mhurhangee/ep-ind-claims huggingface dataset:
A compressor having a housing member (11, 12, 13) with an inlet formed therein, said compressor comprising: a suction passage (32; 91) connecting the inlet to a suction chamber, the suction passage (32; 91) is formed in the housing member (11, 12, 13); and an oil reservoir (35; 72; 95) for storing a lubricating oil which is separated from a refrigerant gas having a discharge pressure, characterized in that: a throttle valve (40; 92) is provided in the suction passage (32; 91) and having a first valve body (50; 94) for adjusting an opening degree of the suction passage (32; 91) based on a differential pressure applied to the first valve body (50; 94), wherein the suction passage (32; 91) has an upstream suction passage (32a; 91a) which is located upstream of the throttle valve (40; 92); and wherein a lubricating oil passage (37; 71; 98) connects the oil reservoir (35; 72; 95) to the upstream suction passage (32a; 91a) for the lubricating oil in the oil reservoir (35; 72; 95) to flow to the upstream suction passage (32a; 91a) therethrough, wherein a lubricating oil flow reducing means (38; 74; 99) is provided in the lubricating oil passage (37; 71; 98). a suction passage (32; 91) connecting the inlet to a suction chamber, the suction passage (32; 91) is formed in the housing member (11, 12, 13); and an oil reservoir (35; 72; 95) for storing a lubricating oil which is separated from a refrigerant gas having a discharge pressure, characterized in that: a throttle valve (40; 92) is provided in the suction passage (32; 91) and having a first valve body (50; 94) for adjusting an opening degree of the suction passage (32; 91) based on a differential pressure applied to the first valve body (50; 94), wherein the suction passage (32; 91) has an upstream suction passage (32a; 91a) which is located upstream of the throttle valve (40; 92); and wherein a lubricating oil passage (37; 71; 98) connects the oil reservoir (35; 72; 95) to the upstream suction passage (32a; 91a) for the lubricating oil in the oil reservoir (35; 72; 95) to flow to the upstream suction passage (32a; 91a) therethrough, wherein a lubricating oil flow reducing means (38; 74; 99) is provided in the lubricating oil passage (37; 71; 98). a throttle valve (40; 92) is provided in the suction passage (32; 91) and having a first valve body (50; 94) for adjusting an opening degree of the suction passage (32; 91) based on a differential pressure applied to the first valve body (50; 94), wherein the suction passage (32; 91) has an upstream suction passage (32a; 91a) which is located upstream of the throttle valve (40; 92); and wherein a lubricating oil passage (37; 71; 98) connects the oil reservoir (35; 72; 95) to the upstream suction passage (32a; 91a) for the lubricating oil in the oil reservoir (35; 72; 95) to flow to the upstream suction passage (32a; 91a) therethrough, wherein a lubricating oil flow reducing means (38; 74; 99) is provided in the lubricating oil passage (37; 71; 98).
A data processing apparatus comprising: a detector comprising a plurality of sensor elements to detect events in response to changes in light incident upon the detector from an eye of a user; processing circuitry to calculate a gaze direction of the eye of the user in dependence upon an output signal from the detector indicative of the detected events, the output signal being generated by a sensor element of the plurality of sensor elements when light incident upon the sensor element satisfies a criterion used for event detection, the processing circuitry being configured to calculate the gaze direction in response to the detected events; and rendering circuitry to render an image frame in accordance with the calculated gaze direction, in which the rendering circuitry is configured to: perform rendering operations for a first group of image pixels in the image frame; select a second group of image pixels in the image frame in dependence upon the calculated gaze direction, the second group of image pixels being different from the first group of image pixels; and perform rendering operations for the second group of image pixels in the image frame. a detector comprising a plurality of sensor elements to detect events in response to changes in light incident upon the detector from an eye of a user; processing circuitry to calculate a gaze direction of the eye of the user in dependence upon an output signal from the detector indicative of the detected events, the output signal being generated by a sensor element of the plurality of sensor elements when light incident upon the sensor element satisfies a criterion used for event detection, the processing circuitry being configured to calculate the gaze direction in response to the detected events; and rendering circuitry to render an image frame in accordance with the calculated gaze direction, in which the rendering circuitry is configured to: perform rendering operations for a first group of image pixels in the image frame; select a second group of image pixels in the image frame in dependence upon the calculated gaze direction, the second group of image pixels being different from the first group of image pixels; and perform rendering operations for the second group of image pixels in the image frame. perform rendering operations for a first group of image pixels in the image frame; select a second group of image pixels in the image frame in dependence upon the calculated gaze direction, the second group of image pixels being different from the first group of image pixels; and perform rendering operations for the second group of image pixels in the image frame.
A prosthesis foot adapter for a prosthesis with - a prosthetic foot with a forefoot area and a heel area, - a prosthetic lower leg which has a longitudinal axis, for arranging the prosthetic foot on the prosthetic lower leg, wherein the prosthetic foot adapter comprises - an upper part for fixing it to the prosthetic lower leg such that it is torque-proof in relation to a sagittal plane, - a lower part for fixing it to the prosthetic foot such that it is torque-proof in relation to a sagittal plane, and - a resistance element, wherein the upper part can be swiveled on the lower part about a swivel axis against a resistance exerted by the resistance element, said swivel axis extending from the heel area to the forefoot area, characterized in that the swivel axis and the longitudinal axis form an angle that is not 90°, wherein the swivel axis is tilted towards the forefoot area. - a prosthetic foot with a forefoot area and a heel area, - a prosthetic lower leg which has a longitudinal axis, for arranging the prosthetic foot on the prosthetic lower leg, wherein the prosthetic foot adapter comprises - an upper part for fixing it to the prosthetic lower leg such that it is torque-proof in relation to a sagittal plane, - a lower part for fixing it to the prosthetic foot such that it is torque-proof in relation to a sagittal plane, and - a resistance element, wherein the upper part can be swiveled on the lower part about a swivel axis against a resistance exerted by the resistance element, said swivel axis extending from the heel area to the forefoot area, characterized in that the swivel axis and the longitudinal axis form an angle that is not 90°, wherein the swivel axis is tilted towards the forefoot area.
A method by which a compilation apparatus generates a binary code by compiling a source code, the method comprising: selecting a data format based on predicted processing performance for a processor, from among a plurality of data formats; generating the binary code used to process data using the selected data format; and generating separate information representing the selected data format; wherein the processor is used to execute the binary code based on the generated information; and wherein the processor is a dynamic single-instruction, multiple-data, SIMD, processor. selecting a data format based on predicted processing performance for a processor, from among a plurality of data formats; generating the binary code used to process data using the selected data format; and generating separate information representing the selected data format; wherein the processor is used to execute the binary code based on the generated information; and wherein the processor is a dynamic single-instruction, multiple-data, SIMD, processor.
A method for operation of a wind farm, in which electrical power which is produced in the wind farm is transported via a wind-farm-internal network to a substation and in which, before being transferred to an external network, the electrical power is transformed to a voltage which is higher by a selectable step-up ratio than the voltage in the wind-farm-internal network, having the following steps: a. determination of an electrical load level on a wind energy installation in the wind farm, and characterized by b. adjustment of the step-up ratio as a function of the electrical load level on the wind energy installation, wherein the step-up ratio is adjusted dependent on a wattless component margin. a. determination of an electrical load level on a wind energy installation in the wind farm, and characterized by b. adjustment of the step-up ratio as a function of the electrical load level on the wind energy installation, wherein the step-up ratio is adjusted dependent on a wattless component margin.
A paper making machine comprising a control system and having a wet end, that comprises a headbox and a wire, and a dry end, the wet end having manipulable inputs which are adjusted to maintain properties of the paper at the wet end, which properties affect measurable properties of the paper at the dry end, and the dry end having sensors which develop electrical signals to convey quantitative information of the measurable properties, the control system comprising: a dry end controller responsive to the measured values of properties of the paper at the dry end developed by the sensors and to setpoints for properties of the paper at the dry end and operative to develop setpoint signals for properties of the paper at the wet end, each of the setpoint signals quantitatively establishing a setpoint of a respective one of properties of the paper at the wet end; an estimator responsive to the measurements developed by the sensors and to further signals which convey quantitative information of present values of the inputs to the wet end to develop estimated values of wet end properties at the wire, wherein said estimator includes a wire dry weight estimator, a wire ash weight estimator and a percent ash calculator, said estimated wet end property values being commensurate with an estimated wire dry weight and an estimated percent wire ash relating to the corresponding measurable properties of dry weight and ash percentage at the dry end; and a wet end controller responsive to the setpoint signals for the wet end properties and to the estimated values of the wet end properties and operative to manipulate the inputs to the wet end. a dry end controller responsive to the measured values of properties of the paper at the dry end developed by the sensors and to setpoints for properties of the paper at the dry end and operative to develop setpoint signals for properties of the paper at the wet end, each of the setpoint signals quantitatively establishing a setpoint of a respective one of properties of the paper at the wet end; an estimator responsive to the measurements developed by the sensors and to further signals which convey quantitative information of present values of the inputs to the wet end to develop estimated values of wet end properties at the wire, wherein said estimator includes a wire dry weight estimator, a wire ash weight estimator and a percent ash calculator, said estimated wet end property values being commensurate with an estimated wire dry weight and an estimated percent wire ash relating to the corresponding measurable properties of dry weight and ash percentage at the dry end; and a wet end controller responsive to the setpoint signals for the wet end properties and to the estimated values of the wet end properties and operative to manipulate the inputs to the wet end.
An in-line resonator filter comprising a bottom ground plane, a top ground plane, a lateral ground plane, and a linear array of three or more conductors, the in-line resonator filter comprising a first pair of adjacent conductors (410, 410) having inductive main coupling and oppositely signed capacitive main coupling; a second pair of non-adjacent conductors (410 and 410) having inductive cross-coupling; a first tuning element (422 and) that extends from the bottom ground plane of the in-line resonator filter; and a second tuning element that extends from the top ground plane of the in-line resonator filter; wherein: the first and second pairs have one conductor (410) in common; and at least a portion of the oppositely signed capacitive main coupling compensates for at least a portion of the inductive main coupling between the first pair of adjacent conductors (410, 410). a first pair of adjacent conductors (410, 410) having inductive main coupling and oppositely signed capacitive main coupling; a second pair of non-adjacent conductors (410 and 410) having inductive cross-coupling; a first tuning element (422 and) that extends from the bottom ground plane of the in-line resonator filter; and a second tuning element that extends from the top ground plane of the in-line resonator filter; wherein: the first and second pairs have one conductor (410) in common; and at least a portion of the oppositely signed capacitive main coupling compensates for at least a portion of the inductive main coupling between the first pair of adjacent conductors (410, 410). the first and second pairs have one conductor (410) in common; and at least a portion of the oppositely signed capacitive main coupling compensates for at least a portion of the inductive main coupling between the first pair of adjacent conductors (410, 410).
Machine for mixing a product or products, more specifically a product or products used for feeding animals, and the distribution of the mixture of the said product or products, the said machine comprising a tank carried by a rolling chassis and comprising a floor and at least one side wall surmounting the said floor, delimiting with the latter an inner product receiving and mixing space, a mixing device mounted in the said receiving space for making the mixture, at least one hatch located in the side wall and comprising an aperture through which the mixture can be ejected outside the tank and at least one flap adapted and intended to be controlled to be shifted between an open position and a closed position of the aperture, at least one chute associated with the or each hatch and comprising a bottom forming a boom ending in a discharge edge allowing - during distribution - the ejection and distribution of the mixture at a distance remote from the aperture, a travel system (6, 7, 8a, 8b) comprising an articulation, a pivot axis of the articulation, an actuating and driving mechanism making it possible to actuate and drive the movement of the bottom of the chute around the said pivot axis and guide means (8a, 8b) for the said movement of the bottom, the said articulation being a pivot articulation with a substantially vertical pivot axis, the said machine being characterized in that the bottom of the chute is made movable by means of the said travel system (6, 7, 8a, 8b) between a retracted position, when the flap is in the closed state, preferably at least partly under the tank and more specifically under the floor of the latter, and a deployed distribution position, when the flap is in the open state.
Use as a sensitive material in a thin layer for bolometric detection of infrared radiation of a material having a spinel ferrite structure of chemical composition, ignoring doping agents if any are present, satisfying empirical formula I: Fe 3-(x+y) M x A y O 4+δ in which iron is the majority metallic element; M represents a metal or a combination of two or more transition metals other than iron; M being selected from Co, Cu, Mn, Ni, Zn, and Ti, or a combination thereof, A represents at least one metal selected from magnesium and aluminum; the metals and the oxygen being in the form of ions; x represents the number of metal ions M, whether identical or different metals; y represents the number of metal ions A; x may lie in the range 0 to 2, and whatever x, x<3-x-y, y may lie in the range 0 to 0.5; and δ represents 0 or a positive number that is sufficiently small for the substance of formula I to contain at least one metal present in the form of ions having two different oxidation states and situated on the same sublattice of the spinel structure, the potentially present doping agents being present in the form of oxides at a concentration by weight that does not exceed 1% to 2% by weight relative to the weight of the spinel oxide, and being selected from silicon, phosphorous, boron, alkaline-earth metals, in particular Ca, Ba, Sr, alkali metals, for example Na, K, Li, gallium, germanium, arsenic, indium, antimony, bismuth, lead.
Use of an aromatic polyphenol derivative comprising at least one aromatic ring bearing at least two -O-Z groups in the meta position relative to one another, the two positions ortho to at least one of the -O-Z groups being unsubstituted, and in which each -O-Z group represents an -O-C((=O)(R 1)) group with R 1 representing a hydrocarbon-based radical or a substituted hydrocarbon-based radical, for the manufacture of a phenol-aldehyde resin for reinforcing a rubber composition for generating a delay phase during the crosslinking of the phenol-aldehyde resin based on the aromatic polyphenol derivative and on an aldehyde, as temporary protective group of hydroxyl function and R1, Z is devoid of a function that is reactive with respect to the other constituents of the rubber composition.
A sheathing tube sheathing a tubular member, the sheathing tube comprising: a first cylindrical member having a distal end opening from which the tubular member is delivered; a second cylindrical member that is rotatably connected to a base end of the first cylindrical member and has a base end opening into which the tubular member is introduced; rotation restriction means that is provided in the second cylindrical member and restricts rotation of the tubular member with respect to the second cylindrical member; a spring member that is arranged between the first cylindrical member and the second cylindrical member and is deformable between a rotation locked state where rotation of the second cylindrical member with respect to the first cylindrical member is restricted by engagement of the spring member with the base end of the first cylindrical member, and a rotation unlocked state where the engagement is released and the rotation of the second cylindrical member with respect to the first cylindrical member is allowed; and a rotation operating member that is rotatably provided in an axial direction of the second cylindrical member and deforms the spring member between the rotation locked state and the rotation unlocked state. a first cylindrical member having a distal end opening from which the tubular member is delivered; a second cylindrical member that is rotatably connected to a base end of the first cylindrical member and has a base end opening into which the tubular member is introduced; rotation restriction means that is provided in the second cylindrical member and restricts rotation of the tubular member with respect to the second cylindrical member; a spring member that is arranged between the first cylindrical member and the second cylindrical member and is deformable between a rotation locked state where rotation of the second cylindrical member with respect to the first cylindrical member is restricted by engagement of the spring member with the base end of the first cylindrical member, and a rotation unlocked state where the engagement is released and the rotation of the second cylindrical member with respect to the first cylindrical member is allowed; and a rotation operating member that is rotatably provided in an axial direction of the second cylindrical member and deforms the spring member between the rotation locked state and the rotation unlocked state.
Mounting adapter for releasably fastening a sterile cover to an objective of a microscope, comprising a passage for inserting the objective therein, in which a drape lens or light-transparent disc is arranged such that the latter assumes an oblique angle in relation to the longitudinal axis of the passage, and comprising a manually actuable latching device for axially holding the mounting adapter on the objective inserted into the passage, and a positioning geometry which is configured and arranged to cause a reproducible target angular positioning and/or target rotational alignment of the mounting adapter on the objective exclusively by its axial fitting and to perform its positioning function independently and separately from the latching apparatus.
Method for automatic control of at least one controllable system equipping a premises including at least one room (Pi), comprising the following steps: • a step of measurement of parameters of activity relating to the room including a sub-step of detection of movement using at least one movement detector installed in the room, and a sub-step of measurement of a concentration of carbon dioxide in the air of the room; • a step (E5, E6, E9) of determination of a state of occupation of the room (Pi) including: i. a first test of occupation based on a detection of movement; ii. and, if the first test of occupation is negative, a second test of occupation based on measurements relating to the concentration of carbon dioxide; • a step of determination of a state of activity of the room, it being possible for said state to be active or inactive, based on the results of the step of determination of the state of occupation of the room; • a step of automatic control of the system equipping the premises as a function of the determined, active or inactive, state of activity of the room (Pi). • a step of measurement of parameters of activity relating to the room including a sub-step of detection of movement using at least one movement detector installed in the room, and a sub-step of measurement of a concentration of carbon dioxide in the air of the room; • a step (E5, E6, E9) of determination of a state of occupation of the room (Pi) including: i. a first test of occupation based on a detection of movement; ii. and, if the first test of occupation is negative, a second test of occupation based on measurements relating to the concentration of carbon dioxide; i. a first test of occupation based on a detection of movement; ii. and, if the first test of occupation is negative, a second test of occupation based on measurements relating to the concentration of carbon dioxide; • a step of determination of a state of activity of the room, it being possible for said state to be active or inactive, based on the results of the step of determination of the state of occupation of the room; • a step of automatic control of the system equipping the premises as a function of the determined, active or inactive, state of activity of the room (Pi).