mhurhangee/ep-ind-claims huggingface dataset:
Compounds of the formula in which Q represents oxygen or sulphur, V represents a radical from the series hydrogen, halogen, alkyl, haloalkyl, alkoxy, haloalkoxy and cyano, W represents a radical from the series hydrogen, halogen, alkyl, haloalkyl, alkoxy, haloalkoxy and cyano, X represents a radical from the series optionally substituted alkyl, alkenyl, alkynyl, optionally substituted cycloalkyl which is saturated or unsaturated and optionally interrupted by heteroatoms, optionally substituted cycloalkylalkyl which is saturated or unsaturated and optionally interrupted by heteroatoms, optionally substituted aryl, hetaryl, optionally substituted arylalkyl, hetarylalkyl and cyano, Y represents a radical from the series hydrogen, optionally substituted alkyl, alkenyl, alkynyl, optionally substituted cycloalkyl which is optionally interrupted by heteroatoms, optionally substituted cycloalkylalkyl which is optionally interrupted by heteroatoms, arylalkyl, hetarylalkyl and cyano, n represents a number 0, 1 or 2, A represents a radical from the series hydrogen, optionally substituted alkyl, alkenyl, alkynyl and optionally substituted cycloalkyl and cycloalkylalkyl which are optionally interrupted by heteroatoms, T represents oxygen or an electron pair, and salts thereof. Q represents oxygen or sulphur, V represents a radical from the series hydrogen, halogen, alkyl, haloalkyl, alkoxy, haloalkoxy and cyano, W represents a radical from the series hydrogen, halogen, alkyl, haloalkyl, alkoxy, haloalkoxy and cyano, X represents a radical from the series optionally substituted alkyl, alkenyl, alkynyl, optionally substituted cycloalkyl which is saturated or unsaturated and optionally interrupted by heteroatoms, optionally substituted cycloalkylalkyl which is saturated or unsaturated and optionally interrupted by heteroatoms, optionally substituted aryl, hetaryl, optionally substituted arylalkyl, hetarylalkyl and cyano, Y represents a radical from the series hydrogen, optionally substituted alkyl, alkenyl, alkynyl, optionally substituted cycloalkyl which is optionally interrupted by heteroatoms, optionally substituted cycloalkylalkyl which is optionally interrupted by heteroatoms, arylalkyl, hetarylalkyl and cyano, n represents a number 0, 1 or 2, A represents a radical from the series hydrogen, optionally substituted alkyl, alkenyl, alkynyl and optionally substituted cycloalkyl and cycloalkylalkyl which are optionally interrupted by heteroatoms, T represents oxygen or an electron pair,
A refrigeration system comprising: an evaporator; a two-stage compressor for compressing a refrigerant, the two-stage compressor having a suction port, an interstage port, and a discharge port; a heat rejecting heat exchanger for cooling the refrigerant; and a first economizer circuit configured to inject refrigerant into the interstage port of the two-stage compressor; characterised in that the system further comprises: a first single-stage compressor for compressing the refrigerant, the first single-stage compressor having a suction port and a discharge port, wherein the first single-stage compressor is configured to discharge into the interstage port of the two-stage compressor; and a second economizer circuit configured to inject refrigerant into the suction port of the first single-stage compressor. an evaporator; a two-stage compressor for compressing a refrigerant, the two-stage compressor having a suction port, an interstage port, and a discharge port; a heat rejecting heat exchanger for cooling the refrigerant; and a first economizer circuit configured to inject refrigerant into the interstage port of the two-stage compressor; characterised in that the system further comprises: a first single-stage compressor for compressing the refrigerant, the first single-stage compressor having a suction port and a discharge port, wherein the first single-stage compressor is configured to discharge into the interstage port of the two-stage compressor; and a second economizer circuit configured to inject refrigerant into the suction port of the first single-stage compressor.
A display device comprising: a display unit including a display panel and a glass, which is coupled to a rear of the display panel; a link bar including a body portion, which is attached to a lower portion of a rear surface of the glass, and an extension portion, which protrudes from the body portion; a housing, which receives a lower portion of the display unit and the link bar, the extension portion being coupled to the housing; a tension bracket positioned inside the housing and disposed between the display unit and a bottom surface of the housing, the display unit being placed on the tension bracket. a display unit including a display panel and a glass, which is coupled to a rear of the display panel; a link bar including a body portion, which is attached to a lower portion of a rear surface of the glass, and an extension portion, which protrudes from the body portion; a housing, which receives a lower portion of the display unit and the link bar, the extension portion being coupled to the housing; a tension bracket positioned inside the housing and disposed between the display unit and a bottom surface of the housing, the display unit being placed on the tension bracket.
A turbine engine comprising at least first and second successive annular rows of stationary vanes, such as for example an annular row of stationary vanes (112, 112') of a nozzle stage and an annular row of casing arms arranged downstream from the nozzle, each vane of the second row extending in a radial plane lying between the trailing edges of two consecutive vanes of the first row, the turbine engine being characterized in that a first angular distance (pitch P1) between these two vanes of the first row located on either side of the radial plane lying on a vane of the second row is greater than a second angular distance (pitch P2) between two consecutive vanes of the other vanes of the first row.
Process for producing a particulate composition comprising methionine, methionylmethionine, potassium salt and ammonium sulfate by spray granulation, characterized in that (a) a first aqueous solution or suspension (i), comprising 30 to 40% by weight ammonium sulfate, a second aqueous solution or suspension (ii), comprising 2 to 6% by weight methionine, 4 to 8% by weight methionylmethionine and 6 to 14% by weight potassium in the form of potassium salt and a gas are sprayed via a three-fluid nozzle into a fluidized bed, with simultaneous evaporation of water in the fluidized bed, and with generation of crude particles, and optionally (b) the crude particles obtained in step (a) are dried. (a) a first aqueous solution or suspension (i), comprising 30 to 40% by weight ammonium sulfate, a second aqueous solution or suspension (ii), comprising 2 to 6% by weight methionine, 4 to 8% by weight methionylmethionine and 6 to 14% by weight potassium in the form of potassium salt and a gas are sprayed via a three-fluid nozzle into a fluidized bed, with simultaneous evaporation of water in the fluidized bed, and with generation of crude particles, and optionally a second aqueous solution or suspension (ii), comprising 2 to 6% by weight methionine, 4 to 8% by weight methionylmethionine and 6 to 14% by weight potassium in the form of potassium salt and a gas are sprayed via a three-fluid nozzle into a fluidized bed, with simultaneous evaporation of water in the fluidized bed, and with generation of crude particles, and optionally (b) the crude particles obtained in step (a) are dried.
An apparatus for obtaining a frequency difference and amplitude spectrum graph, applied to a distributed antenna system, DAS, wherein the DAS comprises one main circuit and multiple branch circuits, the main circuit comprises M coupling nodes, each branch circuit comprises N antenna nodes and K coupling nodes, and M, N, and K are all positive integers; and the apparatus for obtaining a frequency difference and amplitude spectrum graph comprises a signal generation module, a signal transmission module connected to the signal generation module, a signal processing module connected to the signal transmission module, and a signal analysis module connected to the signal processing module, wherein the signal generation module is configured to generate a detection signal and send the detection signal to the signal transmission module; the signal transmission module is configured to receive the detection signal sent by the signal generation module, and send the detection signal to the signal processing module; and for each of at least one branch circuit of the multiple branch circuits, send the detection signal to the branch circuit through a signal input end of the DAS, receive an echo signal returned by the branch circuit, and send the echo signal to the signal processing module, wherein the echo signal is a signal obtained after the detection signal is reflected by the M coupling nodes on the main circuit and the N antenna nodes and the K coupling nodes on the branch circuit through which the detection signal passes in sequence; the signal processing module is configured to receive the detection signal and the echo signal sent by the signal transmission module, superpose the detection signal and the echo signal, and send a superposed signal to the signal analysis module; and the signal analysis module is configured to receive the superposed signal sent by the signal processing module, and perform spectrum conversion on the superposed signal to obtain a frequency difference and amplitude spectrum graph, wherein the frequency difference and amplitude spectrum graph is used to indicate a correspondence between a location of each node of the M coupling nodes on the main circuit and the N antenna nodes and the K coupling nodes on the branch circuit and an amplitude of the echo signal corresponding to the node.
Microphone device, comprising: a main microphone, a first and second control microphone (CMI, CMr), and a digital signal processing unit, coupled to the main microphone and the first and second control microphone (CMI, CMr) for receiving an output of the main microphone and an output of the first and second control microphone (CMI, CMr), wherein the digital signal processing unit is adapted to perform a noise-suppression of pop noise, wherein the digital signal processing unit comprises a summation unit for summing the signals of the first and second control microphone (CMI, CMr), a subtracting unit for subtracting the signals from the first and second control microphone (CMI, CMr), and calculating unit for comparing a power ratio of the power of the sum of the output of the first and second control microphone and the power of the difference of the output of the first and second control microphone to a maximum threshold value, wherein a disturbance occurs if the power ratio exceeds the maximum threshold value, wherein the digital signal processing unit furthermore comprises a suppression filter having a cut-off frequency (f c) which performs a suppression of the pop noises if the power ratio exceeds the maximum threshold value as determined by the calculating unit, wherein the calculating unit forwards an adapted cut-off frequency (f c) to the suppression filter if it has determined that the power ratio exceeds the maximum threshold value. a main microphone, a first and second control microphone (CMI, CMr), and a digital signal processing unit, coupled to the main microphone and the first and second control microphone (CMI, CMr) for receiving an output of the main microphone and an output of the first and second control microphone (CMI, CMr), wherein the digital signal processing unit is adapted to perform a noise-suppression of pop noise, wherein the digital signal processing unit comprises a summation unit for summing the signals of the first and second control microphone (CMI, CMr), a subtracting unit for subtracting the signals from the first and second control microphone (CMI, CMr), and calculating unit for comparing a power ratio of the power of the sum of the output of the first and second control microphone and the power of the difference of the output of the first and second control microphone to a maximum threshold value, wherein a disturbance occurs if the power ratio exceeds the maximum threshold value, wherein the digital signal processing unit furthermore comprises a suppression filter having a cut-off frequency (f c) which performs a suppression of the pop noises if the power ratio exceeds the maximum threshold value as determined by the calculating unit, wherein the calculating unit forwards an adapted cut-off frequency (f c) to the suppression filter if it has determined that the power ratio exceeds the maximum threshold value.
A device for cleaning plastic, in particular scrap pieces of plastic, in the course of plastic recycling, comprising a refiner having two mutually facing refiner tools, at least one of which is rotationally driven, which refiner tools delimit, between them, a working gap, for rubbing off cellulose and other adhering materials from the plastic, wherein the refiner has an inlet which opens into the working gap; and further comprising a feeding apparatus connected to the inlet, for feeding the plastic which is to be cleaned into the inlet, and wherein the refiner also has an outlet which is also connected to the working gap, through which outlet the plastic cleaned in the working gap, along with the cellulose and other adhering materials which have been rubbed off, are delivered to an exit; wherein the outlet comprises an outlet conduit which is connected to the working gap and leads to the exit, which outlet conduit is connected to a water pump for pumping water through the outlet conduit; characterized in that, during operation, the water pumped by the water pump through the outlet conduit is in the form of a water stream which flows laterally past the working gap, tangentially to said working gap, and produces an underpressure which has a suction effect on the working gap, such that cleaned plastic is transported out of the working gap and into the outlet conduit, and the water pumped by the water pump through the outlet conduit transports the plastic located in the outlet conduit to the exit.
A mixture of bacterial strains for use in the treatment and/or improvement of a major depressive disorder or of a mood disorder comprising or, alternatively, consisting of: - a bacterial strain belonging to the species Lactobacillus fermentum, such as the bacterial strain Lactobacillus fermentum LF16 DSM 26956; and - a bacterial strain belonging to the species Lactobacillus plantarum, such as the bacterial strain Lactobacillus plantarum LP01 LMG P-21021; and/or a bacterial strain belonging to the species Lactobacillus plantarum, such as the bacterial strain Lactobacillus plantarum LP02 LMG P-21020; and - a bacterial strain belonging to the species Lactobacillus rhamnosus, such as the bacterial strain Lactobacillus rhamnosus LR06 DSM 21981; and - a bacterial strain belonging to the species Bifidobacterium longum, such as the bacterial strain Bifidobacterium longum BL04 DSM 23233. - a bacterial strain belonging to the species Lactobacillus fermentum, such as the bacterial strain Lactobacillus fermentum LF16 DSM 26956; and - a bacterial strain belonging to the species Lactobacillus plantarum, such as the bacterial strain Lactobacillus plantarum LP01 LMG P-21021; and/or a bacterial strain belonging to the species Lactobacillus plantarum, such as the bacterial strain Lactobacillus plantarum LP02 LMG P-21020; and - a bacterial strain belonging to the species Lactobacillus rhamnosus, such as the bacterial strain Lactobacillus rhamnosus LR06 DSM 21981; and - a bacterial strain belonging to the species Bifidobacterium longum, such as the bacterial strain Bifidobacterium longum BL04 DSM 23233.
A computer-implemented method, comprising: receiving a bookmark from a client device at a media content service, the bookmark corresponding to a media asset and including at least an identifier of the media asset (122, 146) and a time offset into the media asset (122, 146) to identify a position where a receiving client device begins playback of the media asset (122, 146); receiving a bookmark invitation from the client device, the bookmark invitation directed to one or more social network contacts of a user of the client device; communicating the bookmark to receiving client devices of the respective one or more social network contacts identified by the bookmark invitation; and determining a delay offset that is a time duration from when the bookmark is received from the client device to when the media asset (122, 146) that corresponds to the bookmark is initiated for playback at the receiving client device, which begins playback of the media asset (122, 146) from the position of the time offset included as part of the bookmark plus the delay offset to playback the media asset (122, 146) approximately synchronous with playback of the media asset (122, 146) at the client device from which the bookmark is received. receiving a bookmark from a client device at a media content service, the bookmark corresponding to a media asset and including at least an identifier of the media asset (122, 146) and a time offset into the media asset (122, 146) to identify a position where a receiving client device begins playback of the media asset (122, 146); receiving a bookmark invitation from the client device, the bookmark invitation directed to one or more social network contacts of a user of the client device; communicating the bookmark to receiving client devices of the respective one or more social network contacts identified by the bookmark invitation; and determining a delay offset that is a time duration from when the bookmark is received from the client device to when the media asset (122, 146) that corresponds to the bookmark is initiated for playback at the receiving client device, which begins playback of the media asset (122, 146) from the position of the time offset included as part of the bookmark plus the delay offset to playback the media asset (122, 146) approximately synchronous with playback of the media asset (122, 146) at the client device from which the bookmark is received.
A method for production of stress protein complexes formed between a stress protein and an antigenic peptide, said method comprising steps of: (i) culturing cells, (ii) exposing said cells to at least two stress inducing stimuli of different types wherein a first stress inducing stimulus is heat stress and a second stress inducing stimulus is respiratory stress or acid based stress, and (iii) purifying the stress protein complexes from the cells. (i) culturing cells, (ii) exposing said cells to at least two stress inducing stimuli of different types wherein a first stress inducing stimulus is heat stress and a second stress inducing stimulus is respiratory stress or acid based stress, and (iii) purifying the stress protein complexes from the cells.
An implantable medical device for identifying a P-wave in a cardiac signal, comprising: a plurality of electrodes (17, 21, 24, 26) configured to sense the cardiac signal; and a processor configured to identify one or more R-waves within the cardiac signal, determine one or more P-wave sensing windows associated with the one or more R-waves, and determine a characteristic P-wave sensing window based on the one or more determined P-wave sensing windows; and characterized in that the processor is configured to determine a first derivative of the cardiac signal within the characteristic P-wave sensing window, determine a second derivative of the cardiac signal within the characteristic P-wave sensing window, analyze the first derivative and the second derivative of the cardiac signal within the characteristic P-wave window to determine a first set of signal characteristics of the cardiac signal within a first portion of the characteristic P-wave sensing window and a second set of signal characteristics of the cardiac signal within a second portion of the characteristic P-wave sensing window, and detect the P-wave based on the first and the second set of signal characteristics. a plurality of electrodes (17, 21, 24, 26) configured to sense the cardiac signal; and a processor configured to identify one or more R-waves within the cardiac signal, determine one or more P-wave sensing windows associated with the one or more R-waves, and determine a characteristic P-wave sensing window based on the one or more determined P-wave sensing windows; and characterized in that the processor is configured to determine a first derivative of the cardiac signal within the characteristic P-wave sensing window, determine a second derivative of the cardiac signal within the characteristic P-wave sensing window, analyze the first derivative and the second derivative of the cardiac signal within the characteristic P-wave window to determine a first set of signal characteristics of the cardiac signal within a first portion of the characteristic P-wave sensing window and a second set of signal characteristics of the cardiac signal within a second portion of the characteristic P-wave sensing window, and detect the P-wave based on the first and the second set of signal characteristics.
Surgical referencing apparatus, which can be tracked by a surgical navigation system, comprising a marking device having at least two or more surgical marker elements which are configured for reflecting radiation, wherein the marker elements form a marker element arrangement, which defines a reference on the body of a patient, and comprising a fixing device for fixing the marking device in place on the body of the patient, characterized in that the marker element arrangement is of non-rigid configuration, and two or more marker elements are variable in position relative to one another, wherein the fixing device comprises or forms a carrier body that is associated with a plurality of the marker elements and is variable in shape and adjustable to the anatomy of the patient, on which carrier body the marker elements are removably fixable in place.