mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a hearing device for a user having tinnitus, the method comprising the steps of: - generating a stimulation signal depending on characteristics of a perceived disturbing internal signal resulting from a tinnitus perceived by a prospective user of the hearing device, - manually adjusting a level of the stimulation signal, - limiting the manually adjusted stimulation signal thereby generating a limited stimulation signal, - converting an acoustic input signal into a corresponding converted input signal (20; 21), - applying a transfer function to the converted input signal (20; 21) for generating a processed input signal, - superimposing the processed input signal onto the limited stimulation signal for generating a superposition signal, and - feeding the superposition signal to an output transducer for generating a hearing device output signal. - generating a stimulation signal depending on characteristics of a perceived disturbing internal signal resulting from a tinnitus perceived by a prospective user of the hearing device, - manually adjusting a level of the stimulation signal, - limiting the manually adjusted stimulation signal thereby generating a limited stimulation signal, - converting an acoustic input signal into a corresponding converted input signal (20; 21), - applying a transfer function to the converted input signal (20; 21) for generating a processed input signal, - superimposing the processed input signal onto the limited stimulation signal for generating a superposition signal, and - feeding the superposition signal to an output transducer for generating a hearing device output signal.
A safety system for restricting operation of at least one automated mining vehicle (113, 123) to a safety zone forming part of a work area comprising a plurality of safety zones (S1, S2; S1';S1",S2",S3",S4") defined by barrier sensors at respective entrances and/or exits of the plurality of safety zones (S1, S2; S1';S1",S2",S3",S4"), sensor signals of the barrier sensors being communicated by sensor communication circuitry, and the safety system comprising a main control unit configured to control operation of the plurality of safety zones (S1, S2; S1';S1",S2",S3",S4"), based on barrier sensor signals received from the sensor communication circuitry, characterized in: that the main control unit is configured to store a plurality of predetermined safety zone configurations (200, 400, 500) that are designed for the work area for which the safety system is set up and that are predetermined prior to taking the safety system into use, and that the main control unit comprises an interface configured to enable a switch from one safety zone configuration to another, such that a predetermined safety zone configuration to be used for automated operation of mining vehicles (113, 123) within the work area is selectable via the interface, wherein a plurality of different predetermined safety zone configurations (200, 400, 500) are selectable, wherein only a predetermined plurality of predefined settings are selectable through the interface when switching from a first safety zone configuration to a second safety zone configuration, and wherein a switch from a first safety zone configuration to a second, safety zone configuration, causes the main control unit of the safety system to control operation of the plurality of safety zones (S1, S2; S1';S1",S2",S3",S4") according to the selected setting. that the main control unit is configured to store a plurality of predetermined safety zone configurations (200, 400, 500) that are designed for the work area for which the safety system is set up and that are predetermined prior to taking the safety system into use, and that the main control unit comprises an interface configured to enable a switch from one safety zone configuration to another, such that a predetermined safety zone configuration to be used for automated operation of mining vehicles (113, 123) within the work area is selectable via the interface, wherein a plurality of different predetermined safety zone configurations (200, 400, 500) are selectable, wherein only a predetermined plurality of predefined settings are selectable through the interface when switching from a first safety zone configuration to a second safety zone configuration, and wherein a switch from a first safety zone configuration to a second, safety zone configuration, causes the main control unit of the safety system to control operation of the plurality of safety zones (S1, S2; S1';S1",S2",S3",S4") according to the selected setting.
A system for pre-start motoring synchronization for multiple engines of an aircraft, the system comprising: a first engine starting system of a first engine; and a controller operable to synchronize a motoring time of the first engine starting system with the motoring time of one or more other engine starting systems of one or more other engines of the aircraft by extending the motoring time of the first engine starting system to match, within a synchronization tolerance, the motoring time of the one or more other engine starting systems in a pre-start motoring sequence, wherein the motoring time of the first engine starting system is synchronized with the one or more other engine starting systems by comparing an initial value of the motoring time of the first engine starting system with an initial value of the motoring time of the one or more other engine starting systems and selecting a largest value as the motoring time for the first engine starting system and the one or more other engine starting systems. a first engine starting system of a first engine; and a controller operable to synchronize a motoring time of the first engine starting system with the motoring time of one or more other engine starting systems of one or more other engines of the aircraft by extending the motoring time of the first engine starting system to match, within a synchronization tolerance, the motoring time of the one or more other engine starting systems in a pre-start motoring sequence, wherein the motoring time of the first engine starting system is synchronized with the one or more other engine starting systems by comparing an initial value of the motoring time of the first engine starting system with an initial value of the motoring time of the one or more other engine starting systems and selecting a largest value as the motoring time for the first engine starting system and the one or more other engine starting systems.
Filter holder for coffee machines, comprising a handle connected to a substantially cylindrical body, inside which a perforated filter is provided, the cylindrical body forming a cup-shaped container for containing coffee powder and being provided with engagement fins, the filter holder further comprising identification means for identifying the type of filter holder, characterized in that said identification means for identifying the type of filter holder comprise at least one diametral magnet whose magnetic orientation can be detected outside the filter holder, wherein said diametral magnet is a disk-shaped magnet having a N-S polarity aligned along a diameter of the magnetic disk itself.
A rotary compressor, comprising: a rotary shaft; a plurality of plates (110, 120) supporting the rotary shaft; a cylinder provided between the plurality of plates (110, 120) to define a compression space, and provided with a vane slot; a roller slidably coupled to the rotary shaft to be provided inside the cylinder, and disposed with a hinge groove on an outer circumferential surface thereof; and a vane, one end of which is slidably coupled to the vane slot of the cylinder, and the other end of which is rotatably coupled to the hinge groove of the roller, wherein at least one of both axial end surfaces of the roller facing the plurality of plates (110, 120) is provided with a dimple portion (1415, 1416) having a preset depth, wherein the dimple portion (1415, 1416) has a circumferential length greater than a radial length thereof, characterized in that the dimple portion (1415, 1416) is disposed on at least one of both sealing surfaces (1412, 1413) of the roller, and wherein the dimple portion (1415, 1416) is disposed in the shape of an elongated groove in a circumferential direction toward the hinge groove. a rotary shaft; a plurality of plates (110, 120) supporting the rotary shaft; a cylinder provided between the plurality of plates (110, 120) to define a compression space, and provided with a vane slot; a roller slidably coupled to the rotary shaft to be provided inside the cylinder, and disposed with a hinge groove on an outer circumferential surface thereof; and a vane, one end of which is slidably coupled to the vane slot of the cylinder, and the other end of which is rotatably coupled to the hinge groove of the roller, wherein at least one of both axial end surfaces of the roller facing the plurality of plates (110, 120) is provided with a dimple portion (1415, 1416) having a preset depth, wherein the dimple portion (1415, 1416) has a circumferential length greater than a radial length thereof, characterized in that the dimple portion (1415, 1416) is disposed on at least one of both sealing surfaces (1412, 1413) of the roller, and wherein the dimple portion (1415, 1416) is disposed in the shape of an elongated groove in a circumferential direction toward the hinge groove.
A system for regulating the pressure on an overpressure container with an inert gas atmosphere, comprising a container pressure regulating valve, a control device for controlling the container pressure regulating valve, the container pressure regulating valve being designed to close automatically when there is negative pressure inside the container; an adjusting device that is controllable by the control device for actuating the container pressure regulating valve against a closing force that causes the automatic closing of the container pressure regulating valve, the adjusting device being pneumatically actuated; an operating pressure supply line that is connected to the adjusting device; an actuating pressure regulating valve for actuating the actuating device as well as means for relieving pressure of the actuating device in the event of an electrical supply voltage failure of the control device, an electrically controllable vent valve being provided as a means for relieving pressure of the actuating device that is normally open in a first switching position and, when in the open position, brings about a pneumatic relieving of the actuating device, characterized in that the vent valve is on a pneumatic control line of the actuating pressure control valve, and in that the vent valve, when in a second switching position, causes the control line to be loaded with a control pressure that is applied to a control input of the actuating pressure regulating valve.
A method for knitting a shoe upper of knitting the shoe upper including a base knitted fabric portion (1F, 1B) that covers a foot of a wearer using a flat knitting machine including a front needle bed and a back needle bed disposed opposite to each other in a front-back direction; characterized in that knitting I or knitting II is carried out to knit a stretch preventing section configured by a knitted fabric of a plain structure, one end in a wale direction being connected to the base knitted fabric portion (1F, 1B) by knitting, and another end in the wale direction being curled without being connected to the base knitted fabric portion (1F, 1B); the knitting I includes carrying out process α 1 of knitting, with stitches of a forming region where the stretch preventing section is to be formed on the base knitted fabric portion (1F, 1B) held on only one needle bed (FB, BB), a set up portion of the stretch preventing section on another needle bed (BB, FB), process α 2 of knitting a plurality of new stitch rows continuing in a wale direction of the set up portion, and process α 3 of connecting the last new stitch row to the stitches of the base knitted fabric portion (1F, 1B) of the forming region; and knitting II includes carrying out process β 1 of knitting, with stitches of the forming region where the stretch preventing section is to be formed on the base knitted fabric portion (1F, 1B) held on only one needle bed (FB, BB), a branched stitch row branched from the base knitted fabric portion (1F, 1B) on another needle bed (BB, FB), process β 2 of knitting a plurality of new stitch rows continuing in a wale direction of the branched stitch row, and process β 3 of performing a bind-off process on the last new stitch row.
A compound having a formula Ir(L A)(L B)(L C); wherein the ligand L A is selected from the group consisting of: wherein the ligand L B is wherein the ligand L C is wherein rings A, B, C, and D are each independently a 5 or 6-membered carbocyclic or heterocyclic ring; wherein R 1, R 2, R 3, R A, R B, R C, and R D each independently represents mono, to a maximum possible number of substitutions, or no substitution; wherein X 1 to X 10, Z 1, and Z 2 are each independently C or N; wherein X is selected from the group consisting of BR', NR', PR', O, S, Se, C=O, S=O, SO 2, CR'R", SiR'R", and GeR'R"; wherein L A, L B, and L C are different from each other, and can be connected to each other to form multidentate ligand; wherein R 1, R 2, R 3, R A, R B, R C, R D, R', and R" are each independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein any two or more substituents among R 1, R 2, R 3, R A, R B, R C, R D, R', and R" are optionally joined or fused into a ring; and wherein at least one of R A, R B, R C, and R D is selected from the group consisting of alkyl, cycloalkyl, aryl, heteroaryl, partially or fully deuterated variants thereof, partially or fully fluorinated variants thereof, and combinations thereof. wherein the ligand L C is wherein rings A, B, C, and D are each independently a 5 or 6-membered carbocyclic or heterocyclic ring; wherein R 1, R 2, R 3, R A, R B, R C, and R D each independently represents mono, to a maximum possible number of substitutions, or no substitution; wherein X 1 to X 10, Z 1, and Z 2 are each independently C or N; wherein X is selected from the group consisting of BR', NR', PR', O, S, Se, C=O, S=O, SO 2, CR'R", SiR'R", and GeR'R"; wherein L A, L B, and L C are different from each other, and can be connected to each other to form multidentate ligand; wherein R 1, R 2, R 3, R A, R B, R C, R D, R', and R" are each independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein any two or more substituents among R 1, R 2, R 3, R A, R B, R C, R D, R', and R" are optionally joined or fused into a ring; and wherein at least one of R A, R B, R C, and R D is selected from the group consisting of alkyl, cycloalkyl, aryl, heteroaryl, partially or fully deuterated variants thereof, partially or fully fluorinated variants thereof, and combinations thereof.
A heat pump apparatus (100; 200; 300) in which a compressor configured to compress a refrigerant, a first heat exchanger configured to exchange heat between the refrigerant compressed by the compressor and a liquid heating medium, a decompression apparatus configured to decompress the refrigerant having passed through the first heat exchanger, a second heat exchanger configured to exchange heat between the refrigerant decompressed in the decompression apparatus and air, and a fan configured to blow air to the second heat exchanger are housed in a cabinet, wherein the cabinet is partitioned into a fan room in which the fan is installed and a machine room in which the compressor is installed by a partition plate which extends in a vertical direction, the second heat exchanger is installed along a rear surface of the cabinet in the fan room, and the first heat exchanger is formed into a hollow cylindrical shape obtained by spirally stacking heating medium piping and is installed below the compressor in the machine room, wherein a spiral groove is formed in an outer peripheral surface of the heating medium piping and refrigerant piping is spirally wound along the spiral groove, the compressor is supported on a column which is installed in a hollow of the first heat exchanger, and wherein the heat pump apparatus (100; 200; 300) comprises a sound absorbing material integrally covering the compressor and the first heat exchanger. wherein the cabinet is partitioned into a fan room in which the fan is installed and a machine room in which the compressor is installed by a partition plate which extends in a vertical direction, the second heat exchanger is installed along a rear surface of the cabinet in the fan room, and the first heat exchanger is formed into a hollow cylindrical shape obtained by spirally stacking heating medium piping and is installed below the compressor in the machine room, wherein a spiral groove is formed in an outer peripheral surface of the heating medium piping and refrigerant piping is spirally wound along the spiral groove, the compressor is supported on a column which is installed in a hollow of the first heat exchanger, and wherein the heat pump apparatus (100; 200; 300) comprises a sound absorbing material integrally covering the compressor and the first heat exchanger.
A method of sterilization of a medical device placed in a closable airtight container, comprising the following steps: a) placing said medical device inside a closable airtight container; b) closing said container; c) placing a Vacuum Ultraviolet Light source at a distance comprised between 0 and 5 cm of a window of said container, wherein said window is transparent to Vacuum Ultraviolet light and the rest of said container consists of an ultraviolet non-transparent material; d) irradiating a volume inside said container with Vacuum Ultraviolet Light through said window in order to generate ozone and/or ozonites within said volume; e) removing said Vacuum Ultraviolet Light source; f) waiting for an incubation time. a) placing said medical device inside a closable airtight container; b) closing said container; c) placing a Vacuum Ultraviolet Light source at a distance comprised between 0 and 5 cm of a window of said container, wherein said window is transparent to Vacuum Ultraviolet light and the rest of said container consists of an ultraviolet non-transparent material; d) irradiating a volume inside said container with Vacuum Ultraviolet Light through said window in order to generate ozone and/or ozonites within said volume; e) removing said Vacuum Ultraviolet Light source; f) waiting for an incubation time.
A method of operating a refrigeration system comprising: determining that the refrigeration system failed to start prior to activating an evaporator heater, wherein determining that the refrigeration system failed to start is based on a detected current draw of a compressor; activating an evaporator heater; determining a pressure differential across an evaporator; monitoring the pressure differential within the refrigeration system; when the pressure differential reaches a predetermined value, deactivating the evaporator heater; activating one or more evaporator fans, after deactivating the evaporator heater, to cause a thermostatic expansion valve to open; and restarting the refrigeration system. determining that the refrigeration system failed to start prior to activating an evaporator heater, wherein determining that the refrigeration system failed to start is based on a detected current draw of a compressor; activating an evaporator heater; determining a pressure differential across an evaporator; monitoring the pressure differential within the refrigeration system; when the pressure differential reaches a predetermined value, deactivating the evaporator heater; activating one or more evaporator fans, after deactivating the evaporator heater, to cause a thermostatic expansion valve to open; and restarting the refrigeration system.
A system for controlling turbulence of fluid flowing past a window comprising: an imaging device compartment defining an interior and an exterior separated by the window, wherein the window encloses at least a portion of the interior; wherein the exterior includes an array of multiple rows each having multiple turbulator elements, wherein the individual turbulator elements of each row are staggered with respect to individual turbulator elements on an adjacent row on a side, in use, upstream of the window positioned to induce turbulence over the entirety of a boundary layer of the fluid flowing past the window for even heat transfer between the fluid and the window, wherein each of the turbulator elements protrudes from an exterior surface of the compartment and the window is flush with the exterior surface of the compartment; and wherein each of the turbulator elements are strips having a semi-circular cross-section and have an elevation such that they are configured to protrude past a laminar sublayer of the fluid flowing upstream of the window to disrupt said flowing fluid. an imaging device compartment defining an interior and an exterior separated by the window, wherein the window encloses at least a portion of the interior; wherein the exterior includes an array of multiple rows each having multiple turbulator elements, wherein the individual turbulator elements of each row are staggered with respect to individual turbulator elements on an adjacent row on a side, in use, upstream of the window positioned to induce turbulence over the entirety of a boundary layer of the fluid flowing past the window for even heat transfer between the fluid and the window, wherein each of the turbulator elements protrudes from an exterior surface of the compartment and the window is flush with the exterior surface of the compartment; and wherein each of the turbulator elements are strips having a semi-circular cross-section and have an elevation such that they are configured to protrude past a laminar sublayer of the fluid flowing upstream of the window to disrupt said flowing fluid.