mhurhangee/ep-ind-claims huggingface dataset:
A forklift comprising a load carrier, movably coupled to a mast, a control unit, at least one drive wheel, at least one support wheel, and at least one sensor device for detection of a guiding device, wherein the forklift may be operated in a free-range mode and at least a semi-automatic mode where the guiding device provides for at least partly controlling of the forklift, characterized in that it comprises at least one auxiliary wheel, selectively movable between a lower position in which a resilient contact between an underlying floor surface and said at least one auxiliary wheel is established, and an elevated position in which said at least one auxiliary wheel is elevated from said floor surface, wherein the control unit is arranged to receive an indication that a load carrier operation is initiated, wherein said load carrier operation is a vertical movement of the load carrier and detect that the at least one auxiliary wheel is in resilient contact with the underlying floor surface, wherein the control unit is arranged to control the at least one auxiliary wheel to shift from a resilient contact to a rigid contact with the underlying floor surface.
An anchorage device for the anchorage of a machine, in particular a crane, to a foundation, with a square anchorage frame to hold the machine, wherein the anchorage frame is connected at each of its corner points by at least one pipe, in particular a square-section pipe, to at least one counterplate, wherein at least one tensile element can be inserted through the pipe for the detachable anchorage of the anchorage frame with the counterplate or counterplates.
A composition comprising one or more soy isoflavones obtained from soy for use in preventing or treating muscle atrophy or sarcopenia in a dog, wherein the isoflavones are selected from the group consisting of daidzein, daidzin, glycitein, equol, genistein, and glycitin.
Apparatus for supplying energy to an electronic component on a two-terminal network, wherein the apparatus has at least one first energy unit, which is embodied as a fuel cell stack, and at least one second energy unit, wherein the second energy unit is coupled to an energy control element with which voltage adjustment can be realized for the purpose of achieving a virtually constant voltage supply for the electrical component, characterized in that the two-terminal network has a switchover apparatus by way of which the fuel cell stack can be connected in series or in parallel with the second energy unit, wherein the voltage at the two-terminal network can be set by the energy control element, in that the energy control element is a DC/DC converter, in that the switchover apparatus has a first semiconductor component with two semiconductor switching elements (T2', T2"), which first semiconductor component fulfils the function of a toggle switch, in that the switchover apparatus has a second semiconductor component which has two semiconductor switching elements (T3', T3") which are connected in parallel, and in that a bidirectional energy flow can be realized by way of the second semiconductor component.
A filter element having a pleated pack made of filter material folded in a zigzag shape, having sidebands (14, 15) attached to folding profiles of the pleated pack, and having at least one sealing section (5C, 16B) projecting at an angle from the pleated pack at the head side of an end fold section (5A, 16A), wherein the sealing section (5C, 16B) comprises at least one cutout in the shape of a closed recess for accommodating a corresponding filter housing contour (23, 26).
Use of a water-based, carbon filler-dispersed coating formulation for forming a conductive coating film of an electrode plate for an electricity storage device, which electrode plate comprising a collector, an electrode active material layer, and the conductive coating film arranged between the collector and the electrode active material layer, wherein the water-based, carbon filler-dispersed coating formulation comprises: a hydroxyalkyl chitosan as a resin binder, a conductive carbon filler, and a polybasic acid or a derivative thereof in a water-based medium which is water or a mixed dispersion medium formed by mixing water and an organic solvent miscible with water, wherein the amount of organic solvent being added with the organic solvent/water is from 1 to 70 parts by mass, wherein in 100 parts by mass of the coating formulation, the hydroxyalkyl chitosan is contained in a range of from 0.1 to 20 parts by mass, and the conductive carbon filler is contained in a range of from 1 to 30 parts by mass. a hydroxyalkyl chitosan as a resin binder, a conductive carbon filler, and a polybasic acid or a derivative thereof in a water-based medium which is water or a mixed dispersion medium formed by mixing water and an organic solvent miscible with water, wherein the amount of organic solvent being added with the organic solvent/water is from 1 to 70 parts by mass, wherein in 100 parts by mass of the coating formulation, the hydroxyalkyl chitosan is contained in a range of from 0.1 to 20 parts by mass, and the conductive carbon filler is contained in a range of from 1 to 30 parts by mass.
A refrigerator, comprising: a main body; a storage room formed inside the main body; a center frame disposed at a center of the storage room to be spaced apart from side walls of the storage room, the center frame having guides (113, 123) extending in a front-rear direction of the storage room; and a plurality of shelves detachably coupled with the guides (113, 123) and movable along the guides (113, 123), the plurality of shelves including a first shelf, and a second shelf, characterized in that the first shelf is placed in front of the second shelf along the guides when a portion of the first shelf is facing upward, wherein when the first shelf is turned over so that the portion of the first shelf, which is facing upward when the first shelf is placed in front of the second shelf along the guides (113, 123), is facing downward, the first shelf is movable along the guides (113, 123) along which the second shelf moves, to be positioned below the second shelf. a main body; a storage room formed inside the main body; a center frame disposed at a center of the storage room to be spaced apart from side walls of the storage room, the center frame having guides (113, 123) extending in a front-rear direction of the storage room; and a plurality of shelves detachably coupled with the guides (113, 123) and movable along the guides (113, 123), the plurality of shelves including a first shelf, and a second shelf, characterized in that the first shelf is placed in front of the second shelf along the guides when a portion of the first shelf is facing upward, wherein when the first shelf is turned over so that the portion of the first shelf, which is facing upward when the first shelf is placed in front of the second shelf along the guides (113, 123), is facing downward, the first shelf is movable along the guides (113, 123) along which the second shelf moves, to be positioned below the second shelf.
An earphone socket, comprising: a housing, defining a mounting cavity; a support bracket in the mounting cavity, the support bracket being provided with a first supporting passage; and a plurality of pins located between the support bracket and inner walls of the mounting cavity, wherein the plurality of pins passes through a back wall of the mounting cavity to expose outer ends of the plurality of pins, the plurality of pins comprises at least one first pin snapped into the first supporting passage, the at least one first pin is provided with a first limiting groove, and the first supporting passage is provided with a first limiting protrusion fitted with the first limiting groove therein, the at least one first pin is provided with a flexed portion flexed at a head portion rearwards towards the back wall, the flexed portion is provided with a protruding portion protruding towards a longitudinal axis of the mounting cavity, and the first limiting groove defines the protruding portion on the opposite side of the at least one first pin. a housing, defining a mounting cavity; a support bracket in the mounting cavity, the support bracket being provided with a first supporting passage; and a plurality of pins located between the support bracket and inner walls of the mounting cavity, wherein the plurality of pins passes through a back wall of the mounting cavity to expose outer ends of the plurality of pins, the plurality of pins comprises at least one first pin snapped into the first supporting passage, the at least one first pin is provided with a first limiting groove, and the first supporting passage is provided with a first limiting protrusion fitted with the first limiting groove therein, the at least one first pin is provided with a flexed portion flexed at a head portion rearwards towards the back wall, the flexed portion is provided with a protruding portion protruding towards a longitudinal axis of the mounting cavity, and the first limiting groove defines the protruding portion on the opposite side of the at least one first pin.
A drone for measuring odor concentration under real operating conditions, the drone comprising: - a measurement chamber housing therein at least one sensor configured for measuring at least one parameter of air samples with odor, - a first tube fluidically connected at a first end (1.1) to the measurement chamber and comprising a second free end (1.2), spaced from and located below the drone, through which the first tube collects air samples with odor; - a locating device comprising a position signal measurement element located at the second free end (1.2) of the first tube, and - at least one processing unit communicating with the at least one sensor and communicating with the locating device; wherein the processing unit is configured for processing and storing the sampling data measured in the measurement chamber and the positioning data of the locating device, and for determining the measured odor concentration, assigning to said data the position where it has been acquired. - a measurement chamber housing therein at least one sensor configured for measuring at least one parameter of air samples with odor, - a first tube fluidically connected at a first end (1.1) to the measurement chamber and comprising a second free end (1.2), spaced from and located below the drone, through which the first tube collects air samples with odor; - a locating device comprising a position signal measurement element located at the second free end (1.2) of the first tube, and - at least one processing unit communicating with the at least one sensor and communicating with the locating device;
A conveyor assembly comprising: a first frame supporting a first conveyor for feeding material in a first conveying direction; a second frame supporting a second conveyor for feeding material in a second conveying direction parallel to the first conveying direction, the second frame being movable with respect to the first frame along the second conveying direction between a retracted position and an extended position; a side shield connected to a side of the second frame, wherein the side shield shields the second conveyor laterally; and an elongate, flexible seal mounted to the side shield, wherein the flexible seal bridges a gap between the side shield and the second frame; characterized in that the flexible seal comprises a proximal part in a first position spaced from the second frame and a distal part in a second position abutting the second frame, wherein the proximal part of the flexible seal extends over a part of a length of the first frame and the distal part of the flexible seal extends over a part of a length of the second frame projecting beyond the first frame. a first frame supporting a first conveyor for feeding material in a first conveying direction; a second frame supporting a second conveyor for feeding material in a second conveying direction parallel to the first conveying direction, the second frame being movable with respect to the first frame along the second conveying direction between a retracted position and an extended position; a side shield connected to a side of the second frame, wherein the side shield shields the second conveyor laterally; and an elongate, flexible seal mounted to the side shield, wherein the flexible seal bridges a gap between the side shield and the second frame; characterized in that the flexible seal comprises a proximal part in a first position spaced from the second frame and a distal part in a second position abutting the second frame, wherein the proximal part of the flexible seal extends over a part of a length of the first frame and the distal part of the flexible seal extends over a part of a length of the second frame projecting beyond the first frame.
An image reading device comprising: a conveying unit for conveying an irradiated member in a conveying direction, said irradiated member having a surface with a hologram area thereon; a first light source which is a white coloured light source for applying light to an irradiated part in the hologram area; a second light source which is a quasi-white coloured light source composed of an LED array in which a plurality of light emitting sources, such as RGB, are present, separated from the first light source along the conveying direction, applying light to an irradiated part in the hologram area when the hologram area is conveyed by a prescribed distance, and provided so as to apply light to the irradiated part when the hologram area is conveyed by the prescribed distance at an irradiation angle different from an irradiation angle at which the irradiated part is irradiated with the light of the first light source; first and second lens arrays (9a, 9b) for respectively converging the lights of the first and second light sources reflected by the irradiated part in the hologram area, a respective optical axis of said first and second lens arrays being disposed to be orthogonal to said surface of said irradiated member; first and second sensors (10a, 10b) for receiving the lights respectively converged by the first and second lens arrays to photoelectrically convert the lights; and a checking unit for comparing output signals of the first and second sensors with each other to check whether a hologram in the hologram area of the irradiated member is true or false. a conveying unit for conveying an irradiated member in a conveying direction, said irradiated member having a surface with a hologram area thereon; a first light source which is a white coloured light source for applying light to an irradiated part in the hologram area; a second light source which is a quasi-white coloured light source composed of an LED array in which a plurality of light emitting sources, such as RGB, are present, separated from the first light source along the conveying direction, applying light to an irradiated part in the hologram area when the hologram area is conveyed by a prescribed distance, and provided so as to apply light to the irradiated part when the hologram area is conveyed by the prescribed distance at an irradiation angle different from an irradiation angle at which the irradiated part is irradiated with the light of the first light source; first and second lens arrays (9a, 9b) for respectively converging the lights of the first and second light sources reflected by the irradiated part in the hologram area, a respective optical axis of said first and second lens arrays being disposed to be orthogonal to said surface of said irradiated member; first and second sensors (10a, 10b) for receiving the lights respectively converged by the first and second lens arrays to photoelectrically convert the lights; and a checking unit for comparing output signals of the first and second sensors with each other to check whether a hologram in the hologram area of the irradiated member is true or false.
A work vehicle, comprising: - a chassis frame including a suspension platform; - a cab frame; and - a suspension system coupled between the chassis frame and the cab frame, the suspension system comprising: - a pad configured to be coupled to the cab frame; - an outer tube extending from the pad in a direction of the suspension platform, the outer tube defining a circumference; and - a bump stop coupled to the outer tube, the bump stop extending around a portion of the circumference of the outer tube, wherein at least a portion the bump stop extends below the outer tube such that the bump stop is configured to contact the suspension platform prior to the outer tube when the outer tube is moved in the direction of the suspension platform, characterized in that the circumference of the outer tube includes a corner point, wherein the bump stop is configured to extend around a portion of the circumference encompassing the corner point. - a chassis frame including a suspension platform; - a cab frame; and - a suspension system coupled between the chassis frame and the cab frame, the suspension system comprising: - a pad configured to be coupled to the cab frame; - an outer tube extending from the pad in a direction of the suspension platform, the outer tube defining a circumference; and - a bump stop coupled to the outer tube, the bump stop extending around a portion of the circumference of the outer tube,
A method of making a solid target assembly apparatus, the method comprising: providing a target backing substrate, wherein the target backing substrate has a front surface having a recess having a recess floor, and wherein the target backing substrate is made of a material selected from the group consisting of Al, Ag, and Cu; providing a quantity of Zn, wherein the quantity of Zn comprises at least 90% Zn-68; characterised by depositing the quantity of Zn into the recess; and bonding the quantity of Zn to the target backing substrate by heating the quantity of Zn to at least 419.5 °C until the quantity of Zn is melted, applying selective pressure to the target assembly apparatus during or immediately after the heating, and ceasing heating the quantity of Zn to ambient to allow the quantity of Zn to solidify. providing a target backing substrate, wherein the target backing substrate has a front surface having a recess having a recess floor, and wherein the target backing substrate is made of a material selected from the group consisting of Al, Ag, and Cu; wherein the target backing substrate has a front surface having a recess having a recess floor, and wherein the target backing substrate is made of a material selected from the group consisting of Al, Ag, and Cu; providing a quantity of Zn, wherein the quantity of Zn comprises at least 90% Zn-68; characterised by depositing the quantity of Zn into the recess; and bonding the quantity of Zn to the target backing substrate by heating the quantity of Zn to at least 419.5 °C until the quantity of Zn is melted, applying selective pressure to the target assembly apparatus during or immediately after the heating, and ceasing heating the quantity of Zn to ambient to allow the quantity of Zn to solidify.
A computer-implemented method (200, 600) of stratifying a population of patients into disease endotypes, the method comprising: encoding, using an autoencoder trained to reconstruct input data at an output, data (102, 400) relating to the patients as latent variables, wherein the latent variables comprise lower dimensional representations of the data relating to the patients in an intermediate layer of the autoencoder, the latent variables representing different groupings of related biological features; determining one or more importance measures of the latent variables, wherein the determining comprises encoding, using the autoencoder, the data relating to the patients a plurality of times and determining an extent of recurrence of the latent variables; prioritising the latent variables using the importance measures, the prioritising comprising ranking the latent variables from most important to least important for the disease; interpreting one or more of the latent variables above a priority threshold, wherein the interpreting comprises identifying genes that the latent variable encodes and identifying pathological gene expression patterns that the latent variables represent by applying gene enrichment analysis; and identifying a disease endotype that is represented by one or more of the interpreted latent variables, wherein the identifying comprises identifying a biological process underlying the disease using a gene expression pattern encoded in the one or more latent variables. encoding, using an autoencoder trained to reconstruct input data at an output, data (102, 400) relating to the patients as latent variables, wherein the latent variables comprise lower dimensional representations of the data relating to the patients in an intermediate layer of the autoencoder, the latent variables representing different groupings of related biological features; determining one or more importance measures of the latent variables, wherein the determining comprises encoding, using the autoencoder, the data relating to the patients a plurality of times and determining an extent of recurrence of the latent variables; prioritising the latent variables using the importance measures, the prioritising comprising ranking the latent variables from most important to least important for the disease; interpreting one or more of the latent variables above a priority threshold, wherein the interpreting comprises identifying genes that the latent variable encodes and identifying pathological gene expression patterns that the latent variables represent by applying gene enrichment analysis; and identifying a disease endotype that is represented by one or more of the interpreted latent variables, wherein the identifying comprises identifying a biological process underlying the disease using a gene expression pattern encoded in the one or more latent variables.