mhurhangee/ep-ind-claims huggingface dataset:
A particulate filter disposed in an exhaust path of an internal combustion engine and used to collect particulate matter from exhaust gas discharged from the internal combustion engine, the particulate filter comprising: a substrate having a wall flow structure including a porous partition wall partitioning an inlet cell that includes an open end portion on an exhaust gas inflow side and an outlet cell that is adjacent to the inlet cell and has an open end portion on an exhaust gas outflow side; and a wash coat layer formed inside the partition wall, wherein the wash coat layer is held on surfaces of internal pores of the partition wall, among the internal pores of the partition wall, an average filling rate A of the wash coat layer held in a first pore group having a pore diameter of 5 μm or more but less than 10 μm, an average filling rate B of the wash coat layer held in a second pore group having a pore diameter of 10 μm or more but less than 20 μm, and an average filling rate C of the wash coat layer held in a third pore group having a pore diameter of 20 μm or more satisfy relationship below: A < B < C; and B ≤ 40 %, among pores of the first pore group and the second pore group, a proportion of pores in which a filling rate of a wash coat layer is 75% or more is 35% by number or less, the wash coat layer is formed in a region that occupies 50% or more of a thickness of the partition wall from at least a part of a surface of the partition wall facing at least one of the inlet cell and the outlet cell, and wherein the wash coat layer does not contain the noble metal catalyst. a substrate having a wall flow structure including a porous partition wall partitioning an inlet cell that includes an open end portion on an exhaust gas inflow side and an outlet cell that is adjacent to the inlet cell and has an open end portion on an exhaust gas outflow side; and a wash coat layer formed inside the partition wall, wherein the wash coat layer is held on surfaces of internal pores of the partition wall, among the internal pores of the partition wall, an average filling rate A of the wash coat layer held in a first pore group having a pore diameter of 5 μm or more but less than 10 μm, an average filling rate B of the wash coat layer held in a second pore group having a pore diameter of 10 μm or more but less than 20 μm, and an average filling rate C of the wash coat layer held in a third pore group having a pore diameter of 20 μm or more satisfy relationship below: A < B < C; and B ≤ 40 %, among pores of the first pore group and the second pore group, a proportion of pores in which a filling rate of a wash coat layer is 75% or more is 35% by number or less, the wash coat layer is formed in a region that occupies 50% or more of a thickness of the partition wall from at least a part of a surface of the partition wall facing at least one of the inlet cell and the outlet cell, and wherein the wash coat layer does not contain the noble metal catalyst.
A rotating electric machine comprising: - a rotor having a shaft; - a stator formed around the rotor; - a seal ring formed around the shaft and having a plurality of through holes; - a gland seal formed so as to surround the seal ring and having an oil feed port; - a partition plate formed between the seal ring and the gland seal; and - a housing which houses the rotor and the stator and to which the gland seal is fixed, wherein the partition plate is formed at a position opposed to the oil feed port and is fixed to at least one of an upper wall and a lower wall in an axial direction of the gland seal, characterised in that the partition plate has a reinforcing plate at such a position as not to obstruct the oil feed port, the reinforcing plate being fixed to a side wall of the partition plate on a gland seal side and being in close contact with a circumferential wall of the gland seal. - a rotor having a shaft; - a stator formed around the rotor; - a seal ring formed around the shaft and having a plurality of through holes; - a gland seal formed so as to surround the seal ring and having an oil feed port; - a partition plate formed between the seal ring and the gland seal; and - a housing which houses the rotor and the stator and to which the gland seal is fixed,
Method for refining molten glass, in which refining gas is generated by refining agents in the molten glass, characterized in that the molten glass has added to it at least one refining agent which releases its maximum level of refining gas in the case of said molten glass at over 1700°C, and in that the molten glass is heated to a temperature of between 1700°C and 2800°C and refined.
A method for posture and movement regulation for humans, said method comprising the steps of: a) determining the body position data of the human body, in particular determining a degree of inclination of the human body, b) sending the body position data to a computing unit, c) converting the body position data into two acoustic signals, d) sending the acoustic signal to an output unit, specifically headphones, for outputting two stereo acoustic signals, wherein in step a) the body position data are determined in the sagittal plane and in the frontal plane of the body, and in step c) a first stereo acoustic signal is generated for the body position data in the frontal plane and a second stereo acoustic signal is generated for the body position data in the sagittal plane, wherein in step a) data with respect to the step force are detected and in step c) are included in the calculation of the acoustic signals. a) determining the body position data of the human body, in particular determining a degree of inclination of the human body, b) sending the body position data to a computing unit, c) converting the body position data into two acoustic signals, d) sending the acoustic signal to an output unit, specifically headphones, for outputting two stereo acoustic signals, wherein in step a) the body position data are determined in the sagittal plane and in the frontal plane of the body, and in step c) a first stereo acoustic signal is generated for the body position data in the frontal plane and a second stereo acoustic signal is generated for the body position data in the sagittal plane, wherein in step a) data with respect to the step force are detected and in step c) are included in the calculation of the acoustic signals. in step a) the body position data are determined in the sagittal plane and in the frontal plane of the body, and in step c) a first stereo acoustic signal is generated for the body position data in the frontal plane and a second stereo acoustic signal is generated for the body position data in the sagittal plane, wherein in step a) data with respect to the step force are detected and in step c) are included in the calculation of the acoustic signals.
Friction material for brake pads comprising a binding composition based on a hydraulic binder, selected among Portland cement, pozzolana cement or slag cement, said binder being provided with a blaine fineness comprised between 3500 and 9000, more preferably between 4000 and 7000 and still more preferably with a fineness equal to 6500 cm 2 /g (blaine), the binding composition being present in a percentage ranging from 5 to 30% by weight with respect to the total weight of the mixture constituting the friction material and comprising water in a percentage ranging from 5 to 20 % by weight and a multi-component mixture providing at least a lubricant, preferably in a percentage ranging from 5 to 15% by weight, at least an abrasive, preferably in a percentage ranging from 8 to 25% by weight, at least a component containing carbon, preferably in a percentage ranging from 8 to 25% by weight, at least a modifier, preferably in a percentage ranging from 15 to 30 % by weight, all the percentages being computed with respect to the total weight of the composition constituting the friction material.
An electronic device, comprising: an amplifier; a signal conversion unit including a single photodiode and first, second and third pins, wherein the first and second pins are electrically connected to each other and to one electrode of the single photodiode, wherein the third pin is connected to another electrode of the single photodiode and to a power source to receive a driving voltage, and wherein the single photodiode is configured to, in response to being irradiated with light of an optical signal from an external device, convert the optical signal into an electric signal which is output at the first pin or at the second pin; and a processor configured to receive the electric signal output from the signal conversion unit and to control to supply power to the amplifier in response to the electric signal being received from the signal conversion unit, wherein the amplifier, in response to the power being supplied to the amplifier, is configured to receive the electric signal output from the signal conversion unit, amplify the received electric signal and output the amplified electric signal to the processor, wherein the first pin is connected to the processor, and wherein the second pin is connected to the amplifier. an amplifier; a signal conversion unit including a single photodiode and first, second and third pins, wherein the first and second pins are electrically connected to each other and to one electrode of the single photodiode, wherein the third pin is connected to another electrode of the single photodiode and to a power source to receive a driving voltage, and wherein the single photodiode is configured to, in response to being irradiated with light of an optical signal from an external device, convert the optical signal into an electric signal which is output at the first pin or at the second pin; and a processor configured to receive the electric signal output from the signal conversion unit and to control to supply power to the amplifier in response to the electric signal being received from the signal conversion unit, wherein the amplifier, in response to the power being supplied to the amplifier, is configured to receive the electric signal output from the signal conversion unit, amplify the received electric signal and output the amplified electric signal to the processor, wherein the first pin is connected to the processor, and wherein the second pin is connected to the amplifier. wherein the first pin is connected to the processor, and wherein the second pin is connected to the amplifier.
An air supply arrangement for supplying air from the atmosphere towards an internal combustion engine in a vehicle, the air supply arrangement comprising an air intake for intake of air from the atmosphere, an air outlet for outlet of air towards the internal combustion engine, wherein the air intake is arranged vertically above said air outlet, an air duct for leading air from the air intake in a downstream direction to the air outlet, a separator arranged in the air duct so as to divide the air duct into an upstream portion and a downstream portion for filtering of atmospheric air from debris by passage of said atmospheric air through the separator; and a compressed air delivery arrangement arranged to supply compressed air towards the separator for cleaning the separator from assembled debris, wherein the separator comprises a plurality of separator passages, characterized in that said separator passages extend at least along a vertically upward direction as seen from the upstream portion to the downstream portion, and are formed so as to redirect air from a downward direction in the upstream portion to an at least vertically upward direction when passing through the separator. an air intake for intake of air from the atmosphere, an air outlet for outlet of air towards the internal combustion engine, wherein the air intake is arranged vertically above said air outlet, an air duct for leading air from the air intake in a downstream direction to the air outlet, a separator arranged in the air duct so as to divide the air duct into an upstream portion and a downstream portion for filtering of atmospheric air from debris by passage of said atmospheric air through the separator; and a compressed air delivery arrangement arranged to supply compressed air towards the separator for cleaning the separator from assembled debris, wherein the separator comprises a plurality of separator passages, characterized in that said separator passages extend at least along a vertically upward direction as seen from the upstream portion to the downstream portion, and are formed so as to redirect air from a downward direction in the upstream portion to an at least vertically upward direction when passing through the separator.
An array antenna, wherein the array antenna comprises a first metal layer, a first dielectric layer, a second metal layer, a second dielectric layer and a third metal layer that are sequentially laminated, wherein multiple metal through holes are disposed on the second dielectric layer, the multiple metal through holes are electrically connected between the second metal layer and the third metal layer, and form a feeding section, the first metal layer comprises multiple subarrays, each subarray comprises multiple radiating arrays composed of a surface mount array of a planar structure formed by a microstrip, and one power splitter, the power splitter comprises a central area and multiple branches extending from the central area, the multiple radiating arrays are respectively connected to ends of the multiple branches that are far from the central area to form a parallel signal transmission architecture, multiple coupling slots are disposed on the second metal layer, the multiple coupling slots respectively face central areas of multiple power splitters, the feeding section is used to feed a signal, the signal is transmitted to the central areas of the power splitters by using the multiple coupling slots, and the signal is transmitted to the multiple radiating arrays by using the multiple branches, wherein the feeding section comprises multiple feeding units, and projections of the multiple coupling slots on the second dielectric layer respectively fall within ranges of the multiple feeding units.
Method for introducing chemicals and/or additives into a process stream of a production process, in particular a process for producing a fibrous or nonwoven web, by means of a nozzle arrangement, characterized in that use is made of a nozzle arrangement having at least one mixing zone (10 i) and a throttling device which is arranged in the region of the nozzle outlet opening and the flow characteristic of which can be varied and/or which, for a variable changeability of the flow characteristic in the region of the nozzle outlet opening, can be exchanged for a respective other throttling device having another flow characteristic, in each case at least two media are mixed with one another in a respective mixing zone (10 i), to set different flow velocities of the mixed stream emerging from the nozzle outlet opening and to be introduced into the process stream, in each case the flow characteristic of the throttling device is changed appropriately or a respective throttling device is replaced by a throttling device having a different flow characteristic.
Printing machine comprising at least one print head, wherein the relevant print head is configured to print, in an inkjet printing process, a surface of an article that rotates during the printing process, wherein a printing width of the relevant print head in each case extends over a section of a length of the article to be printed, wherein the relevant section in each case extends longitudinally in relation to a longitudinal axis of the article to be printed, wherein a three-dimensional orthogonal coordinate system, the origin of which is arranged in a center of mass of the relevant print head and which is fixed in terms of the print head, has a longitudinal axis and a transverse axis and a vertical axis, wherein the longitudinal axis of the relevant print head extends parallel to the printing width of this print head, wherein a plurality of print heads that each print the surface of the relevant article in an inkjet printing process are provided, wherein these print heads are arranged in a row longitudinally in relation to the longitudinal axis of the article to be printed, wherein a respective direction of the ink ejected by the respective printing nozzles of these print heads and the longitudinal axis of the article to be printed are situated in the same printing plane and the respective direction of the ink ejected by the respective printing nozzles of these print heads is in each case oriented perpendicularly to the surface of the relevant article to be printed, wherein a plurality of different printing planes are provided with respect to the surface of the relevant article to be printed, wherein directly adjacent printing planes create a V formation, wherein a control unit is provided, wherein this control unit is designed so as to track, or at least be able to track, a respective printing position of the relevant print head during an ongoing printing process based on a surface geometry of the article to be printed, and wherein a mount holding the relevant print head is provided, characterized in that the mount of the relevant print head is designed so as to be movable in such a way that the relevant print head carries out a rotational movement at least about its vertical axis, wherein the mount that changes the position of the relevant print head in space comprises a first positioning drive, by way of which the at least one print head can be displaced along its transverse axis, wherein this mount comprises a second positioning drive, by way of which the at least one print head can be rotated about its vertical axis, and wherein this mount comprises a third positioning drive, by way of which the at least one print head can be rotated about its longitudinal axis.
A method performed by one or more processors, comprising: receiving an audio signal; receiving a modal reverb effect to be applied to the audio signal, the modal reverb effect including a plurality of modes of vibration of a given acoustic space, each mode of vibration having a corresponding modal frequency; determining a plurality of frequencies for modifying the modal reverb effect, wherein the plurality of frequencies correspond to the frequencies of the notes of the chromatic scale within a specified range, or to a subset of frequencies of the notes of the chromatic scale; separating the plurality of modes of vibration of the modal reverb effect into first and second sets of modes of vibrations, wherein the first set of modes of vibrations includes those modes of vibration that correspond to the determined plurality of frequencies, and wherein the second set of modes of vibrations includes those modes of vibration that correspond to frequencies that are not the determined plurality of frequencies; modifying the received modal reverb effect by controlling a modification to an energy of the first set of modes of vibration separately from a modification to an energy of the second set of modes of vibration; and applying the modified modal reverb effect to the audio signal. receiving an audio signal; receiving a modal reverb effect to be applied to the audio signal, the modal reverb effect including a plurality of modes of vibration of a given acoustic space, each mode of vibration having a corresponding modal frequency; determining a plurality of frequencies for modifying the modal reverb effect, wherein the plurality of frequencies correspond to the frequencies of the notes of the chromatic scale within a specified range, or to a subset of frequencies of the notes of the chromatic scale; separating the plurality of modes of vibration of the modal reverb effect into first and second sets of modes of vibrations, wherein the first set of modes of vibrations includes those modes of vibration that correspond to the determined plurality of frequencies, and wherein the second set of modes of vibrations includes those modes of vibration that correspond to frequencies that are not the determined plurality of frequencies; modifying the received modal reverb effect by controlling a modification to an energy of the first set of modes of vibration separately from a modification to an energy of the second set of modes of vibration; and applying the modified modal reverb effect to the audio signal.
Mechanical gear mechanism with a drive unit (3, 4, 7) and a driven unit (11, 15), which are connected to one another by way of a shaft, and with a device for measuring the torque at the shaft, which respectively has an incremental transmitter (20, 21) that is connected to the shaft for rotation therewith and an impulse transducer for measuring the torsion angle that is fixedly arranged in the rotating region thereof, characterized in that each incremental transmitter (20, 21) is mounted in a bracket (23, 25) that is fixedly connected to the gear housing by means of a transmission sleeve (16, 17), which is clamped at its one end on the shaft for rotation therewith, otherwise surrounds the shaft with air and at its other end respectively receives an incremental transducer (20, 21), and is mounted in an axially fixed manner in the bracket (23, 25) that is fixedly connected to the gear housing.
Heat exchange system for a motor vehicle, having a plurality of heat exchangers (2, 4), which are each configured to exchange heat between an air flow, passing mainly longitudinally through the heat exchange system, and a refrigerant fluid circulating in the heat exchanger (2, 4), the plurality of heat exchangers comprising at least one condenser and one subcooling exchanger configured to subcool the refrigerant fluid that is present in the liquid state at the outlet of the condenser, characterized in that the condenser comprises a bottle for collecting the refrigerant fluid that is configured to at least separate the liquid phase from the gas phase of the refrigerant fluid and in that there is a direct connection system between an outlet of the collecting bottle and an inlet of the subcooling exchanger, said connection system being brazed to the collecting bottle and to an inlet flange of the subcooling exchanger so as to form a sealed connection, characterized in that the subcooling exchanger has, in a vertical direction, a dimension of value smaller than that of a corresponding dimension of the condenser, such that, vertically, the subcooling exchanger only partially covers the condenser and such that the inlet of the subcooling exchanger is disposed substantially at the same height as the outlet of the collecting bottle in said vertical direction, in that the direct connection system has a bent pipe that fluidically connects the outlet of the collecting bottle to the inlet flange of the subcooling exchanger, the pipe being arranged in a longitudinal and vertical main plane of elongation, and in that it has an attachment device that locks the relative position of the subcooling exchanger relative to the collecting bottle at least in the longitudinal direction.
A header for an agricultural harvester comprising: an drive gear train operatively connected to a first cutter bar; an driven gear train operatively connected to a second cutter bar; characterized in that the drive gear trains (224,226) are epicyclical drive gear trains and in that the header further comprises a shaft extending between and operatively connected to the epicyclical drive gear train and the epicyclical driven gear train. an drive gear train operatively connected to a first cutter bar; an driven gear train operatively connected to a second cutter bar; characterized in that the drive gear trains (224,226) are epicyclical drive gear trains and in that the header further comprises a shaft extending between and operatively connected to the epicyclical drive gear train and the epicyclical driven gear train.