mhurhangee/patent-ind-claim-en huggingface dataset:
Diffuse reflectance Fourier Transform Infra-Red spectroscopy apparatus for use in analysing a sample comprising: a light source ; a sample receiving location for receiving a sample for analysis; an illumination arrangement for directing light from the light source towards the received sample ; a detector for detecting light reflected by the received sample ; and collection optics for directing light reflected by the received sample towards the detector , wherein the illumination arrangement comprises an interferometer and a paraboloid mirror arranged to collect and reflect the light emitted by the light source towards the interferometer and is characterised by a half beam block disposed just in front of the light source and substantially at the focus of the paraboloid mirror in the optical path between the interferometer and the light source and arranged so as to block light that exits the interferometer back towards the light source and is reflected by the light source from re-entering the interferometer . a light source ; a sample receiving location for receiving a sample for analysis; an illumination arrangement for directing light from the light source towards the received sample ; a detector for detecting light reflected by the received sample ; and collection optics for directing light reflected by the received sample towards the detector , wherein the illumination arrangement comprises an interferometer and a paraboloid mirror arranged to collect and reflect the light emitted by the light source towards the interferometer and is characterised by a half beam block disposed just in front of the light source and substantially at the focus of the paraboloid mirror in the optical path between the interferometer and the light source and arranged so as to block light that exits the interferometer back towards the light source and is reflected by the light source from re-entering the interferometer .
A microelectromechanical system (MEMS) apparatus comprising: a first membrane , a second membrane and a third membrane spaced apart from one another, wherein the second membrane is between the first membrane and the third membrane ; a first low pressure region between the first membrane and the second membrane ; a second low pressure region between the second membrane and the third membrane , wherein the first low pressure region and the second low pressure region have a pressure less than an outer pressure; a first stator in the first low pressure region ; a second stator in the second low pressure region ; and a plurality of pillars which extends between the first membrane and the third membrane , wherein the plurality of pillars is mechanically coupled to the first membrane , the second membrane and the third membrane . a first membrane , a second membrane and a third membrane spaced apart from one another, wherein the second membrane is between the first membrane and the third membrane ; a first low pressure region between the first membrane and the second membrane ; a second low pressure region between the second membrane and the third membrane , wherein the first low pressure region and the second low pressure region have a pressure less than an outer pressure; a first stator in the first low pressure region ; a second stator in the second low pressure region ; and a plurality of pillars which extends between the first membrane and the third membrane , wherein the plurality of pillars is mechanically coupled to the first membrane , the second membrane and the third membrane .
A system for providing power and data to a device, the system comprising: at least one gateway that provides power and data to at least one device in the system over a single cable ; and a plurality of adapters daisy chained together, wherein one of the plurality of adapters is directly coupled to the gateway and daisy chained to remaining adapters of the plurality of adapters using lengths of the single cable , wherein the at least one device is coupled to one of the plurality of adapters such that devices in the system are daisy chained together through the plurality of adapters ; wherein the plurality of adapters are configured to provide power and send data to the devices using the single cable ; wherein the single cable is configured to provide power and data; wherein the plurality of adapters each further comprise a transceiver and power switch that is configured to turn on and off the transceiver , wherein the power switch is further configured to be remotely triggered; and characterized in that the at least one gateway and/or the at least one of the plurality of adapters are configured to store data related to health of the system and communicate the stored data automatically at a predetermined time or upon request by another device, the data including one or more of: data rate, error rate, and voltage swings. at least one gateway that provides power and data to at least one device in the system over a single cable ; and a plurality of adapters daisy chained together, wherein one of the plurality of adapters is directly coupled to the gateway and daisy chained to remaining adapters of the plurality of adapters using lengths of the single cable , wherein the at least one device is coupled to one of the plurality of adapters such that devices in the system are daisy chained together through the plurality of adapters ; wherein the plurality of adapters are configured to provide power and send data to the devices using the single cable ; wherein the single cable is configured to provide power and data; wherein the plurality of adapters each further comprise a transceiver and power switch that is configured to turn on and off the transceiver , wherein the power switch is further configured to be remotely triggered; and characterized in that the at least one gateway and/or the at least one of the plurality of adapters are configured to store data related to health of the system and communicate the stored data automatically at a predetermined time or upon request by another device, the data including one or more of: data rate, error rate, and voltage swings.
Rotary connection for a rotor blade of a wind power plant comprising an outer ring (4; 14a, 14b) and an inner ring , wherein the inner ring comprises a supporting surface in a direction of the rotor blade and a screwing surface in a direction of the rotor hub , wherein the supporting surface and the screwing surface are arranged parallel to one another and are provided with through bores that have a center axis , wherein rolling bodies are arranged between the outer ring (4; 14a, 14b) and the inner ring in at least two running rows I/II that lie below one another, wherein the rolling bodies have a rolling body diameter d, characterized in that , the lower running row I is arranged with its rolling body center below the screwing surface at a spacing Y in an axial direction of greater than / equal to 2 x (times) the rolling body diameter d, measured from the rolling body center to the screwing surface and at a spacing X in a radial direction of greater than / equal to 1,5 x (times) the rolling body diameter d, measured from the rolling body center to the center axis of the through bores and with a parallel offset Z greater than / equal to 0,7 x (times) the rolling body diameter d, measured between the supporting surface and the screwing surface . wherein the inner ring comprises a supporting surface in a direction of the rotor blade and a screwing surface in a direction of the rotor hub , wherein the supporting surface and the screwing surface are arranged parallel to one another and are provided with through bores that have a center axis , wherein rolling bodies are arranged between the outer ring (4; 14a, 14b) and the inner ring in at least two running rows I/II that lie below one another, wherein the rolling bodies have a rolling body diameter d, characterized in that , the lower running row I is arranged with its rolling body center below the screwing surface at a spacing Y in an axial direction of greater than / equal to 2 x (times) the rolling body diameter d, measured from the rolling body center to the screwing surface and at a spacing X in a radial direction of greater than / equal to 1,5 x (times) the rolling body diameter d, measured from the rolling body center to the center axis of the through bores and with a parallel offset Z greater than / equal to 0,7 x (times) the rolling body diameter d, measured between the supporting surface and the screwing surface .
A compound represented by formula (III-ii-a) or (III-ii-b) for use in therapy: wherein R 2 represents any of the following structure: wherein R 3 represents any of the following structure:
A wearable device comprising: an air conduction speaker ; a tissue conduction speaker operable to be worn on a user's body and to transmit sound through contact with the user's skin, such that the sound can be conducted through bone or soft-tissue to the inner ear of the user; one or more sensors ; and logic , implemented in one or more of configurable logic hardware or fixed-functionality logic hardware, adapted to: determine a usage configuration of the wearable device based on a set of status signals from the one or more sensors that indicate one or more of a physical position, a physical activity, a current activation state, an interpersonal proximity state and a manual user request associated with one or more of the air conduction speaker or the tissue conduction speaker, set an activation state of the air conduction speaker based at least in part on the usage configuration, and set an activation state of the tissue conduction speaker based at least part on the usage configuration, characterized in that the logic is adapted to set an optimization state of the air conduction speaker and the tissue conduction speaker based on the usage configuration. an air conduction speaker ; a tissue conduction speaker operable to be worn on a user's body and to transmit sound through contact with the user's skin, such that the sound can be conducted through bone or soft-tissue to the inner ear of the user; one or more sensors ; and logic , implemented in one or more of configurable logic hardware or fixed-functionality logic hardware, adapted to: determine a usage configuration of the wearable device based on a set of status signals from the one or more sensors that indicate one or more of a physical position, a physical activity, a current activation state, an interpersonal proximity state and a manual user request associated with one or more of the air conduction speaker or the tissue conduction speaker, set an activation state of the air conduction speaker based at least in part on the usage configuration, and set an activation state of the tissue conduction speaker based at least part on the usage configuration, characterized in that the logic is adapted to set an optimization state of the air conduction speaker and the tissue conduction speaker based on the usage configuration. determine a usage configuration of the wearable device based on a set of status signals from the one or more sensors that indicate one or more of a physical position, a physical activity, a current activation state, an interpersonal proximity state and a manual user request associated with one or more of the air conduction speaker or the tissue conduction speaker, set an activation state of the air conduction speaker based at least in part on the usage configuration, and set an activation state of the tissue conduction speaker based at least part on the usage configuration, characterized in that the logic is adapted to set an optimization state of the air conduction speaker and the tissue conduction speaker based on the usage configuration.
System for treating a substrate comprising: (a) a vacuum chamber for receiving and/or transferring the substrate , (b) a reaction chamber for treating a plurality of substrates under a controlled gaseous atmosphere, and with a substrate storage for vertically storing the plurality of substrates in the reaction chamber , (c) a transfer chamber arranged between the vacuum chamber and the reaction chamber for receiving the substrate from the vacuum chamber and transferring it into the reaction chamber or vice versa, (d) a first lock between the vacuum chamber and the transfer chamber , (e) a second lock between the transfer chamber and the reaction chamber , (f) a controller for controlling the flow of a gas into the transfer chamber to be the same gas as in the reaction chamber , wherein the controller is adapted to control the pressure and temperature of the gaseous atmosphere in the transfer chamber to be the same as in the reaction chamber , (g) a transport mechanism in the transfer chamber , wherein the transport mechanism is adapted to transfer and/or receive a substrate to/from the substrate storage from/into the transfer chamber , and (h) control means for controlling the duration of treatment of each substrate individually in the reaction chamber , wherein the control means is adapted to automatically transfer the respective substrate from the reaction chamber into the transfer chamber after a pre-determined period of time. (a) a vacuum chamber for receiving and/or transferring the substrate , (b) a reaction chamber for treating a plurality of substrates under a controlled gaseous atmosphere, and with a substrate storage for vertically storing the plurality of substrates in the reaction chamber , (c) a transfer chamber arranged between the vacuum chamber and the reaction chamber for receiving the substrate from the vacuum chamber and transferring it into the reaction chamber or vice versa, (d) a first lock between the vacuum chamber and the transfer chamber , (e) a second lock between the transfer chamber and the reaction chamber , (f) a controller for controlling the flow of a gas into the transfer chamber to be the same gas as in the reaction chamber , wherein the controller is adapted to control the pressure and temperature of the gaseous atmosphere in the transfer chamber to be the same as in the reaction chamber , (g) a transport mechanism in the transfer chamber , wherein the transport mechanism is adapted to transfer and/or receive a substrate to/from the substrate storage from/into the transfer chamber , and (h) control means for controlling the duration of treatment of each substrate individually in the reaction chamber , wherein the control means is adapted to automatically transfer the respective substrate from the reaction chamber into the transfer chamber after a pre-determined period of time.
A consumable level monitoring system for association with a solid content-filled consumable , comprising: a sensing module suitable to sense the consumable level , wherein the sensing module comprising a plurality of sensors at various volume levels of the content-filled consumable , and the plurality of sensors comprise light sensors; and characterized in that the system further comprises: a visual indicator suitable to receive the consumable level from the sensing module , and for communicating the consumable level to a user, and a dispensing base for accommodating the consumable wherein the sensing module is embedded in a label associated with the consumable , and wherein the visual indicator is provided in the dispensing base . a sensing module suitable to sense the consumable level , wherein the sensing module comprising a plurality of sensors at various volume levels of the content-filled consumable , and the plurality of sensors comprise light sensors; and characterized in that the system further comprises: a visual indicator suitable to receive the consumable level from the sensing module , and for communicating the consumable level to a user, and a dispensing base for accommodating the consumable wherein the sensing module is embedded in a label associated with the consumable , and wherein the visual indicator is provided in the dispensing base . a visual indicator suitable to receive the consumable level from the sensing module , and for communicating the consumable level to a user, and a dispensing base for accommodating the consumable wherein the sensing module is embedded in a label associated with the consumable , and wherein the visual indicator is provided in the dispensing base .
A computer-implemented method of analysing genetic data comprising: receiving a polygenic risk score (S10) for a target phenotype or target phenotype combination for a target individual; receiving individual genetic data (S20) for the target individual, the individual genetic data informative about an ancestry of the target individual; determining an individual position (S30) in an ancestry space using the individual genetic data , the individual position represented by a combination of continuous or pseudo-continuous variables, or the individual position comprising an assignment to a weighted combination of a plurality of ancestries; and calculating a genetic contribution (S40) to a risk for the target individual for the target phenotype or target phenotype combination using the polygenic risk score and the individual position, the genetic contribution to the risk having a continuous or pseudo-continuous dependency on the individual position, wherein the ancestry space is defined using reference genetic data from a plurality of reference individuals having a plurality of different ancestries. receiving a polygenic risk score (S10) for a target phenotype or target phenotype combination for a target individual; receiving individual genetic data (S20) for the target individual, the individual genetic data informative about an ancestry of the target individual; determining an individual position (S30) in an ancestry space using the individual genetic data , the individual position represented by a combination of continuous or pseudo-continuous variables, or the individual position comprising an assignment to a weighted combination of a plurality of ancestries; and calculating a genetic contribution (S40) to a risk for the target individual for the target phenotype or target phenotype combination using the polygenic risk score and the individual position, the genetic contribution to the risk having a continuous or pseudo-continuous dependency on the individual position, wherein the ancestry space is defined using reference genetic data from a plurality of reference individuals having a plurality of different ancestries.
An apparatus comprising a processor and a memory, the apparatus further including computer-executable instructions stored in the memory of the apparatus which, when executed by the processor, cause the apparatus to: receive a location context request from a server , the server being a service capability server or an application server, wherein the location context request identifies a specific user equipment, UE, for which location context information is requested; determine whether the server is authorized to obtain location context information of the specific UE; in response to the location context request from the server, obtain the location context information that is specific to the UE from a core network node; and if the server is authorized to obtain location context information of the specific UE, provide the location context information to the server, wherein the location context information comprises congestion levels of one or more core network nodes for mobility management that serve the UE, and the congestion levels comprise user plane congestion information or control plane congestion information. receive a location context request from a server , the server being a service capability server or an application server, wherein the location context request identifies a specific user equipment, UE, for which location context information is requested; determine whether the server is authorized to obtain location context information of the specific UE; in response to the location context request from the server, obtain the location context information that is specific to the UE from a core network node; and if the server is authorized to obtain location context information of the specific UE, provide the location context information to the server, wherein the location context information comprises congestion levels of one or more core network nodes for mobility management that serve the UE, and the congestion levels comprise user plane congestion information or control plane congestion information.
A ribonucleoside, a ribonucleotide, or a derivative thereof having a protective group at the 2'-position, wherein the protective group is represented by the following Formula I: wherein in the formula, O* represents an oxygen atom of the hydroxyl group at the 2' position of the ribonucleoside, the ribonucleotide, or the derivative thereof wherein the moiety including the ribose and the nucleic acid base in Formula I is enclosed in the parentheses; the ribonucleotide is a unit constituting RNA; the ribonucleoside includes a ribose and a nucleic acid base; a ribonucleoside phosphate is a ribonucleotide; a derivative of the ribonucleoside or the ribonucleotide is those obtained by adding one or multiple substituents to the ribonucleoside or the ribonucleotide constituting RNA, where the substituent is a C 1-3 alkyl group or a C 1-3 haloalkyl group that substitutes a hydrogen atom of the ribonucleoside or ribonucleotide; wherein all of R1 to R5 represent a hydrogen atom, R6 represents a hydrogen atom, a fluorine atom or a chlorine atom, and R7 represents a fluorine atom or a chlorine atom. wherein in the formula, O* represents an oxygen atom of the hydroxyl group at the 2' position of the ribonucleoside, the ribonucleotide, or the derivative thereof wherein the moiety including the ribose and the nucleic acid base in Formula I is enclosed in the parentheses; the ribonucleotide is a unit constituting RNA; the ribonucleoside includes a ribose and a nucleic acid base; a ribonucleoside phosphate is a ribonucleotide; a derivative of the ribonucleoside or the ribonucleotide is those obtained by adding one or multiple substituents to the ribonucleoside or the ribonucleotide constituting RNA, where the substituent is a C 1-3 alkyl group or a C 1-3 haloalkyl group that substitutes a hydrogen atom of the ribonucleoside or ribonucleotide; wherein all of R1 to R5 represent a hydrogen atom, R6 represents a hydrogen atom, a fluorine atom or a chlorine atom, and R7 represents a fluorine atom or a chlorine atom.
A modular burner, comprising a plurality of mixing modules , alongside each other and parallel to a longitudinal plane (Y), each of which has a length (L) measured parallel to the longitudinal plane (Y), wherein the mixing modules are separated from each other by a mounting pitch (P), measured as the distance between the mean longitudinal planes of two adjacent modules , characterised in that the ratio between the length of the mixing modules and the mounting pitch (P) is greater than 11.