mhurhangee/ep-ind-claims huggingface dataset:
A device for receiving and for transporting loads, whereby said device can be attached to an industrial floor truck, comprising at least two load pick-up elements (14, 16), which are each installed on horizontally movable sliding arms (21, 22), that can be moved relative to each other by means of at least two drive elements (23, 24) or that can bring about a side travel movement parallel in the same direction horizontally in or counter to the x-direction, whereby the sliding arms (21, 22) are mounted on a shared upper sliding guide, and the load pick-up elements (14, 16) are guided on a shared guide rail in the y-direction below the sliding guide, whereby, in order to move the load pick-up elements (14, 16) horizontally, the at least two drive elements (23, 24) are configured relative to each other as moveable sliding arms (21, 22), and the at least two drive elements (23, 24) are each connected via a piston rod to a connection head (26, 27), and, in order to move the load pick-up elements (14, 16) in the same direction in parallel, the at least two drive elements (23, 24) are moved in that the connection heads (26, 27) are driven together simultaneously in the horizontal direction in or opposite to the x- direction, whereby the drive elements (23, 24) are at least partially integrated into the sliding guide, and the at least two drive elements (23, 24) that move the load pick-up elements (14, 16) relatively are on one axis relative to each other, characterized in that the connection heads (26, 27) of the at least two drive elements (23, 24) are connected to each other for purposes of the horizontal movement of the load pick-up elements (14, 16) relative to each other.
Process for the production of a cylinder oil comprising the steps: - providing a used oil, - providing a fresh cylinder oil, and - blending the used oil with the fresh cylinder oil, wherein the used oil has a lower TBN value than the fresh cylinder oil and wherein the cylinder oil and the fresh cylinder oil are all-loss cylinder oils for the use in crosshead diesel engines and comprise alkaline additives. - providing a used oil, - providing a fresh cylinder oil, and - blending the used oil with the fresh cylinder oil, wherein the used oil has a lower TBN value than the fresh cylinder oil and wherein the cylinder oil and the fresh cylinder oil are all-loss cylinder oils for the use in crosshead diesel engines and comprise alkaline additives.
An air supply structure of a heat pump water heater, comprising a fan and a casing, wherein the casing comprises, a first housing, provided with a first cavity; and a second housing, provided with a second cavity; the casing is internally provided with a chamber formed by the first cavity and the second cavity; the first housing is matched with the second housing; the chamber comprises, a clamping groove, for clamping the fan; and an air cavity, for forming an air path for the fan, and provided with an air inlet and an air outlet; the clamping groove and the air inlet are opposite arranged in an axial direction of the fan; the fan comprises, a working portion, comprising a motor and an impeller; and a clamping portion, embedded in the clamping groove; wherein the motor is mounted on the clamping portion; characterized in that the first housing is matched with the second housing to clamp the fan in the chamber; the air outlet faces a radial direction of the fan; the clamping portion is a fan fixing plate polygonal in shape and the clamping groove is matched with the fan fixing plate in shape to clamp the fan fixing plate into the chamber of the casing; and the impeller is located between the clamping portion and the air inlet. a first housing, provided with a first cavity; and a second housing, provided with a second cavity; the casing is internally provided with a chamber formed by the first cavity and the second cavity; the first housing is matched with the second housing; the chamber comprises, a clamping groove, for clamping the fan; and an air cavity, for forming an air path for the fan, and provided with an air inlet and an air outlet; the clamping groove and the air inlet are opposite arranged in an axial direction of the fan; a clamping groove, for clamping the fan; and an air cavity, for forming an air path for the fan, and provided with an air inlet and an air outlet; the clamping groove and the air inlet are opposite arranged in an axial direction of the fan; the fan comprises, a working portion, comprising a motor and an impeller; and a clamping portion, embedded in the clamping groove; wherein the motor is mounted on the clamping portion; a working portion, comprising a motor and an impeller; and a clamping portion, embedded in the clamping groove; wherein the motor is mounted on the clamping portion; characterized in that the first housing is matched with the second housing to clamp the fan in the chamber; the air outlet faces a radial direction of the fan; the clamping portion is a fan fixing plate polygonal in shape and the clamping groove is matched with the fan fixing plate in shape to clamp the fan fixing plate into the chamber of the casing; and the impeller is located between the clamping portion and the air inlet.
Current-conducting connector for electrical components with pin-type plug connections, namely to connect a minimum of two LED strips, - including a minimum of one metal part which is formed as contact carrier plate with a minimum of one receptacle for the pin-type plug connector and - that multiple contact carrier plates, separated from each other, are provided, whereby, each contact carrier plate is used to transmit current, with regard to a phase or pole, - including an insulation sleeve, that partly surrounds the contact carrier plates, characterized in that, - each contact carrier plate features two receptacles and the receptacles are provided on the contact carrier plate at a distance from one another, - that the completely level formed contact carrier plate includes a minimum of one engaging lug in each receptacle, whereby, the engaging lugs protrude into the respective receptacles of a contact carrier plate, - that the contact carrier plate is surrounded by an insulation sleeve, except for the receptacles, namely that the insulation sleeve has openings in the area of the receptacles, so that pin-type plug connector can be inserted through these openings in the insulation sleeve, vertically to the planar contact plate and through the receptacles of the planar contact plate. - including a minimum of one metal part which is formed as contact carrier plate with a minimum of one receptacle for the pin-type plug connector and - that multiple contact carrier plates, separated from each other, are provided, whereby, each contact carrier plate is used to transmit current, with regard to a phase or pole, - including an insulation sleeve, that partly surrounds the contact carrier plates, characterized in that, - each contact carrier plate features two receptacles and the receptacles are provided on the contact carrier plate at a distance from one another, - that the completely level formed contact carrier plate includes a minimum of one engaging lug in each receptacle, whereby, the engaging lugs protrude into the respective receptacles of a contact carrier plate, - that the contact carrier plate is surrounded by an insulation sleeve, except for the receptacles, namely that the insulation sleeve has openings in the area of the receptacles, so that pin-type plug connector can be inserted through these openings in the insulation sleeve, vertically to the planar contact plate and through the receptacles of the planar contact plate.
Apparatus for working bars, comprising a plurality of containing devices (11a-11f) disposed adjacent and parallel to each other and with an oblong development in respective longitudinal directions to contain a respective bundle (F1-F6) of bars (B1-B6) and at least a work station located downstream of said containing devices (11a-11f), said work station comprising at least a removal device to remove at least one bar (B1-B6) from one of said containing devices (11a-11f), at least a drawing unit configured to move the bars (B1-B6) in a direction of feed parallel to said longitudinal directions, and at least a bending device configured to bend said bars (B1-B6), said apparatus for working bars being characterized in that at least a drive member is associated with said work station, configured to move said work station in a transverse direction with respect to said longitudinal directions so as to take said removal device into correspondence with one or the other of said containing devices (11a-11f), which are substantially fixed in position.
Method for determining a primary voltage (U1j) of a transformer, said transformer having a no-load voltage ratio and comprising a primary winding for having the primary voltage (U1j) between its ends and for having a primary current pass through it, a secondary winding for having a secondary voltage (U2j) between its ends and for having a secondary current pass through it, and the method comprises the following steps: • measurement of the secondary voltage (U2j) by means of a voltage sensor (59A, 59B, 59C), • measurement of the primary current (I1j) by means of a first current sensor (56A, 56B, 56C), the method being characterised in that it additionally comprises the following steps: a) calculation of a drop in secondary voltage between the ends of the secondary winding as a function of characteristics of the transformer itself, the load factor of the transformer and the power factor of a load connected to the secondary winding at the output of the transformer, wherein the drop in secondary voltage is expressed as a percentage of a no-load nominal voltage associated with the transformer; b) calculation of the modulus |U1j| of the primary voltage as a function of the measured secondary voltage, the voltage drop calculated in step a) and the no-load voltage ratio; and c) calculation of the phase shift of the primary voltage (U1j) in relation to the measured primary current (I1j) as a function of the phase shift of the measured secondary voltage (U2j) in relation to the measured primary current (I1j). • measurement of the secondary voltage (U2j) by means of a voltage sensor (59A, 59B, 59C), • measurement of the primary current (I1j) by means of a first current sensor (56A, 56B, 56C), a) calculation of a drop in secondary voltage between the ends of the secondary winding as a function of characteristics of the transformer itself, the load factor of the transformer and the power factor of a load connected to the secondary winding at the output of the transformer, wherein the drop in secondary voltage is expressed as a percentage of a no-load nominal voltage associated with the transformer; b) calculation of the modulus |U1j| of the primary voltage as a function of the measured secondary voltage, the voltage drop calculated in step a) and the no-load voltage ratio; and c) calculation of the phase shift of the primary voltage (U1j) in relation to the measured primary current (I1j) as a function of the phase shift of the measured secondary voltage (U2j) in relation to the measured primary current (I1j).
Magnesium alloy consisting of 2 to 7.5 wt.% aluminum, 0.6 to 6 wt.% zinc, 0.1 to 2 wt.% manganese, 0 to 2 wt.% rare earth elements, 0.5 to 2 wt.% copper and optionally less than 0.005 wt.% nickel, less than 0.01 wt.% iron and/or less than 0.01 wt.% silicon and magnesium as remainder, based on the total weight of the magnesium alloy, wherein the weight percent ratio of aluminum to zinc is in the range of 1:1 to 2:1.
A nanopore based sequencing chip package, comprising: a reservoir defined by a plurality of surfaces, wherein the space within the reservoir is divided into one U-shaped channel; a nanopore cell array comprising a plurality of nanopore sensor cells enclosed by the reservoir, each nanopore sensor cell having a working electrode; wherein at least one surface of the reservoir is configured to be in contact with a conducting fluid when the conducting fluid is flowing through the reservoir; a counter electrode disposed on the at least one surface of the reservoir, wherein the counter electrode has a surface area with a U-shape., wherein the counter electrode is positioned substantially equidistant from each of the nanopore sensor cells, and wherein the counter electrode has a surface area with a shape that matches with the one U-shaped channel. a reservoir defined by a plurality of surfaces, wherein the space within the reservoir is divided into one U-shaped channel; a nanopore cell array comprising a plurality of nanopore sensor cells enclosed by the reservoir, each nanopore sensor cell having a working electrode; wherein at least one surface of the reservoir is configured to be in contact with a conducting fluid when the conducting fluid is flowing through the reservoir; a counter electrode disposed on the at least one surface of the reservoir, wherein the counter electrode has a surface area with a U-shape., wherein the counter electrode is positioned substantially equidistant from each of the nanopore sensor cells, and wherein the counter electrode has a surface area with a shape that matches with the one U-shaped channel.
An insulator comprising: a plurality of nanotube sheets positioned on top of one another; a plurality of nanotubes defining each sheet, and so configured as to minimize normal-to-plane thermal conductivity through each sheet; and a plurality of spacers situated between adjacent nanotube sheets in order to reduce intersheet contact, so as to further minimize normal-to-plane thermal conductivity through the sheets, wherein each nanotube sheet includes a dopant to decrease normal-to-plane thermal conductivity and wherein the dopant is boron, carbon 13, an irradiated CNT material, or a combination thereof. a plurality of nanotube sheets positioned on top of one another; a plurality of nanotubes defining each sheet, and so configured as to minimize normal-to-plane thermal conductivity through each sheet; and a plurality of spacers situated between adjacent nanotube sheets in order to reduce intersheet contact, so as to further minimize normal-to-plane thermal conductivity through the sheets, wherein each nanotube sheet includes a dopant to decrease normal-to-plane thermal conductivity and wherein the dopant is boron, carbon 13, an irradiated CNT material, or a combination thereof.
A supercritical-cycle heat pump that employs CO 2 refrigerant as a working medium comprising; a multistage compressor that is provided with a lower-stage compression mechanism and a higher-stage compression mechanism, that discharges intermediate-pressure refrigerant gas compressed by the lower-stage compression mechanism into a sealed housing, and that takes this refrigerant gas into the higher-stage compression mechanism to perform compression to high pressure; a radiator; a first electronic expansion valve; a gas-liquid separator; a second electronic expansion valve; an evaporator; an injection circuit for injecting intermediate-pressure refrigerant gas separated at the gas-liquid separator into the sealed housing of the multistage compressor; wherein a refrigerating cycle is formed in which the multistage compressor, the radiator, the first electronic expansion valve, the gas-liquid separator, the second electronic expansion valve, and the evaporator are connected in this order, and and further comprising a controller that controls pressure of the intermediate-pressure refrigerant by controlling the first electronic expansion valve so that the pressure of the intermediate-pressure is controlled within a preset usage limit range characterised in that said limit range is chosen in order to keep viscosity of oil which is employed as lubricant for the multistage compressor above a certain viscosity zone, the controller determining the viscosity of the oil on the basis of solubility of the oil in the CO 2 refrigerant and temperature of the oil, the solubility of the oil in the CO 2 refrigerant being determined by pressure and temperature of the intermediate-pressure refrigerant, wherein polyol-ester based oil or mixed oil of polyol-ester based oil is employed as the lubricant for the multistage compressor.
A method of predicting an effect of a treatment with trastuzumab on a HER2-positive breast cancer, comprising: analyzing a methylation level of a cytosine residue in one or more CpG sites present within a nucleotide sequence in an untranslated region of HSD17B4 gene in a sample taken from a human subject, wherein the CpG site comprises a CpG site normally present between positions 56 and 94 on the basis of a transcription start site; and predicting the effect of the treatment on the HER2-positive breast cancer based on the analyzed methylation level. analyzing a methylation level of a cytosine residue in one or more CpG sites present within a nucleotide sequence in an untranslated region of HSD17B4 gene in a sample taken from a human subject, wherein the CpG site comprises a CpG site normally present between positions 56 and 94 on the basis of a transcription start site; and predicting the effect of the treatment on the HER2-positive breast cancer based on the analyzed methylation level.
A switch device, comprising: a switch body that supports a lever operating portion (12, 13); and a cylindrical fitting portion through which the switch body is attached to an attached portion (1, 2), wherein the fitting portion comprises a plurality of elastic deformation portions elastically deformable by a clamping force of a clamping band member and a pressed-bulging portion bulging from an outer surface of a tip portion of the elastic deformation portions, and wherein the pressed-bulging portion is configured as a contact region between the clamping band member and the attached portion, characterized in that the pressed-bulging portion is configured to have a thickness greater than that of a base portion of the elastic deformation portions. a switch body that supports a lever operating portion (12, 13); and a cylindrical fitting portion through which the switch body is attached to an attached portion (1, 2), wherein the fitting portion comprises a plurality of elastic deformation portions elastically deformable by a clamping force of a clamping band member and a pressed-bulging portion bulging from an outer surface of a tip portion of the elastic deformation portions, and wherein the pressed-bulging portion is configured as a contact region between the clamping band member and the attached portion, characterized in that the pressed-bulging portion is configured to have a thickness greater than that of a base portion of the elastic deformation portions.
A power saving control device comprising: an acquirer configured to receive a power saving request from the outside of the power saving control device; and a controller configured to perform the following in response to receiving the power saving request: determine whether or not a load device installed in a facility consumes power; characterized in that the controller is further configured to perform the following in response to receiving the power saving request: not perform power saving control for reducing power consumption of the load device if it is determined that the load device does not consume power, determine whether or not power flows from a power system into the facility in which the load device is installed, if it is determined that the load device consumes power; perform power saving control for reducing power consumption of the load device, if it is determined that power flows from a power system into the facility in which the load device is installed; and not perform power saving control for reducing power consumption of the load device if it is determined that no power flows from a power system into the facility in which the load device is installed. an acquirer configured to receive a power saving request from the outside of the power saving control device; and a controller configured to perform the following in response to receiving the power saving request: determine whether or not a load device installed in a facility consumes power; characterized in that the controller is further configured to perform the following in response to receiving the power saving request: not perform power saving control for reducing power consumption of the load device if it is determined that the load device does not consume power, determine whether or not power flows from a power system into the facility in which the load device is installed, if it is determined that the load device consumes power; perform power saving control for reducing power consumption of the load device, if it is determined that power flows from a power system into the facility in which the load device is installed; and not perform power saving control for reducing power consumption of the load device if it is determined that no power flows from a power system into the facility in which the load device is installed. not perform power saving control for reducing power consumption of the load device if it is determined that the load device does not consume power, determine whether or not power flows from a power system into the facility in which the load device is installed, if it is determined that the load device consumes power; perform power saving control for reducing power consumption of the load device, if it is determined that power flows from a power system into the facility in which the load device is installed; and not perform power saving control for reducing power consumption of the load device if it is determined that no power flows from a power system into the facility in which the load device is installed.
A surgical stapler for stapling the tissue of a patient, comprising: a handle; a shaft extending from said handle; a plurality of staple cartridges; an end effector, comprising: a distal head rotatably connected to the shaft about an articulation joint, wherein the distal head comprises: a tissue compression surface; and an anvil movable toward said tissue compression surface during a closing stroke; an anvil closing system configured to move said anvil through said closing stroke; a staple firing system configured to deploy staples from one of said staple cartridges positioned in said end effector during a staple firing stroke; a tissue cutting system configured to cut the patient tissue during a tissue cutting stroke; wherein the tissue compression surface being defined on a tissue drive system configured to engage the patient tissue and move said distal head relative to the patient tissue during a propulsion stroke to propel the surgical stapler along a staple firing path. a handle; a shaft extending from said handle; a plurality of staple cartridges; an end effector, comprising: a distal head rotatably connected to the shaft about an articulation joint, wherein the distal head comprises: a tissue compression surface; and an anvil movable toward said tissue compression surface during a closing stroke; a tissue compression surface; and an anvil movable toward said tissue compression surface during a closing stroke; an anvil closing system configured to move said anvil through said closing stroke; a staple firing system configured to deploy staples from one of said staple cartridges positioned in said end effector during a staple firing stroke; a tissue cutting system configured to cut the patient tissue during a tissue cutting stroke; wherein the tissue compression surface being defined on a tissue drive system configured to engage the patient tissue and move said distal head relative to the patient tissue during a propulsion stroke to propel the surgical stapler along a staple firing path.