mhurhangee/ep-ind-claims huggingface dataset:
System, comprising a support frame, comprising of frame parts connected to one another, a filter element which can be fixed therein, and at least two fixing devices, wherein each frame part exhibits at least partially an L-shaped cross-section, with a locating arm and a side arm formed on the outside thereof, wherein the support frame is configured in particular as circumferential, and wherein the outer contour of the filter element is configured in such a way that the filter element can be reversibly inserted into the support frame and, by means of the at least two fixing devices, arranged so as to be distributed over the circumference of the filter element, can be fixed opposite the support frame, wherein at least one fixing device comprises a fixing element which is configured as elastic and/or mounted under spring force and with a contact region, characterised in that the fixing element can be temporarily displaced out of its fixing position, in which it fixes the filter element in the support frame, so as to insert the filter element into the support frame or, respectively, to remove the filter element from the support frame against its resetting force in the direction (arrow 17) of the adjacent side arm, and, due to its resetting force, a subsequent automatic return to its fixing position takes place.
A method for cooling a switch cabinet, comprising the following steps: - passing air from the surroundings of the switch cabinet through a first air duct of a cooling device; - passing air from the interior of the switch cabinet through a second air duct of the cooling device, the first air duct and the second air duct (3, 8) being fluidically separate from one another and being thermally coupled via an air-air heat exchanger; characterized by - aftercooling of the air, led through the second air duct via the air-air heat exchanger, using a combined air-coolant heat exchanger and evaporator in the second air duct, the combined air-coolant heat exchanger and evaporator being a component of a cooling circuit which is selectively compressor-driven or based on recirculation of a coolant, and which also has an air-coolant heat exchanger and a condenser, which outside the housing is associated with a different heat reservoir than the combined air-coolant heat exchanger and evaporator, wherein the combined air-coolant heat exchanger and evaporator is operated as an air-coolant heat exchanger when the after cooling of the air led through the second air duct via the air-air heat exchanger, provided by the air-coolant heat exchanger, is sufficient, for a given loss in output of a heat source inside the switch cabinet, to achieve adequate cooling of the air led through the second air duct, and wherein the combined air-coolant heat exchanger and evaporator is operated as an evaporator of a compressor-driven cooling circuit when the cooling power provided when the combined air-coolant heat exchanger and evaporator is operated as an air-coolant heat exchanger is not sufficient. - passing air from the surroundings of the switch cabinet through a first air duct of a cooling device; - passing air from the interior of the switch cabinet through a second air duct of the cooling device, the first air duct and the second air duct (3, 8) being fluidically separate from one another and being thermally coupled via an air-air heat exchanger; - aftercooling of the air, led through the second air duct via the air-air heat exchanger, using a combined air-coolant heat exchanger and evaporator in the second air duct, the combined air-coolant heat exchanger and evaporator being a component of a cooling circuit which is selectively compressor-driven or based on recirculation of a coolant, and which also has an air-coolant heat exchanger and a condenser, which outside the housing is associated with a different heat reservoir than the combined air-coolant heat exchanger and evaporator,
A heater system comprising a heater bundle, the heater bundle comprising: a plurality of heater assemblies, each heater assembly comprising a plurality of heater units, each heater unit defining at least one independently controlled heating zone; a plurality of power conductors electrically connected to each of the at least one independently controlled heating zone in each of the heater units; and means for detecting temperature within each of the independently controlled heating zones; and a power supply device; characterized in that the power supply device includes a controller configured to modulate power to each of the independently controlled heating zones of the heater units through the power conductors based on detected temperature within each of the independently controlled heating zones to provide a desired wattage along a length of each of the heater assemblies.
A method of calculating an output torque of a walking assistance device (100, 300), the method comprising: measuring a joint angle associated with a joint of the user; determining a first gait cycle based on the measured joint angle of the user by using a particularly shaped adaptive oscillator (PSAO); determining a gait parameter with respect to a transition among predefined gait states based on the joint angle of the user, measured using a finite state machine; and calculating the output torque based on the first gait cycle and the gait parameter, wherein calculating the output torque to determine a final gait cycle comprises determining whether a difference between the first gait cycle and a second gait cycle that is comprised in the gait parameter is greater than or equal to a threshold; and calculating the output torque based on: - the gait parameter comprising the second gait cycle in response to a determination that the difference is greater than or equal to the threshold; and - the first gait cycle and the gait parameter comprising the second gait cycle, if the difference is less than the threshold. measuring a joint angle associated with a joint of the user; determining a first gait cycle based on the measured joint angle of the user by using a particularly shaped adaptive oscillator (PSAO); determining a gait parameter with respect to a transition among predefined gait states based on the joint angle of the user, measured using a finite state machine; and calculating the output torque based on the first gait cycle and the gait parameter, wherein calculating the output torque to determine a final gait cycle comprises determining whether a difference between the first gait cycle and a second gait cycle that is comprised in the gait parameter is greater than or equal to a threshold; and calculating the output torque based on: - the gait parameter comprising the second gait cycle in response to a determination that the difference is greater than or equal to the threshold; and - the first gait cycle and the gait parameter comprising the second gait cycle, if the difference is less than the threshold. - the gait parameter comprising the second gait cycle in response to a determination that the difference is greater than or equal to the threshold; and - the first gait cycle and the gait parameter comprising the second gait cycle, if the difference is less than the threshold.
A humanized Type II anti-CD20 antibody comprising (a) a heavy chain variable region comprising SEQ ID NO:32 or a heavy chain variable region comprising SEQ ID NO:32 which comprises the substitution M34I, and (b) a light chain variable region comprising SEQ ID NO:76. (a) a heavy chain variable region comprising SEQ ID NO:32 or a heavy chain variable region comprising SEQ ID NO:32 which comprises the substitution M34I, and (b) a light chain variable region comprising SEQ ID NO:76.
A refrigerator comprising: an ice making tray in which ice cubes are made; an ejector to discharge the ice cubes from the ice making tray; an ice bin to store the ice cubes discharged by the ejector; an auger to move the ice cubes in the ice bin; a first drive unit to provide the ejector with rotational force; a second drive unit to provide the auger with rotational force; an emitter to output optical signals to sense whether the ice cubes in the ice bin are at a full ice level; and a receiver to receive the optical signals output from the emitter, characterized in that any one of the emitter and the receiver is installed at the first drive unit; and the other one is installed at the second drive unit. an ice making tray in which ice cubes are made; an ejector to discharge the ice cubes from the ice making tray; an ice bin to store the ice cubes discharged by the ejector; an auger to move the ice cubes in the ice bin; a first drive unit to provide the ejector with rotational force; a second drive unit to provide the auger with rotational force; an emitter to output optical signals to sense whether the ice cubes in the ice bin are at a full ice level; and a receiver to receive the optical signals output from the emitter, characterized in that any one of the emitter and the receiver is installed at the first drive unit; and the other one is installed at the second drive unit.
A slide rail assembly, comprising: a front bracket; a first rail movably connected to the front bracket; and a second rail displaceable with respect to the first rail; wherein the front bracket includes an opening, and the first rail includes a stop; and wherein the slide rail assembly further comprises: a buffer member fixedly mounted on the first rail, the buffer member being in the opening; and an engaging member provided on the second rail, the engaging member corresponding to the stop of the first rail; wherein when the second rail is displaced from a retracted position to a first extended position with respect to the first rail, a portion of the second rail moves beyond a front end of the first rail; and when the second rail is displaced from the first extended position to a second extended position with respect to the first rail, the engaging member is pushed against the stop of the first rail, thereby generating an impact force, and the first rail is displaced from a first position to a second position with respect to the front bracket such that the buffer member hits a wall of the opening of the front bracket and thus absorbs the impact force. a front bracket; a first rail movably connected to the front bracket; and a second rail displaceable with respect to the first rail; wherein the front bracket includes an opening, and the first rail includes a stop; and wherein the slide rail assembly further comprises: a buffer member fixedly mounted on the first rail, the buffer member being in the opening; and an engaging member provided on the second rail, the engaging member corresponding to the stop of the first rail; a buffer member fixedly mounted on the first rail, the buffer member being in the opening; and an engaging member provided on the second rail, the engaging member corresponding to the stop of the first rail; wherein when the second rail is displaced from a retracted position to a first extended position with respect to the first rail, a portion of the second rail moves beyond a front end of the first rail; and when the second rail is displaced from the first extended position to a second extended position with respect to the first rail, the engaging member is pushed against the stop of the first rail, thereby generating an impact force, and the first rail is displaced from a first position to a second position with respect to the front bracket such that the buffer member hits a wall of the opening of the front bracket and thus absorbs the impact force.
A spring device (1; 2; 3; 4) consisting of a part using the resilient properties of the material or materials, which it is made of, and which includes at least two opposite points, or areas, (A, B; 20, 21; 30; 43) to be subjected to biases, and wherein it comprises, between said points or areas (A, B; 20, 21; 30; 43), an intermediate portion comprising a mesh structure resulting from the assembly of segments (11, 12, 13, 14, 15; 20, 21, 22; 30, 31, 33; 40, 41, 42), whether rectilinear or not, at least two of which extend in different planes, and both outwardly with respect to the direction of the bias, so that during said biasing, one is biased longitudinally in compression and the other one longitudinally in traction.
A program that causes a computer to execute a process, the process comprising: reading out time-series data to be analyzed from a storage unit, the time-series data comprising wearable sensor data, or natural environment data that indicate temperature, humidity, or carbon dioxide concentration; characterised by determining numerical values indicating features at respective timings having a predetermined time interval with respect to the time-series data by determining, for each time interval between the respective timings, numerical values of a highest point and a lowest point included in the time-series data within that time interval and numerical values of interpolation points between the highest point and the lowest point, wherein a same number of the interpolation points is determined in respect of each time interval; generating an attractor related to the time-series data based on the determined numerical values; and analyzing the time-series data by topological data analysis based on the generated attractor. reading out time-series data to be analyzed from a storage unit, the time-series data comprising wearable sensor data, or natural environment data that indicate temperature, humidity, or carbon dioxide concentration; characterised by determining numerical values indicating features at respective timings having a predetermined time interval with respect to the time-series data by determining, for each time interval between the respective timings, numerical values of a highest point and a lowest point included in the time-series data within that time interval and numerical values of interpolation points between the highest point and the lowest point, wherein a same number of the interpolation points is determined in respect of each time interval; generating an attractor related to the time-series data based on the determined numerical values; and analyzing the time-series data by topological data analysis based on the generated attractor.
A stretched laminated film comprising at least four layers of: a first surface layer, an adhesive layer, a barrier layer, and a second surface layer sequentially laminated in order thereof, wherein the melting temperature of the first surface layer is from 65°C to no more than 150°C higher than the melting temperature of the second surface layer, and the barrier layer is composed of a vinylidene chloride copolymer, and the melting temperature of the barrier layer is no less than 130°C to less than 160°C, wherein the melting temperatures are determined in accordance with JIS-K 7121. the melting temperature of the first surface layer is from 65°C to no more than 150°C higher than the melting temperature of the second surface layer, and the barrier layer is composed of a vinylidene chloride copolymer, and the melting temperature of the barrier layer is no less than 130°C to less than 160°C, wherein the melting temperatures are determined in accordance with JIS-K 7121.
A method for ex vivo induction of lymphocytes with a CD8 + CD25 + phenotype, characterized in that isolated blood cells of an individual, are ex vivo contacted with a solution of somatic proteins from a helminth parasite, wherein the solution of somatic proteins is obtained by collecting developmental stage of a helminth L4 larvae stage and shredding in order to obtain a complete tissue homogenate, and wherein helminth parasite is a nematode Heligmosomoides polygyrus; wherein the contacting is carried out under conditions and on a medium enabling proliferation of lymphocytes, wherein the induced lymphocytes are then isolated, wherein the obtained isolated lymphocytes with the CD8 + CD25 + phenotype do not express the transcription factor FOXP3 and are CD103 -; wherein the L4 stage of development of Heligmosomoides polygyrus is obtained by infection of a non-human animal with an invasive form, wherein preferably the infection is with the L3 stage of development of Heligmosomoides polygyrus; cultivation of the non-human animal for the time needed for the larva to transform into the next stage L4, in which it colonizes the small intestine; isolation of the small intestine of the non-human animal and release of the developed L4 stage into the medium and its separation from the medium; and wherein isolated blood cells of an individual are from individual exhibiting presence of autoreactive T lymphocytes. wherein the solution of somatic proteins is obtained by collecting developmental stage of a helminth L4 larvae stage and shredding in order to obtain a complete tissue homogenate, and wherein helminth parasite is a nematode Heligmosomoides polygyrus; wherein the contacting is carried out under conditions and on a medium enabling proliferation of lymphocytes, wherein the induced lymphocytes are then isolated, wherein the obtained isolated lymphocytes with the CD8 + CD25 + phenotype do not express the transcription factor FOXP3 and are CD103 -; wherein the L4 stage of development of Heligmosomoides polygyrus is obtained by infection of a non-human animal with an invasive form, wherein preferably the infection is with the L3 stage of development of Heligmosomoides polygyrus; cultivation of the non-human animal for the time needed for the larva to transform into the next stage L4, in which it colonizes the small intestine; isolation of the small intestine of the non-human animal and release of the developed L4 stage into the medium and its separation from the medium; and wherein isolated blood cells of an individual are from individual exhibiting presence of autoreactive T lymphocytes.
A cleaning article for optional removable attachment to a handle and having a longitudinal axis defining a longitudinal length, said cleaning article comprising: at least one layer of tow fibers, said tow fibers extending transversely outward from proximal ends juxtaposed with said longitudinal axis to distal ends transversely remote therefrom, said layer further having first and second opposed faces; a generally planar sheet disposed on said first face of said at least one layer of tow fibers, characterized by said sheet having a plurality of discrete apertures therethrough. at least one layer of tow fibers, said tow fibers extending transversely outward from proximal ends juxtaposed with said longitudinal axis to distal ends transversely remote therefrom, said layer further having first and second opposed faces; a generally planar sheet disposed on said first face of said at least one layer of tow fibers, characterized by said sheet having a plurality of discrete apertures therethrough.
An engine breather filter assembly for monitoring an internal combustion engine comprising: a filter cavity configured to accommodate a breather filter element; a processor; a sensor module configured to sense a characteristic of the internal combustion engine and output data representative of the sensed characteristic to the processor; wherein the engine breather filter assembly is configured to provide a housing for the processor; and the processor is configured to determine a value representative of the firing frequency of the internal combustion engine based on the output data, wherein the sensor module comprises a pressure sensor and the sensed characteristic comprises engine crankcase pressure, wherein the processor is configured to calculate a root mean squared value of engine crankcase pressure, and wherein the processor is configured to generate an aggregated summary of the total engine running at each combination of firing frequency and root mean squared engine crank case pressure. a filter cavity configured to accommodate a breather filter element; a processor; a sensor module configured to sense a characteristic of the internal combustion engine and output data representative of the sensed characteristic to the processor; wherein the engine breather filter assembly is configured to provide a housing for the processor; and the processor is configured to determine a value representative of the firing frequency of the internal combustion engine based on the output data, wherein the sensor module comprises a pressure sensor and the sensed characteristic comprises engine crankcase pressure, wherein the processor is configured to calculate a root mean squared value of engine crankcase pressure, and wherein the processor is configured to generate an aggregated summary of the total engine running at each combination of firing frequency and root mean squared engine crank case pressure.
Male diaper for urinary protection, integrating multiple layers of different materials: at least one waterproof outer layer and at least one inner layer for absorbing the urine of a man who does not control urination of such urine; the male diaper comprising a bag-shaped surrounding body (1, 2), within which the group of penis and genitals of a man is housed; the surrounding body (1, 2) having a mouth (3, 4) adjustable to the starting junction of the group of penis and genitals; and the structure delimiting the mouth (3, 4) of the surrounding body (1, 2) integrating an adjusting device, such that in the application position of the surrounding body (1, 2), such adjusting device generates an adjusted adaptation of such mouth (3, 4) against the starting junction of the group of penis and genitals, the male diaper further comprising at least one open cut interrupting the continuity of the structure of the material delimiting the mouth of the surrounding body, characterized in that the adjusting device of the mouth comprises self-adhesive strips arranged on both sides of the at least one open cut.
A method for thermal conversion of hydrocarbons using a reaction pump, the reaction pump comprising a reaction chamber comprising a cylindrical inner wall, a first rotor disposed in the reaction chamber, wherein the first rotor comprises two or more vanes and is mounted eccentrically within the cylindrical inner wall of the reaction chamber, a drive unit configured to rotate the first rotor, and an outlet section comprising a cylindrical inner wall, the method comprising the following steps: - conducting a first mixture containing hydrocarbons into the reaction chamber and, - by means of the first rotor, which is rotated by the drive unit at an angular speed between 300 and 5000 RPM, transferring energy to the first mixture contained in the reaction chamber to split hydrocarbons contained in the first mixture, whereby a second mixture containing split hydrocarbons is obtained, and conveying the second mixture to the outlet section, characterized in that the second mixture is conveyed through the outlet section and, when being conveyed through the outlet section, temporarily pressurized by means of a second rotor disposed in the outlet section to a pressure of between 0.2 and 6 bar, in particular between 4 and 6 bar, wherein a temporary pressure increase has a duration of between 0.05 sec and 0.5 sec, and wherein the second rotor comprises two or more vanes and is mounted centrically within the cylindrical inner wall of the outlet section. - conducting a first mixture containing hydrocarbons into the reaction chamber and, - by means of the first rotor, which is rotated by the drive unit at an angular speed between 300 and 5000 RPM, transferring energy to the first mixture contained in the reaction chamber to split hydrocarbons contained in the first mixture, whereby a second mixture containing split hydrocarbons is obtained, and conveying the second mixture to the outlet section,