mhurhangee/patent-ind-claim-en huggingface dataset:
Duplex ferritic austenitic stainless steel for the use chemical industry for nitric acid environments wherein good uniform corrosion resistance and high strength are required, characterized in that the microstructure of the stainless steel consists of 35-65 volume % of ferrite, the balance being austenite, and the chemical composition consists of less than 0,03 weight % carbon, less than 1 weight % silicon, 3 weight % or less manganese, 26-29,5 weight % chromium, 5-8,5 weight % nickel, 1-3 weight % molybdenum, 0,25-0,35 weight % nitrogen, 1-3 weight % copper, optionally one or more added elements: less than 0,04 weight % Al, preferably less than 0,03 weight % Al, less than 0,003 weight % B, less than 0,003 weight % Ca, less than 0,1 weight % Ce, up to 1 weight % Co, up to 1 weight % W, up to 0,1 weight % Nb, up to 0,1 weight % Ti, less than 0,2 weight % V, less than 0,010 weight % S, preferably less than 0,005 weight % S, less than 0,040 weight % P so that the sum of S+P is less than 0,04 weight %, and the total oxygen content is below 100 ppm, preferably below 50 ppm unless in a case of metal powder where total oxygen content is up to 250 ppm, the rest being iron and inevitable impurities occurring in stainless steels and that the sigma equivalent SGR calculated using the formula Cr+2xMo-40xN+0,5xMn-2xCu is less than 18, the Huey equivalent HRE calculated using the formula Cr+1,5xNi-1,4xMn+0,6xMo+0.1xN is in the range of 35 to 39,5 and that the pitting resistance equivalent value PRE calculated using the formula Cr+3,3xMo+30xN-Mn is in the range of more than 41.
A component for holding longilinear elements, such as cables or tubes, on a support surface, of the type comprising a housing of a longilinear element and means for obstructing the opening for insertion in the housing and removal therefrom, which are resiliently movable from their obstruction position to a clearance position of the opening and including an inclined ramp part for causing said clearance movement during the insertion of an element into the housing by application under pressure of the element on the ramp part, the housing being in the form of a trough including two side parts , which are substantially rigid, characterized in that one of these walls extends in the longitudinal direction of the trough level with at least one end by a flexible tab in the direction perpendicular to the plane of the wall, toward the outside, and in that this flexible tab is provided at its free upper edge with said ramp inclined toward the bottom of the trough and the height (h) of which perpendicular to the upper edge of the tab increases from the end of the fixed wall such that the opening of the housing is released during the bending of the tab under the effect of an application force exerted on the ramp for the insertion of the longilinear element into the housing.
Computer-implemented method for configuring a control device (CTL) for a technical system (TS) by way of a machine learning method, wherein a) a temporal sequence of training data (TD) is recorded for the machine learning method, wherein the training data (TD) comprise state data (SD) specifying states of the technical system (TS) and control action data (AD) specifying control actions of the technical system (TS), b) a temporal change (ΔAD) in the control action data (AD) is specifically recorded, c) the temporal change (ΔAD) in the control action data (AD) is correlated with temporal changes (ΔSD) in the state data (SD) within different time windows (TF), wherein a respective time window-specific correlation value (CC) is determined, d) a resulting time window (RTF) is determined depending on the determined correlation values (CC), e) the training data (FTD) located within the resulting time window (RTF) are extracted on a time window-specific basis, and f) the control device (CTL) is trained based on the extracted training data (FTD) by way of the machine learning method and is thus configured to control the technical system (TS). a) a temporal sequence of training data (TD) is recorded for the machine learning method, wherein the training data (TD) comprise state data (SD) specifying states of the technical system (TS) and control action data (AD) specifying control actions of the technical system (TS), b) a temporal change (ΔAD) in the control action data (AD) is specifically recorded, c) the temporal change (ΔAD) in the control action data (AD) is correlated with temporal changes (ΔSD) in the state data (SD) within different time windows (TF), wherein a respective time window-specific correlation value (CC) is determined, d) a resulting time window (RTF) is determined depending on the determined correlation values (CC), e) the training data (FTD) located within the resulting time window (RTF) are extracted on a time window-specific basis, and f) the control device (CTL) is trained based on the extracted training data (FTD) by way of the machine learning method and is thus configured to control the technical system (TS).
A punch for a rotary press, comprising a shaft having a punch tip on one end of the shaft and a punch head on the other end of the shaft , wherein the punch head comprises a reflective surface and a cylindrical surface as well as an intermediate region between the reflective surface and cylindrical surface , characterized in that the reflective surface comprises a central depression that has a closed base and that is surrounded by an annular reflective surface portion .
A method of communicating with a user equipment, UE, in a carrier aggregation system, the method performed by a base station and comprising: transmitting data in a subframe n-k of a secondary cell; and receiving ACK/NACK information for the data in a subframe n of a primary cell, wherein the primary cell uses a time division duplex, TDD, frame, wherein the secondary cell uses a frequency division duplex, FDD, frame, and wherein when an UL-DL configuration for the primary cell is UL-DL configuration 0, 2 or 5 among UL-DL configurations included in the following table 1, wherein D denotes a downlink subframe, S denotes a special subframe and U denotes an uplink subframe: [Table 1] UL-DL configuration Subframe number 0 1 2 3 4 5 6 7 8 9 0 D S U U U D S U U U 1 D S U U D D S U U D 2 D S U D D D S U D D 3 D S U U U D D D D D 4 D S U U D D D D D D 5 D S U D D D D D D D 6 D S U U U D S U U D wherein the subframe n and the k are configured based on the following table 2: [Table 2] UL-DL Configuration Subframe n 0 1 2 3 4 5 6 7 8 9 0 - - 6, 5 5,4 4 - - 6, 5 5, 4 4 2 - - 8, 7, 6, 5, 4 - - - - 8, 7, 6, 5, 4 - - 5 - - 13, 12, 11, 10, 9, 8, 7, 6, 5, 4 - - - - - - - wherein k is any one element of a set which is defined for the subframe n based on the table 2. transmitting data in a subframe n-k of a secondary cell; and receiving ACK/NACK information for the data in a subframe n of a primary cell, wherein the primary cell uses a time division duplex, TDD, frame, wherein the secondary cell uses a frequency division duplex, FDD, frame, and wherein when an UL-DL configuration for the primary cell is UL-DL configuration 0, 2 or 5 among UL-DL configurations included in the following table 1, wherein D denotes a downlink subframe, S denotes a special subframe and U denotes an uplink subframe: [Table 1] UL-DL configuration Subframe number 0 1 2 3 4 5 6 7 8 9 0 D S U U U D S U U U 1 D S U U D D S U U D 2 D S U D D D S U D D 3 D S U U U D D D D D 4 D S U U D D D D D D 5 D S U D D D D D D D 6 D S U U U D S U U D wherein the subframe n and the k are configured based on the following table 2: [Table 2] UL-DL Configuration Subframe n 0 1 2 3 4 5 6 7 8 9 0 - - 6, 5 5,4 4 - - 6, 5 5, 4 4 2 - - 8, 7, 6, 5, 4 - - - - 8, 7, 6, 5, 4 - - 5 - - 13, 12, 11, 10, 9, 8, 7, 6, 5, 4 - - - - - - - wherein k is any one element of a set which is defined for the subframe n based on the table 2.
A pooling device for pooling a fluid from a container unit having at least one container , the pooling device comprising: a cavity configured for accommodating insertion of the container unit for pooling the fluid from the at least one container ; and at least one spike disposed in the cavity and configured for puncturing a stopper of the at least one container when the container unit transitions from an upper position to a lower position; and a locking mechanism configured for securely holding the container unit in the cavity when the container unit is in the lower position; and wherein the at least one spike has a first spike channel being connected to at least one inlet channel configured for receiving the fluid or ambient air, characterised in that : the at least one spike has a second spike channel being connected to at least one outlet channel configured for delivering the fluid to an attachment. a cavity configured for accommodating insertion of the container unit for pooling the fluid from the at least one container ; and at least one spike disposed in the cavity and configured for puncturing a stopper of the at least one container when the container unit transitions from an upper position to a lower position; and a locking mechanism configured for securely holding the container unit in the cavity when the container unit is in the lower position; and wherein the at least one spike has a first spike channel being connected to at least one inlet channel configured for receiving the fluid or ambient air, characterised in that : the at least one spike has a second spike channel being connected to at least one outlet channel configured for delivering the fluid to an attachment.
An image forming apparatus comprising: a groove in which a rotation shaft of a photosensitive drum is inserted; an exposure device configured to emit a laser light on the photosensitive drum to form an electrostatic latent image; and an adjustment member configured to shift the rotation shaft vertically in the groove to adjust a skew of the laser light, characterized by wherein the groove has a vertical side edge , the adjustment member is rotatable and has an arc-shaped circumferential edge configured to come into contact with the rotation shaft inserted in the groove from an oblique lower direction and to press the rotation shaft on the side edge , wherein the arc-shaped circumferential edge is configured such that a radius is varied along a circumferential direction, and when the adjustment member is rotated, a contact position of the arc-shaped circumferential edge with the side edge is varied and then a position where the rotation shaft is pressed on the side edge is shifted vertically. a groove in which a rotation shaft of a photosensitive drum is inserted; an exposure device configured to emit a laser light on the photosensitive drum to form an electrostatic latent image; and an adjustment member configured to shift the rotation shaft vertically in the groove to adjust a skew of the laser light, wherein the groove has a vertical side edge , the adjustment member is rotatable and has an arc-shaped circumferential edge configured to come into contact with the rotation shaft inserted in the groove from an oblique lower direction and to press the rotation shaft on the side edge , wherein the arc-shaped circumferential edge is configured such that a radius is varied along a circumferential direction, and when the adjustment member is rotated, a contact position of the arc-shaped circumferential edge with the side edge is varied and then a position where the rotation shaft is pressed on the side edge is shifted vertically.
A method, comprising: a. performing untargeted sequencing on a first nucleic acid sample of a subject to generate a first data set, wherein said first data set comprises untargeted sequencing data comprising nucleic acid sequences, wherein said untargeted sequencing yields coverage of at least 5 gigabases of untargeted sequencing data; b. performing target-specific sequencing on a second nucleic acid sample of said subject to generate a second data set, wherein said second data set comprises target-specific sequencing data comprising a nucleic acid sequences derived from a subset of a genome of said subject, wherein said target-specific sequencing data is at greater coverage than said untargeted sequencing data; c. combining, with the aid of a computer processor, said first data set and said second data set to produce a combined data set comprising said untargeted sequencing data and said target-specific sequencing data, wherein said combining comprises removing redundant sequences; and d. generating, with the aid of a computer processor, an output derived from said combined data set, wherein said output identifies a presence or absence of one or more polymorphisms of said first nucleic acid sample and/or said second nucleic acid sample. a. performing untargeted sequencing on a first nucleic acid sample of a subject to generate a first data set, wherein said first data set comprises untargeted sequencing data comprising nucleic acid sequences, wherein said untargeted sequencing yields coverage of at least 5 gigabases of untargeted sequencing data; b. performing target-specific sequencing on a second nucleic acid sample of said subject to generate a second data set, wherein said second data set comprises target-specific sequencing data comprising a nucleic acid sequences derived from a subset of a genome of said subject, wherein said target-specific sequencing data is at greater coverage than said untargeted sequencing data; c. combining, with the aid of a computer processor, said first data set and said second data set to produce a combined data set comprising said untargeted sequencing data and said target-specific sequencing data, wherein said combining comprises removing redundant sequences; and d. generating, with the aid of a computer processor, an output derived from said combined data set, wherein said output identifies a presence or absence of one or more polymorphisms of said first nucleic acid sample and/or said second nucleic acid sample.
A leather-like sheet comprising: a fiber structure including polyester fibers dyed with a dye containing a blue cationic dye having an azo bond; and an elastic polymer applied into internal voids of the fiber structure, wherein the leather-like sheet further comprises a polyhydric phenol derivative having a sulfonic acid group. a fiber structure including polyester fibers dyed with a dye containing a blue cationic dye having an azo bond; and an elastic polymer applied into internal voids of the fiber structure, wherein the leather-like sheet further comprises a polyhydric phenol derivative having a sulfonic acid group.
An integrated circuit, comprising: a first input for receiving from a first microphone (M1, M1A, M1B) a first microphone signal (m1) containing speech; a sidetone circuit for generating a sidetone signal (st) from the first microphone signal (m1), wherein the sidetone circuit has at least one adjustable coefficient for altering a relationship between the first microphone signal (m1) and the sidetone signal (st), wherein the adjustable coefficient of the sidetone circuit determines a frequency-dependent response (H ST ) applied to the first microphone signal (m1) to generate the sidetone signal (st); an output for providing an output signal containing downlink audio (ds) and the sidetone signal (st) to a transducer (SPKR) for reproduction at an ear of a listener; a second input for receiving from a second microphone (M2, M2A, M2B) a second microphone signal (m2) indicative of an output of the transducer (SPKR) as delivered to the ear of the listener; and a calibration circuit for estimating a response of the second microphone signal (m2) to the sidetone signal (st) and adjusting the adjustable coefficient of the sidetone circuit in conformity with the estimated response. a first input for receiving from a first microphone (M1, M1A, M1B) a first microphone signal (m1) containing speech; a sidetone circuit for generating a sidetone signal (st) from the first microphone signal (m1), wherein the sidetone circuit has at least one adjustable coefficient for altering a relationship between the first microphone signal (m1) and the sidetone signal (st), wherein the adjustable coefficient of the sidetone circuit determines a frequency-dependent response (H ST ) applied to the first microphone signal (m1) to generate the sidetone signal (st); an output for providing an output signal containing downlink audio (ds) and the sidetone signal (st) to a transducer (SPKR) for reproduction at an ear of a listener; a second input for receiving from a second microphone (M2, M2A, M2B) a second microphone signal (m2) indicative of an output of the transducer (SPKR) as delivered to the ear of the listener; and a calibration circuit for estimating a response of the second microphone signal (m2) to the sidetone signal (st) and adjusting the adjustable coefficient of the sidetone circuit in conformity with the estimated response.
A vulcanisable composition for forming a nitrosamine free sulphur modified polychloroprene vulcanisate, the vulcanisable composition comprising: - a sulphur-modified polychloroprene copolymer polymerised at least from chloroprene, elemental sulphur and a xanthogen disulphide; and - a non-nucleophilic base wherein the non-nucleophilic base is a bi-or polycyclic amine base, which comprises two, or more than two, joined rings. - a sulphur-modified polychloroprene copolymer polymerised at least from chloroprene, elemental sulphur and a xanthogen disulphide; and - a non-nucleophilic base wherein the non-nucleophilic base is a bi-or polycyclic amine base, which comprises two, or more than two, joined rings.
A reciprocating compressor comprising: a piston rod coupled to a piston that is accommodated within a cylinder and a crank mechanism ; and an annular rod packing having an inner peripheral edge in sliding contact with the outer peripheral surface of the piston rod to prevent gas within the cylinder from leaking through a gap around the outer peripheral surface of the piston rod, wherein the piston rod includes a first rod portion with which the rod packing is in sliding contact and a second rod portion provided in a manner extending from the leading end of the first rod portion and inserted through an insertion hole that is formed in the piston, the piston is separable from the second rod portion, and the diameter of the second rod portion is equal to or smaller than the diameter of the first rod portion, the reciprocating compressor further comprising a cylinder head penetrated through by the piston rod while closing an opening portion formed at the lower end of the cylinder and formed with an accommodation chamber in which the rod packing is accommodated; and a flange arranged on the cylinder head in a manner penetrated through by the piston rod while closing the accommodation chamber, the reciprocating compressor being characterized in that the flange is separable upward from the cylinder head with being coupled to the rod packing within the accommodation chamber and penetrated through by the piston rod. a piston rod coupled to a piston that is accommodated within a cylinder and a crank mechanism ; and an annular rod packing having an inner peripheral edge in sliding contact with the outer peripheral surface of the piston rod to prevent gas within the cylinder from leaking through a gap around the outer peripheral surface of the piston rod, wherein the piston rod includes a first rod portion with which the rod packing is in sliding contact and a second rod portion provided in a manner extending from the leading end of the first rod portion and inserted through an insertion hole that is formed in the piston, the piston is separable from the second rod portion, and the diameter of the second rod portion is equal to or smaller than the diameter of the first rod portion, the reciprocating compressor further comprising a cylinder head penetrated through by the piston rod while closing an opening portion formed at the lower end of the cylinder and formed with an accommodation chamber in which the rod packing is accommodated; and a flange arranged on the cylinder head in a manner penetrated through by the piston rod while closing the accommodation chamber, the reciprocating compressor being characterized in that the flange is separable upward from the cylinder head with being coupled to the rod packing within the accommodation chamber and penetrated through by the piston rod.
An excavator comprising: a lower traveling structure ; an upper swing structure swingably mounted on the lower traveling structure ; and an attachment attached to the upper swing structure ; characterized in that the excavator comprises a display device configured to display a plurality of ranges including a first range and a second range lower in stability degree than the first range in a working range of the attachment such that the plurality of ranges are distinguishable; and a stability range setting part configured to determine a setting with respect to the plurality of ranges. a lower traveling structure ; an upper swing structure swingably mounted on the lower traveling structure ; and an attachment attached to the upper swing structure ; the excavator comprises a display device configured to display a plurality of ranges including a first range and a second range lower in stability degree than the first range in a working range of the attachment such that the plurality of ranges are distinguishable; and a stability range setting part configured to determine a setting with respect to the plurality of ranges.
A heat pump system for conditioning air in a space , the system comprising: a supply air channel to receive air and discharge supply air into the space ; a regeneration air channel to receive regeneration air from the space and discharge exhaust air, the regeneration air channel and the supply air channel separated by a partition ; an energy recovery module having a supply air side positioned in the supply air channel and a regeneration air side positioned in the regeneration air channel , the regeneration air side of the energy recovery module removing heat and moisture from the regeneration air in the regeneration air channel in a winter mode; a regeneration air heat exchanger positioned in the regeneration air channel downstream from the regeneration air side of the energy recovery module , the regeneration air heat exchanger removing heat from the regeneration air in the winter mode, the regeneration air heat exchanger discharging the exhaust air; and a pre-processing module positioned in the regeneration air channel between the regeneration air side of the energy recovery module and the regeneration air heat exchanger , the pre-processing module heating the regeneration air from the energy recovery module in the winter mode to prevent frost from forming on the regeneration air heat exchanger . a supply air channel to receive air and discharge supply air into the space ; a regeneration air channel to receive regeneration air from the space and discharge exhaust air, the regeneration air channel and the supply air channel separated by a partition ; an energy recovery module having a supply air side positioned in the supply air channel and a regeneration air side positioned in the regeneration air channel , the regeneration air side of the energy recovery module removing heat and moisture from the regeneration air in the regeneration air channel in a winter mode; a regeneration air heat exchanger positioned in the regeneration air channel downstream from the regeneration air side of the energy recovery module , the regeneration air heat exchanger removing heat from the regeneration air in the winter mode, the regeneration air heat exchanger discharging the exhaust air; and a pre-processing module positioned in the regeneration air channel between the regeneration air side of the energy recovery module and the regeneration air heat exchanger , the pre-processing module heating the regeneration air from the energy recovery module in the winter mode to prevent frost from forming on the regeneration air heat exchanger .