stationary housing of the rotary equipment and extending around the rotary seal member; and at least a seal gas inlet port adapted to communicate a pressurized seal gas to the stationary porous seal member; characterised in that the rotary seal member has a conical outer sealing surface and the stationary porous seal member has a conical inner sealing surface, wherein the conical inner sealing surface faces the conical outer sealing surface.
A method of operating a navigation system of a vehicle, the method comprising: - performing a route search to determine a route along road segments (3, 3a, 3b, 3c, 3d) from a current location of the vehicle to a destination, - determining a current amount of available energy of the vehicle, - determining accumulated energy consumption costs required for travelling to a respective one of the plurality of the road segments (3, 3a, 3b, 3c, 3d) along the determined route, - for a plurality of the road segments (3, 3a, 3b, 3c, 3d), comparing the current amount of available energy with the accumulated energy consumption costs to obtain an amount of available energy when reaching the respective road segment, - graphically indicating the route in a map view, wherein each of the plurality of the road segments (3, 3a, 3b, 3c, 3d) is indicated using colours (5a, 5b, 5c, 5d), the colours (5a, 5b, 5c, 5d) being indicative of the amount of available energy when reaching the respective road segment, characterized in that some of the used colours (5a, 5b, 5c, 5d) are indicative of a intermediate amount of available energy situated between a maximum level of available energy and no available energy, wherein consecutive road segments (3, 3a, 3b, 3c, 3d) in the map view are indicated using gradually changing colours (5a, 5b, 5c, 5d). - performing a route search to determine a route along road segments (3, 3a, 3b, 3c, 3d) from a current location of the vehicle to a destination, - determining a current amount of available energy of the vehicle, - determining accumulated energy consumption costs required for travelling to a respective one of the plurality of the road segments (3, 3a, 3b, 3c, 3d) along the determined route, - for a plurality of the road segments (3, 3a, 3b, 3c, 3d), comparing the current amount of available energy with the accumulated energy consumption costs to obtain an amount of available energy when reaching the respective road segment, - graphically indicating the route in a map view, wherein each of the plurality of the road segments (3, 3a, 3b, 3c, 3d) is indicated using colours (5a, 5b, 5c, 5d), the colours (5a, 5b, 5c, 5d) being indicative of the amount of available energy when reaching the respective road segment,
An electric power tool comprising: a brushless motor comprising a stator and a rotor which is capable of rotating relative to the stator; the stator comprising a stator core, an insulating member held by the stator core, a coil wound on the stator core via the insulating member, and a coil-side terminal (51A to 51C) which is held by the insulating member and connected with the coil; and a lead wire-side terminal (77A,77B, 77C) to which a lead wire for supplying power to the coil is connected, wherein the coil-side terminal (51A to 51C) includes a fusing portion and an extension portion connecting with the fusing portion and extends along the circumferential direction of the stator at a predetermined position in the circumferential direction of the stator, wherein a plurality of the lead wire-side terminals (77A to 77C) are integrally molded from a synthetic resin to form a terminal unit, and each lead wire-side terminal (77A, 77B, 77C) is screw-fastened to the coil-side terminal (51A, 51B, 51C) in a state where the terminal unit is assembled to a connection plate formed in the insulating member, wherein the terminal unit is assembled in a state of sandwiching the connection plate. a brushless motor comprising a stator and a rotor which is capable of rotating relative to the stator; the stator comprising a stator core, an insulating member held by the stator core, a coil wound on the stator core via the insulating member, and a coil-side terminal (51A to 51C) which is held by the insulating member and connected with the coil; and a lead wire-side terminal (77A,77B, 77C) to which a lead wire for supplying power to the coil is connected, wherein the coil-side terminal (51A to 51C) includes a fusing portion and an extension portion connecting with the fusing portion and extends along the circumferential direction of the stator at a predetermined position in the circumferential direction of the stator, wherein a plurality of the lead wire-side terminals (77A to 77C) are integrally molded from a synthetic resin to form a terminal unit, and each lead wire-side terminal (77A, 77B, 77C) is screw-fastened to the coil-side terminal (51A, 51B, 51C) in a state where the terminal unit is assembled to a connection plate formed in the insulating member, wherein the terminal unit is assembled in a state of sandwiching the connection plate.
A reel assembly of an agricultural harvester, the reel assembly including a tine rotation mechanism, the tine rotation mechanism comprising a non-rotating element, wherein the tine rotation mechanism is configured to drive tines of the reel assembly to rotate relative to a rotating structure of the reel assembly, the reel assembly comprising a monitoring system comprising: a load sensor; and a controller communicatively coupled to the load sensor, wherein the controller comprises a memory and a processor, and the controller is configured to receive a sensor signal from the load sensor; characterized in that: the load sensor is configured to couple to the non-rotating element of the tine rotation mechanism of the reel assembly, wherein the load sensor is configured to output the sensor signal indicative of a mechanism load applied by the tines to the non-rotating element of the tine rotation mechanism; and wherein the controller is configured to determine a crop load of crops acting on the tines based on the mechanism load. a load sensor; and a controller communicatively coupled to the load sensor, wherein the controller comprises a memory and a processor, and the controller is configured to receive a sensor signal from the load sensor; characterized in that: the load sensor is configured to couple to the non-rotating element of the tine rotation mechanism of the reel assembly, wherein the load sensor is configured to output the sensor signal indicative of a mechanism load applied by the tines to the non-rotating element of the tine rotation mechanism; and wherein the controller is configured to determine a crop load of crops acting on the tines based on the mechanism load. the load sensor is configured to couple to the non-rotating element of the tine rotation mechanism of the reel assembly, wherein the load sensor is configured to output the sensor signal indicative of a mechanism load applied by the tines to the non-rotating element of the tine rotation mechanism; and wherein the controller is configured to determine a crop load of crops acting on the tines based on the mechanism load.
A humidifier (100, 300, 500) comprising: a reservoir (101, 3 0 1, 501) configured to hold water; humidifier equipment (106, 107, 305, 504) in fluid communications with the reservoir to generate humidified air using water held in the reservoir, the humidifier equipment comprising a heat source (107, 305, 505); and an enclosure (111, 320, 511) at least partially enclosing the heat source; characterized in that the humidifier further comprises a holder (103, 310, 506) configured to hold a scent-releasing element (303a, 303b, 507), the holder thermally coupled to the enclosure, characterized by the holder comprising: a slot (103, 310) comprising a first surface and configured to removably hold the scent-releasing element in contact with the first surface; wherein the slot is further configured for placement in the humidifier so that the first surface contacts the enclosure of the heat source in the humidifier. a reservoir (101, 3 0 1, 501) configured to hold water; humidifier equipment (106, 107, 305, 504) in fluid communications with the reservoir to generate humidified air using water held in the reservoir, the humidifier equipment comprising a heat source (107, 305, 505); and an enclosure (111, 320, 511) at least partially enclosing the heat source; a slot (103, 310) comprising a first surface and configured to removably hold the scent-releasing element in contact with the first surface; wherein the slot is further configured for placement in the humidifier so that the first surface contacts the enclosure of the heat source in the humidifier.
Security element, comprising a substrate (S; S') that, on one of its sides, includes at least one security feature (F2; F3; F3; F4; F5; F6; F2'; F2"; F4'; F6') extending over a first area, the security feature (F2; F3; F3; F4; F5; F6; F2'; F2"; F4'; F6') being configured in the form of a three-dimensional intaglio structure or at least comprising such an intaglio structure, the intaglio structure comprising raised first image elements (002; 008) that, at least in the area of their upper side, contain intaglio printing ink of a first color, at least one of the first image elements (002; 008) being situated adjacent to at least one further image element (003; 004; 006; 007; 009; 011; 012) comprised by the intaglio structure, which has a second color (c2; c3; cS) that differs from the first color, characterized in that a first group (G1; G3) comprised by the security feature (F2; F3; F3; F4; F5; F6; F2'; F2"; F4'; F6'), comprising a plurality of first raised image elements (002; 008) containing intaglio printing ink of the first color and at least one second group (G2; G4; G5; G6) comprised by the security feature (F2, F3; F3; F4; F5; F6; F2'; F2"; F4'; F6'), comprising a plurality of raised image elements (004; 009; 011; 012) containing intaglio printing ink of a second color (c2; c3; cS) that differs from the first color are provided and arranged offset and spaced apart from one another such that they form an optically variable structure and/or at least some of the mutually adjacent image elements (002; 004; 008; 009; 011; 012), which differ from one another in the color (c1; c2; c3; cS), occlude or expose one another to varying degrees from a varying viewing angle (φ).