mhurhangee/ep-ind-claims huggingface dataset:
An agricultural working machine in which a chassis forms a first bodywork part and a driver's cab forms a second bodywork part arranged above the first bodywork part, an intermediate space is provided between the bodywork parts (1, 4) and the bodywork parts (1, 4) are connected together moveably between a rest position and a loading position in which the intermediate space is narrower than in the rest position, and at least one deformation energy-absorbing component, wherein the component is arranged in the intermediate space and is compressible by a movement of the bodywork parts (1, 4) from the rest position into the loading position, characterised in that the deformation energy-absorbing component is a crash box and the crash box has end walls (27, 26) facing towards the bodywork parts (1, 4) and compressible walls connecting the end walls (27, 26), and that the compressible walls extend in the vertical direction.
A pair of sliding components (510, 520) which is constituted by a first sliding component and a second sliding component and disposed at a relatively rotating position of a rotary machine, comprising a plurality of dynamic pressure generation mechanisms formed by recessed portions that are provided in a sliding surface of the first sliding component, the first sliding component and the second sliding component being formed in an annular shape to seal a sealed fluid by sliding a land portion of the sliding surface of the first sliding component and a land portion of a sliding surface of the second sliding component to each other, wherein a fine recess, which has an annular shape and is recessed from the land portion of the second sliding component, is formed in the opposite surface region of the second sliding component, the fine recess has a depth smaller than a depth of the recessed portions, the fine recess and each of the recessed portions communicates with a leakage side, characterized in that the sliding surface of the first sliding component is provided with specific dynamic pressure generation mechanisms which are disposed on a sealed fluid side with respect to the dynamic pressure generation mechanisms and which are formed by recessed portions (17, 161) independent from the dynamic pressure generation mechanism. wherein a fine recess, which has an annular shape and is recessed from the land portion of the second sliding component, is formed in the opposite surface region of the second sliding component, the fine recess has a depth smaller than a depth of the recessed portions, the fine recess and each of the recessed portions communicates with a leakage side, characterized in that the sliding surface of the first sliding component is provided with specific dynamic pressure generation mechanisms which are disposed on a sealed fluid side with respect to the dynamic pressure generation mechanisms and which are formed by recessed portions (17, 161) independent from the dynamic pressure generation mechanism.
A merchandise display system comprising: a front rail configured to mount to a shelf, the front rail comprising a front rail aperture and rail mounting clips for preventing lateral movement of the front rail on the shelf, the rail mounting clips being configured to fit into a corresponding aperture on the shelf, wherein the rail mounting clips are curved, wherein the rail mounting clips further contain a narrow portion at one end of the rail mounting clips and a wider round portion, wherein the front rail aperture is configured to receive the rail mounting clips; the front rail aperture comprising a wider round portion and a narrower portion wherein the rail mounting clips are configured to shift laterally from the wider round portion to the narrower portion in the front rail aperture, by shifting the rail mounting clips, the wider round portion of the rail mounting clips engage the narrower portion of the front rail aperture to lock the rail mounting clips into place on the front rail; and at least one divider configured to engage the front rail, the at least one divider including a barrier, the at least one divider further including a divider wall, the at least one divider further including a divider floor perpendicular to the divider wall, wherein the divider floor is configured to hold product. a front rail configured to mount to a shelf, the front rail comprising a front rail aperture and rail mounting clips for preventing lateral movement of the front rail on the shelf, the rail mounting clips being configured to fit into a corresponding aperture on the shelf, wherein the rail mounting clips are curved, wherein the rail mounting clips further contain a narrow portion at one end of the rail mounting clips and a wider round portion, wherein the front rail aperture is configured to receive the rail mounting clips; the front rail aperture comprising a wider round portion and a narrower portion wherein the rail mounting clips are configured to shift laterally from the wider round portion to the narrower portion in the front rail aperture, by shifting the rail mounting clips, the wider round portion of the rail mounting clips engage the narrower portion of the front rail aperture to lock the rail mounting clips into place on the front rail; and at least one divider configured to engage the front rail, the at least one divider including a barrier, the at least one divider further including a divider wall, the at least one divider further including a divider floor perpendicular to the divider wall, wherein the divider floor is configured to hold product.
Method for controlling a heating device for heating a component, comprising cyclically repeating the steps: - operating the heating device at a heating voltage, - ascertaining a prevailing heating voltage (U_H_a) of the heating device, - ascertaining a mean heating voltage (U_H_m) for a predetermined, immediately preceding period of time, - ascertaining a maximum permissible duration of the heating period (T_max) for which the component may be heated for the maximum period of time using the prevailing heating voltage (U_H_a) or using the mean heating voltage (U H m), in dependence upon the mean heating voltage (U_H_m), - comparing the prevailing heating voltage (U_H_a) and the mean heating voltage (U_H_m) with a predetermined minimum heating voltage (U_H_min), and - reducing the heating voltage of the heating device if the prevailing heating voltage (U_H_a) and/or the mean heating voltage (U_H_m) exceeds the predetermined minimum heating voltage (U_H_min) for the duration of the maximum permissible heating period (T_max). - operating the heating device at a heating voltage, - ascertaining a prevailing heating voltage (U_H_a) of the heating device, - ascertaining a mean heating voltage (U_H_m) for a predetermined, immediately preceding period of time, - ascertaining a maximum permissible duration of the heating period (T_max) for which the component may be heated for the maximum period of time using the prevailing heating voltage (U_H_a) or using the mean heating voltage (U H m), in dependence upon the mean heating voltage (U_H_m), - comparing the prevailing heating voltage (U_H_a) and the mean heating voltage (U_H_m) with a predetermined minimum heating voltage (U_H_min), and - reducing the heating voltage of the heating device if the prevailing heating voltage (U_H_a) and/or the mean heating voltage (U_H_m) exceeds the predetermined minimum heating voltage (U_H_min) for the duration of the maximum permissible heating period (T_max).
An energy storage arrangement including a heat exchanger, the energy storage arrangement comprising an enclosure, and within the enclosure: an input-side circuit of the heat exchanger for connection to an energy source; an output-side circuit of the heat exchanger for connection to an energy sink; and a thermal storage medium for the storage of energy; wherein the input-side and output-side circuits within the enclosure are defined by tubular bodies, elongate protrusions extending into the thermal storage medium from each of the tubular bodies, the elongate protrusions having higher thermal conductivity than the thermal storage medium; characterized in that the elongate protrusions together form one or more meshes. an input-side circuit of the heat exchanger for connection to an energy source; an output-side circuit of the heat exchanger for connection to an energy sink; and a thermal storage medium for the storage of energy; wherein the input-side and output-side circuits within the enclosure are defined by tubular bodies, elongate protrusions extending into the thermal storage medium from each of the tubular bodies, the elongate protrusions having higher thermal conductivity than the thermal storage medium; characterized in that the elongate protrusions together form one or more meshes.
Prosthesis component of a joint endoprosthesis, with a sliding surface (19, 24) which is designed to form a sliding joint together with a counterpart sliding surface of another prosthesis component (11, 23) or with the osseous counterpart bearing of the joint or soft tissue, wherein the sliding surface (19, 24) is formed by a sliding surface coating applied to the body of the prosthesis component (10, 22), and the sliding surface coating has an antimicrobial action, wherein the sliding surface coating contains silver, and the sliding surface coating comprises a nitride, an oxinitride or an oxide based on a refractory metal, wherein the silver has a percentage by weight of between 2% and 15%, preferably of between 3% and 10%, in the sliding surface coating, characterized in that the refractory metal is titanium.
Vapour extractor having an intake opening, at which at least one filter element and at least one vapour baffle are provided with an edge extraction region, wherein the filter element has an active filter region, in which at least one filter layer is provided, wherein the flow resistance of the filter element is less in the centre of the active filter region than the flow resistance in the edge region of the active filter region, characterised in that the central active filter region also serves for grease storage and the filter element has at least two filter layers, and a region of greater air permeability in one of the filter layers covers a larger part of the active filter region of the filter element than the region of greater air permeability in the filter surface of the at least one further filter layer.
A base station (F A; F B; F C) operable, in concert with other base stations within a group (F A. F B, F C), to support wireless communications with user equipment, said base station comprising: transmission logic operable to generate a cell (A; B; C) having a coverage area supporting wireless communications with user equipment; reception logic operable to receive load information indicative of a user equipment communications load experienced by base stations within said group; and coverage area adjustment logic operable to determine changes required to said coverage area within a predetermined range bounded by an upper and lower threshold to change a user equipment communications load experienced by at least one base station within said group and, when said user equipment communications load experienced by said base station is above an average user equipment communications load for said group and exceeds a predetermined maximum user equipment communications load supportable by said base station, to decrease said coverage area to decrease said user equipment communications load experienced by said base station and, when said decrease in said coverage area is to below said lower threshold, to reduce said lower threshold. transmission logic operable to generate a cell (A; B; C) having a coverage area supporting wireless communications with user equipment; reception logic operable to receive load information indicative of a user equipment communications load experienced by base stations within said group; and coverage area adjustment logic operable to determine changes required to said coverage area within a predetermined range bounded by an upper and lower threshold to change a user equipment communications load experienced by at least one base station within said group and, when said user equipment communications load experienced by said base station is above an average user equipment communications load for said group and exceeds a predetermined maximum user equipment communications load supportable by said base station, to decrease said coverage area to decrease said user equipment communications load experienced by said base station and, when said decrease in said coverage area is to below said lower threshold, to reduce said lower threshold.
A method for forming a rivet head of a rivet from a brittle metallic material with an elongation at break ≤ 1%, wherein the rivet is cylindrical and has a rivet longitudinal axis, comprising the steps of: moving a die that rotates about a die longitudinal axis in the direction of the die longitudinal axis from a starting position into a contact position, wherein the die is moved with its die longitudinal axis parallel and/or coaxial to the rivet longitudinal axis in the direction of the die longitudinal axis, wherein the die has a die end face in a plane perpendicular to the die longitudinal axis, wherein the die end face is in contact with a rivet end face of the rivet in the contact position, wherein the rivet end face of the rivet is formed in a plane at right angles to a rivet longitudinal axis, wherein the die end face has an area that is larger than an area of the rivet end face; applying a first pressing pressure to the rivet end face by way of the die rotating about the die longitudinal axis for a friction duration; applying a second pressing pressure to the rivet end face by way of the die rotating about the die longitudinal axis, wherein the second pressing pressure is greater than the first pressing pressure; and moving the rotating die in the direction of the die longitudinal axis into an end position, wherein, by moving the die from the contact position into the end position, a rivet end portion having the rivet end face is compressed and the circumference of the rivet end portion is increased. moving a die that rotates about a die longitudinal axis in the direction of the die longitudinal axis from a starting position into a contact position, wherein the die is moved with its die longitudinal axis parallel and/or coaxial to the rivet longitudinal axis in the direction of the die longitudinal axis, wherein the die has a die end face in a plane perpendicular to the die longitudinal axis, wherein the die end face is in contact with a rivet end face of the rivet in the contact position, wherein the rivet end face of the rivet is formed in a plane at right angles to a rivet longitudinal axis, wherein the die end face has an area that is larger than an area of the rivet end face; applying a first pressing pressure to the rivet end face by way of the die rotating about the die longitudinal axis for a friction duration; applying a second pressing pressure to the rivet end face by way of the die rotating about the die longitudinal axis, wherein the second pressing pressure is greater than the first pressing pressure; and moving the rotating die in the direction of the die longitudinal axis into an end position, wherein, by moving the die from the contact position into the end position, a rivet end portion having the rivet end face is compressed and the circumference of the rivet end portion is increased.
A method to operate a thermal anemometer flow meter to measure a mass flow (M1 air; M1 liq) of a wet gas flow including a gas with a liquid phase component, comprising: measuring a first heat loss (Q1 meas-LDT) to the wet gas flow from operating at a first DeltaT above a temperature of the stream; measuring a second heat loss (Q1 meas-HDT) to substantially the same wet gas flow from operating at a second DeltaT above the temperature of the wet gas flow, the second DeltaT being greater than the first DeltaT; and determining a mass flow of the wet gas flow based on the first heat loss (Q1 meas-LDT), the second heat loss (Q1 meas-HDT), a first calibration curve (f aircal-LDT; f' aircal-LDT) relating heat loss from operating at the first DeltaT to the mass flow of a dry stream of the gas without any liquid phase component, and a second calibration curve (f aircal-HDT; f' aircal-HDT) relating heat loss from operating at the second DeltaT to the mass flow of the dry stream. measuring a first heat loss (Q1 meas-LDT) to the wet gas flow from operating at a first DeltaT above a temperature of the stream; measuring a second heat loss (Q1 meas-HDT) to substantially the same wet gas flow from operating at a second DeltaT above the temperature of the wet gas flow, the second DeltaT being greater than the first DeltaT; and determining a mass flow of the wet gas flow based on the first heat loss (Q1 meas-LDT), the second heat loss (Q1 meas-HDT), a first calibration curve (f aircal-LDT; f' aircal-LDT) relating heat loss from operating at the first DeltaT to the mass flow of a dry stream of the gas without any liquid phase component, and a second calibration curve (f aircal-HDT; f' aircal-HDT) relating heat loss from operating at the second DeltaT to the mass flow of the dry stream.
A wind turbine blade, comprising: a hub end, a tip end, a leading edge, a trailing edge, a pressure side, and a suction side; at least one boundary layer fence on at least one of said pressure side and said suction side of said blade; and a plurality of passages formed in said fence, each said passage having an inlet on a hub end side of said fence and an outlet on a tip end side of said fence; characterised in that each passage has a cross-section that decreases from said inlet to said outlet, each said outlet oriented to discharge air towards said trailing edge of said blade. a hub end, a tip end, a leading edge, a trailing edge, a pressure side, and a suction side; at least one boundary layer fence on at least one of said pressure side and said suction side of said blade; and a plurality of passages formed in said fence, each said passage having an inlet on a hub end side of said fence and an outlet on a tip end side of said fence; characterised in that each passage has a cross-section that decreases from said inlet to said outlet, each said outlet oriented to discharge air towards said trailing edge of said blade.
An annular combustion system comprising: an inner liner and an outer liner disposed radially outward of the inner liner, the inner liner and the outer liner defining therebetween an annulus circumscribing a centerline of the annular combustion system, the annulus including a plurality of primary combustion zones at an upstream end thereof and a plurality of secondary combustion zones downstream of the primary combustion zones; a plurality of fuel nozzles, at least one fuel nozzle discharging a combustible mixture into each primary combustion zone of the plurality of primary combustion zones; a plurality of panel fuel injectors, each panel fuel injector being disposed between adjacent fuel nozzles and extending in an axially downstream direction to separate adjacent primary combustion zones, each panel fuel injector discharging a combustible mixture into at least one secondary combustion zone; wherein each fuel nozzle of the plurality of fuel nozzles is a bundled tube fuel nozzle extending circumferentially between adjacent panel fuel injectors of the plurality of panel fuel injectors, each bundled tube fuel nozzle comprising: a forward plate; an aft plate; an outer shroud extending axially between the forward plate and the aft plate; a fuel plenum defined within the outer shroud; and a plurality of premixing tubes extending through the forward plate, the fuel plenum, and the aft plate. an inner liner and an outer liner disposed radially outward of the inner liner, the inner liner and the outer liner defining therebetween an annulus circumscribing a centerline of the annular combustion system, the annulus including a plurality of primary combustion zones at an upstream end thereof and a plurality of secondary combustion zones downstream of the primary combustion zones; a plurality of fuel nozzles, at least one fuel nozzle discharging a combustible mixture into each primary combustion zone of the plurality of primary combustion zones; a plurality of panel fuel injectors, each panel fuel injector being disposed between adjacent fuel nozzles and extending in an axially downstream direction to separate adjacent primary combustion zones, each panel fuel injector discharging a combustible mixture into at least one secondary combustion zone; wherein each fuel nozzle of the plurality of fuel nozzles is a bundled tube fuel nozzle extending circumferentially between adjacent panel fuel injectors of the plurality of panel fuel injectors, each bundled tube fuel nozzle comprising: a forward plate; an aft plate; an outer shroud extending axially between the forward plate and the aft plate; a fuel plenum defined within the outer shroud; and a plurality of premixing tubes extending through the forward plate, the fuel plenum, and the aft plate. a forward plate; an aft plate; an outer shroud extending axially between the forward plate and the aft plate; a fuel plenum defined within the outer shroud; and a plurality of premixing tubes extending through the forward plate, the fuel plenum, and the aft plate.
An exhaust gas recirculation valve for a vehicle comprising: - a fresh air flow channel; - an EGR flow channel connected to the fresh air flow channel; and - a valve unit configured to open or close the EGR flow channel and to selectively block a portion of the fresh air flow channel according to an opened or closed state of the EGR flow channel, wherein the valve unit includes: - a first valve configured to open or close the EGR flow channel; and - a second valve located at one side of the first valve, the second valve being arranged at a different angle from an arrangement angle of the first valve, wherein the second valve is moved along with the first valve to selectively interfere with a flow stream of fresh air in the fresh air flow channel, and wherein the first valve is a pivot valve type with respect to the EGR flow channel, and the second valve is a slide valve type with respect to the fresh air flow channel, wherein the second valve is moved in a direction perpendicular to or tilted relative to an inlet direction of fresh air, wherein a guide space is defined between the fresh air flow channel and the EGR flow channel to guide exhaust gas emerging from the EGR flow channel to the fresh air flow channel, the guide space providing an operating space for the valve unit, wherein the valve unit is pivotally rotatably mounted in the guide space, characterized in that the valve unit is located in the guide space, wherein the guide space is defined by a sidewall surrounding the circumference of the space and a cover is placed on the sidewall to cover the space, wherein the cover is separably coupled to the sidewall. - a fresh air flow channel; - an EGR flow channel connected to the fresh air flow channel; and - a valve unit configured to open or close the EGR flow channel and to selectively block a portion of the fresh air flow channel according to an opened or closed state of the EGR flow channel, - a first valve configured to open or close the EGR flow channel; and - a second valve located at one side of the first valve, the second valve being arranged at a different angle from an arrangement angle of the first valve,
Oxygen-consuming electrode having at least one electrically conductive support and a gas diffusion layer which has a catalytically active component and is located on the support, where the oxygen-consuming electrode is additionally coated with a fluoropolymer which is soluble in solvents, characterized in that silver, silver oxide or silver oxide or mixtures of silver and silver oxide are selected as catalytically active component.