mhurhangee/ep-ind-claims huggingface dataset:
A method of analyzing an analyte, comprising: covalently bonding a mass tag to an analyte to form a labeled analyte; subjecting the labeled analyte to a first step of mass spectrometry fragmentation under first conditions that do not dissociate the labeled analyte; subjecting the labeled analyte to a second step of mass spectrometry fragmentation under second conditions that differ from the first conditions, the second step of mass spectrometry fragmentation forming a mass spectrum and the second conditions comprising conditions that dissociate the labeled analyte into a charged, signature ion-carrying analyte and a separated neutral loss group; quantitating the analyte based on the mass spectrum; subjecting the charged, signature ion-carrying analyte to a third step of mass spectrometry fragmentation under third conditions that differ from the first conditions and differ from the second conditions, the third step of mass spectrometry fragmentation forming a second mass spectrum and the third conditions comprising conditions that dissociate the charged, signature ion-carrying analyte into a plurality of charged fragments; and identifying the analyte based on the second mass spectrum; characterized in that the mass tag comprises a complex selected from the group consisting of: and tri-methyl ammonium ethylene hydroxyl amine HCl. covalently bonding a mass tag to an analyte to form a labeled analyte; subjecting the labeled analyte to a first step of mass spectrometry fragmentation under first conditions that do not dissociate the labeled analyte; subjecting the labeled analyte to a second step of mass spectrometry fragmentation under second conditions that differ from the first conditions, the second step of mass spectrometry fragmentation forming a mass spectrum and the second conditions comprising conditions that dissociate the labeled analyte into a charged, signature ion-carrying analyte and a separated neutral loss group; quantitating the analyte based on the mass spectrum; subjecting the charged, signature ion-carrying analyte to a third step of mass spectrometry fragmentation under third conditions that differ from the first conditions and differ from the second conditions, the third step of mass spectrometry fragmentation forming a second mass spectrum and the third conditions comprising conditions that dissociate the charged, signature ion-carrying analyte into a plurality of charged fragments; and identifying the analyte based on the second mass spectrum; characterized in that the mass tag comprises a complex selected from the group consisting of: and tri-methyl ammonium ethylene hydroxyl amine HCl.
A nacelle for a wind turbine, the nacelle comprising: - a nacelle housing; - a rotor hub; - a rotor bearing for bearing the rotor hub on the nacelle housing, wherein the rotor bearing has at least one inner ring element and at least one outer ring element, wherein at least one oil-lubricated sliding bearing element is formed between the inner ring element and the outer ring element, wherein a lubricating oil sump is formed, which serves to receive that lubricating oil which serves to lubricate the oil-lubricated sliding bearing element, wherein the lubricating oil sump is formed in the nacelle, characterized in that a sealing element is formed between the nacelle housing and the rotor hub and/or between the nacelle housing and a rotor shaft, which sealing element is configured to seal the lubricating oil sump from the environment, wherein in the operating state, the lubricating oil sump is filled with lubricating oil up to a lubricating oil level, wherein the sliding surfaces are below the lubricating oil level at least in some sections, and thus are immersed in the lubricating oil present in the lubricating oil sump. - a nacelle housing; - a rotor hub; - a rotor bearing for bearing the rotor hub on the nacelle housing, wherein the rotor bearing has at least one inner ring element and at least one outer ring element, wherein at least one oil-lubricated sliding bearing element is formed between the inner ring element and the outer ring element, wherein a lubricating oil sump is formed, which serves to receive that lubricating oil which serves to lubricate the oil-lubricated sliding bearing element, wherein the lubricating oil sump is formed in the nacelle,
A Compound according to Formula I comprising at least one isotope selected from the group consisting of 11 C, 15 O, and 18 F, wherein R1-R7 are selected as follows: a) when R1 is a radiolabelled group comprising at least on isotope selected from the group consisting of 11 C, 15 O, and 18 F, then R2-R7 are individually selected from H, F, methyl or methoxy; b) when one or more of R2-R7 is a radiolabelled group comprising an isotope selected from the group consisting of 11 C, 15 O, and 18 F, then R1 is selected from the group consisting of H; C1-C6 alkyl, such as methyl, ethyl, 1-propyl, 2-propyl, isobutyl; C1-C6 alkyl(C3-C8)cycloalkyl, such as cyclopropylmethyl; C1-C6 hydroxyalkyl, such as hydroxyethyl; flouropropyl; flouromethyl; and flourobutyl. or a salt or a hydrate form of the compound. a) when R1 is a radiolabelled group comprising at least on isotope selected from the group consisting of 11 C, 15 O, and 18 F, then R2-R7 are individually selected from H, F, methyl or methoxy; b) when one or more of R2-R7 is a radiolabelled group comprising an isotope selected from the group consisting of 11 C, 15 O, and 18 F, then R1 is selected from the group consisting of H; C1-C6 alkyl, such as methyl, ethyl, 1-propyl, 2-propyl, isobutyl; C1-C6 alkyl(C3-C8)cycloalkyl, such as cyclopropylmethyl; C1-C6 hydroxyalkyl, such as hydroxyethyl; flouropropyl; flouromethyl; and flourobutyl.
An absorbent substrate for transplanting a skin graft, comprising: a base layer, at least a portion of which is porous, having at least one adhesive site for contacting at least one excised skin graft and capturing said graft for removal from a donor site; a sealing member peripherally joined to the base layer and defining an enclosure therebetween; and an absorbent material disposed within the enclosure; wherein the substrate further comprises a first wicking layer disposed in the enclosure between the base layer and the absorbent material for distributing fluid to the absorbent material and a second wicking layer disposed in the enclosure between the absorbent material and the sealing member, and wherein a peripheral portion of the first wicking layer is coupled to a peripheral portion of the second wicking layer providing a wicking layer enclosure surrounding the absorbent material between the first and the second wicking layers (26, 28). a base layer, at least a portion of which is porous, having at least one adhesive site for contacting at least one excised skin graft and capturing said graft for removal from a donor site; a sealing member peripherally joined to the base layer and defining an enclosure therebetween; and an absorbent material disposed within the enclosure; wherein the substrate further comprises a first wicking layer disposed in the enclosure between the base layer and the absorbent material for distributing fluid to the absorbent material and a second wicking layer disposed in the enclosure between the absorbent material and the sealing member, and wherein a peripheral portion of the first wicking layer is coupled to a peripheral portion of the second wicking layer providing a wicking layer enclosure surrounding the absorbent material between the first and the second wicking layers (26, 28).
A communication method, comprising: selecting (S101, S202, S301), by a network side device, a group of values for a transmission parameter set according to sidelink congestion information, wherein the transmission parameter set comprises a modulation and coding scheme, MCS, level; and sending (S102, S203), by the network side device to a first terminal, the selected group of values, the selected group of values is for the first terminal sending communication data to a second terminal. selecting (S101, S202, S301), by a network side device, a group of values for a transmission parameter set according to sidelink congestion information, wherein the transmission parameter set comprises a modulation and coding scheme, MCS, level; and sending (S102, S203), by the network side device to a first terminal, the selected group of values, the selected group of values is for the first terminal sending communication data to a second terminal.
Angle of rotation measuring system for detecting a rotational movement of a shaft, with a rotor unit which is connected to the shaft in a rotationally fixed manner, radially surrounds the shaft and comprises at least one sensor magnet, a stationary stator unit with a stator board, and a multiturn sensor unit, which is arranged radially spaced from the shaft on the stator plate and interacts functionally with the sensor magnet to detect shaft rotations, with a Wiegand sensor, at least one Hall sensor and an evaluation unit which is electrically connected to the Wiegand sensor and to the Hall sensor, characterized in that the multiturn sensor unit comprises a separate sensor unit circuit board which is fastened to the stator circuit board and on which the Wiegand sensor, the at least one Hall sensor and the evaluation unit are arranged, wherein the Wiegand sensor unit is arranged on a first axial side of the sensor unit circuit board and the Hall sensor is arranged on a second axial side of the sensor unit circuit board which is opposite the first axial side in axial direction. a rotor unit which is connected to the shaft in a rotationally fixed manner, radially surrounds the shaft and comprises at least one sensor magnet, a stationary stator unit with a stator board, and a multiturn sensor unit, which is arranged radially spaced from the shaft on the stator plate and interacts functionally with the sensor magnet to detect shaft rotations, with a Wiegand sensor, at least one Hall sensor and an evaluation unit which is electrically connected to the Wiegand sensor and to the Hall sensor, a Wiegand sensor, at least one Hall sensor and an evaluation unit which is electrically connected to the Wiegand sensor and to the Hall sensor, characterized in that the multiturn sensor unit comprises a separate sensor unit circuit board which is fastened to the stator circuit board and on which the Wiegand sensor, the at least one Hall sensor and the evaluation unit are arranged, wherein the Wiegand sensor unit is arranged on a first axial side of the sensor unit circuit board and the Hall sensor is arranged on a second axial side of the sensor unit circuit board which is opposite the first axial side in axial direction.
An individualized cancer vaccine comprising an RNA encoding a recombinant polypeptide comprising neo-epitopes for use in a method of inducing an immune response against cancer cells of a patient, wherein the cancer cells of the patient express an antigen comprising said neo-epitope and wherein the neo-epitopes are not found in non-cancerous cells of the patient, wherein administration of the vaccine to the patient results in polyepitopic stimulation of cytotoxic and/or helper T cell responses. wherein the cancer cells of the patient express an antigen comprising said neo-epitope and wherein the neo-epitopes are not found in non-cancerous cells of the patient, wherein administration of the vaccine to the patient results in polyepitopic stimulation of cytotoxic and/or helper T cell responses.
A method for controlling quality of service,QoS, of sidelink communication, performed by a core network entity, the method comprising: obtaining QoS information configured by an application function, AF, entity for a sidelink; establishing a protocol data unit session for the sidelink when determining, according to the QoS information, that the AF entity sets a per-flow QoS model for the sidelink, and generating a sidelink per-flow QoS parameter according to the QoS information; and configuring the sidelink per-flow QoS parameter on an access network entity and a terminal device, to control QoS of sidelink communication performed by the terminal device; wherein the method further comprises: controlling, by using the access network entity, the terminal device to perform access stratum, AS, monitoring on a sidelink, which comprises: controlling a first terminal device to transmit a reference signal, RS, through a sidelink established between the first terminal device and a second terminal device; receiving detection information fed back by the second terminal device for the RS; and determining a communication state of the sidelink between the first terminal device and the second terminal device according to the detection information. obtaining QoS information configured by an application function, AF, entity for a sidelink; establishing a protocol data unit session for the sidelink when determining, according to the QoS information, that the AF entity sets a per-flow QoS model for the sidelink, and generating a sidelink per-flow QoS parameter according to the QoS information; and configuring the sidelink per-flow QoS parameter on an access network entity and a terminal device, to control QoS of sidelink communication performed by the terminal device; wherein the method further comprises: controlling, by using the access network entity, the terminal device to perform access stratum, AS, monitoring on a sidelink, which comprises: controlling a first terminal device to transmit a reference signal, RS, through a sidelink established between the first terminal device and a second terminal device; receiving detection information fed back by the second terminal device for the RS; and determining a communication state of the sidelink between the first terminal device and the second terminal device according to the detection information. controlling a first terminal device to transmit a reference signal, RS, through a sidelink established between the first terminal device and a second terminal device; receiving detection information fed back by the second terminal device for the RS; and determining a communication state of the sidelink between the first terminal device and the second terminal device according to the detection information.
A method for controlling a vehicle, comprising: inspecting a work area prior to operation of the vehicle in the work area to identify at a non-traversable area that the vehicle cannot traverse safely or expediently; establishing, via a user interface, a boundary around the non-traversable area within the work area based on the inspection; determining a position of the vehicle via a location-determining receiver; and generating a warning alarm to an operator if the determined position of the vehicle traverses the boundary around the non-traversable area, characterized by using a set of four automated sequences for controlling the vehicle, that are executed separately based on the type of boundary being crossed, wherein the sequences are for entering headlands, exiting headlands; entering passable Interior boundaries; and exiting passable interior boundaries, wherein the sequence for entering passable interior boundaries comprises the steps of slowing the vehicle down and only partially raising an implement. inspecting a work area prior to operation of the vehicle in the work area to identify at a non-traversable area that the vehicle cannot traverse safely or expediently; establishing, via a user interface, a boundary around the non-traversable area within the work area based on the inspection; determining a position of the vehicle via a location-determining receiver; and generating a warning alarm to an operator if the determined position of the vehicle traverses the boundary around the non-traversable area, characterized by using a set of four automated sequences for controlling the vehicle, that are executed separately based on the type of boundary being crossed, wherein the sequences are for entering headlands, exiting headlands; entering passable Interior boundaries; and exiting passable interior boundaries, wherein the sequence for entering passable interior boundaries comprises the steps of slowing the vehicle down and only partially raising an implement.
An isolated nucleic acid molecule selected from: (i) a molecule which comprises a nucleotide sequence encoding, or complementary to a sequence encoding, an amino acid sequence as set forth in SEQ ID NO:2 or 4 or an amino acid sequence having at least 60%, 65%, 70%, 75%, 80%, 85%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, 99% or more sequence identity to SEQ ID NO:2 or 4 over the length of the sequence; (ii) a molecule which comprises a nucleotide sequence, or a sequence complementary to said sequence, wherein said nucleotide sequence is as set forth in SEQ ID NO: 1 or 3 or is a nucleotide sequence having at least about 60%, 65%, 70%, 75%, 80%, 85%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, 99% or more identity to SEQ ID NO: 1 or 3 over the length of the sequence, or for use in therapy in aves or for use in the maintenance, stimulation or enhancement of an immune response in aves. (i) a molecule which comprises a nucleotide sequence encoding, or complementary to a sequence encoding, an amino acid sequence as set forth in SEQ ID NO:2 or 4 or an amino acid sequence having at least 60%, 65%, 70%, 75%, 80%, 85%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, 99% or more sequence identity to SEQ ID NO:2 or 4 over the length of the sequence; (ii) a molecule which comprises a nucleotide sequence, or a sequence complementary to said sequence, wherein said nucleotide sequence is as set forth in SEQ ID NO: 1 or 3 or is a nucleotide sequence having at least about 60%, 65%, 70%, 75%, 80%, 85%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, 99% or more identity to SEQ ID NO: 1 or 3 over the length of the sequence, or
Method comprising the method steps of: a) reacting a naphthol, which has a hydrogen in the position ortho to the OH group, with a chiral primary amine in the presence of water and with addition of sodium hydrogen sulphite such that a secondary naphthylamine derivative is formed, b) electrochemical coupling of the secondary naphthylamine derivative from a), using a solvent and a conductive salt, with a phenol which has a hydrogen in the position ortho to the OH group, such that - either the phenyl ring of the phenol in the position ortho to the OH group is directly coupled to the naphthyl ring system in the position ortho to the amino group, or - the oxygen of the phenol is coupled to the naphthyl ring system in the position ortho to the amino group. a) reacting a naphthol, which has a hydrogen in the position ortho to the OH group, with a chiral primary amine in the presence of water and with addition of sodium hydrogen sulphite such that a secondary naphthylamine derivative is formed, b) electrochemical coupling of the secondary naphthylamine derivative from a), using a solvent and a conductive salt, with a phenol which has a hydrogen in the position ortho to the OH group, such that - either the phenyl ring of the phenol in the position ortho to the OH group is directly coupled to the naphthyl ring system in the position ortho to the amino group, or - the oxygen of the phenol is coupled to the naphthyl ring system in the position ortho to the amino group. - either the phenyl ring of the phenol in the position ortho to the OH group is directly coupled to the naphthyl ring system in the position ortho to the amino group, or - the oxygen of the phenol is coupled to the naphthyl ring system in the position ortho to the amino group.
A printhead comprising: a moveable membrane; a piezoelectric actuator to move the movable membrane; and electronic CMOS circuitry disposed on the moveable membrane, wherein the electronic CMOS circuitry comprises output drivers (Q1-Q4) to drive the piezoelectric actuator and a sensor configured to sense movement of the movable membrane, the sensor being a strain gauge resistor configured to indicate strain in the crystal lattice of silicon through a change in resistance, and the electronic CMOS circuitry includes movable membrane circuitry and static surface circuitry, wherein the movable membrane circuitry moves with the movable membrane during actuation of the piezoelectric actuator. a moveable membrane; a piezoelectric actuator to move the movable membrane; and electronic CMOS circuitry disposed on the moveable membrane, wherein the electronic CMOS circuitry comprises output drivers (Q1-Q4) to drive the piezoelectric actuator and a sensor configured to sense movement of the movable membrane, the sensor being a strain gauge resistor configured to indicate strain in the crystal lattice of silicon through a change in resistance, and the electronic CMOS circuitry includes movable membrane circuitry and static surface circuitry, wherein the movable membrane circuitry moves with the movable membrane during actuation of the piezoelectric actuator.
A bag assembly for handling effluent from a hydroblasting operation, the bag assembly comprising: a containment bag comprising: a throat opening configured to interface with an end of a vessel, a sidewall extending longitudinally from the throat opening, and a sleeve that is (i) formed of a resilient material, (ii) located circumferentially around the containment bag near the throat opening, and (iii) configured to resist impingement by hydroblasting fluid directly from a hydro blasting wand; a drain in the bag configured to enable draining of the fluid collected in the containment bag; characterized in that the containment bag comprises an anti-static means coupled to or within at least one of the sidewall and the sleeve. a containment bag comprising: a throat opening configured to interface with an end of a vessel, a sidewall extending longitudinally from the throat opening, and a sleeve that is (i) formed of a resilient material, (ii) located circumferentially around the containment bag near the throat opening, and (iii) configured to resist impingement by hydroblasting fluid directly from a hydro blasting wand; a throat opening configured to interface with an end of a vessel, a sidewall extending longitudinally from the throat opening, and a sleeve that is (i) formed of a resilient material, (ii) located circumferentially around the containment bag near the throat opening, and (iii) configured to resist impingement by hydroblasting fluid directly from a hydro blasting wand; a drain in the bag configured to enable draining of the fluid collected in the containment bag;