mhurhangee/patent-ind-claim-en huggingface dataset:
A User Interface, UI, providing method by a User Interface (UI)-providing apparatus , the method comprising: identifying (S600), by the User Interface (UI)-providing apparatus, a list of controlled devices corresponding to an activity mode selected based on a user input via a user interface; collecting (S601) control information relating to functions provided by the identified controlled devices , wherein the control information comprises information regarding a user control history and an analysed device control pattern; selecting (S602), by the User Interface (UI)-providing apparatus, at least one controlled device from among the list of controlled devices, based on the information regarding the user control history and the analysed device control pattern comprised in the control information; selecting (S602), by the User Interface (UI)-providing apparatus, controlled functions of the selected at least one controlled device, based on the information regarding the user control history and the analysed device control pattern comprised in the control information; collecting (S605, S606, S608, S610) control command information from the selected at least one controlled device; and generating (S612) a UI including the selected controlled functions used to control the selected at least one controlled device corresponding to the activity mode, based on the selected controlled functions of the selected at least one controlled device and the control command information. identifying (S600), by the User Interface (UI)-providing apparatus, a list of controlled devices corresponding to an activity mode selected based on a user input via a user interface; collecting (S601) control information relating to functions provided by the identified controlled devices , wherein the control information comprises information regarding a user control history and an analysed device control pattern; selecting (S602), by the User Interface (UI)-providing apparatus, at least one controlled device from among the list of controlled devices, based on the information regarding the user control history and the analysed device control pattern comprised in the control information; selecting (S602), by the User Interface (UI)-providing apparatus, controlled functions of the selected at least one controlled device, based on the information regarding the user control history and the analysed device control pattern comprised in the control information; collecting (S605, S606, S608, S610) control command information from the selected at least one controlled device; and generating (S612) a UI including the selected controlled functions used to control the selected at least one controlled device corresponding to the activity mode, based on the selected controlled functions of the selected at least one controlled device and the control command information.
A method of determining locations of access points in a venue , using one or more electronic devices configured to receive radio signals from the access points, the method comprising: generating and storing , at a server in communication with the one or more electronic devices, a database comprising information received from the one or more electronic devices, the information comprising: values associated with a radio signal characteristic of the radio signals at locations of RF scan capture by the one or more electronic devices and access point identifiers representing access points corresponding to the values, the locations of RF scan capture being unknown at a time of RF scan capture; assigning correlation values to quantify similarity between the values for pairs of the access point identifiers; mapping the correlation values to correlation ranges based on known locations of at least two of the access points; determining the locations of the access points based on the correlation ranges and the known locations. generating and storing , at a server in communication with the one or more electronic devices, a database comprising information received from the one or more electronic devices, the information comprising: values associated with a radio signal characteristic of the radio signals at locations of RF scan capture by the one or more electronic devices and access point identifiers representing access points corresponding to the values, the locations of RF scan capture being unknown at a time of RF scan capture; assigning correlation values to quantify similarity between the values for pairs of the access point identifiers; mapping the correlation values to correlation ranges based on known locations of at least two of the access points; determining the locations of the access points based on the correlation ranges and the known locations.
A topical pharmaceutical composition which is a gel comprising: erythropoietin at a concentration of between 0.01% to 30% (w/w), fibronectin at a concentration of between 0.01% to 50% (w/w), glycerol at a concentration of between 0.01% to 30% (w/w), Carbomer 940 at a concentration of between 0.01% to 30% (w/w), benzyl alcohol at a concentration of between 0.01% to 30% (w/w), triethanolamine at a concentration of between 0.01% to 30% (w/w), methylparaben at a concentration of between 0.01% to 30% (w/w), propylparaben at a concentration of between 0.01% to 30% (w/w).
A sub-wavelength-scale object and a device for shielding the sub-wavelength-scale object from an electromagnetic wave incident on the device according to a direction of incidence, the device comprising: a layer of dielectric material , a surface of which has a change of level forming a step, the dielectric material having a first refractive index; and a medium having a second refractive index that is lower than the first refractive index of the dielectric material, wherein the medium is in contact with the step; and wherein the sub-wavelength-scale object is located within the device in a quiet zone, wherein an electromagnetic field intensity within the quiet zone is below a threshold related to an electromagnetic sensitivity of the sub-wavelength-scale object to the electromagnetic wave, wherein the at least one sub-wavelength-scale object is shielded from the electromagnetic wave within the quiet zone, wherein the quiet zone extends above the surface, in a vicinity of the step, in a same direction as the direction of incidence of the incident electromagnetic wave . a layer of dielectric material , a surface of which has a change of level forming a step, the dielectric material having a first refractive index; and a medium having a second refractive index that is lower than the first refractive index of the dielectric material, wherein the medium is in contact with the step; and wherein the sub-wavelength-scale object is located within the device in a quiet zone, wherein an electromagnetic field intensity within the quiet zone is below a threshold related to an electromagnetic sensitivity of the sub-wavelength-scale object to the electromagnetic wave, wherein the at least one sub-wavelength-scale object is shielded from the electromagnetic wave within the quiet zone, wherein the quiet zone extends above the surface, in a vicinity of the step, in a same direction as the direction of incidence of the incident electromagnetic wave .
A toner comprising: a toner particle containing a binder resin and a wax; and an organosilicon polymer particle, wherein the organosilicon polymer particle contains an organosilicon polymer having a structure of silicon atoms and oxygen atoms alternately bound to one another, a part of silicon atoms in the organosilicon polymer has a T3 unit structure represented by R a SiO 3/2 , where R a denotes a C 1-6 alkyl group or phenyl group, the ratio of the area of peaks derived from silicon having the T3 unit structure relative to the total area of peaks derived from all silicon element contained in the organosilicon polymer particle is from 0.70 to 1.00 in 29 Si-NMR measurement of the organosilicon polymer particle as determined according to the description, the plurality of domains of the wax are present in the cross-section of the toner particle observed under a scanning transmission electron microscope, the wax is an ester wax, the average long diameter of the domains of the ester wax, as determined according to the description, is from 0.03 μm to 2.00 μm, and the SP value SPw of the wax, as determined according to the description, is from 8.59 to 9.01. a toner particle containing a binder resin and a wax; and an organosilicon polymer particle, wherein the organosilicon polymer particle contains an organosilicon polymer having a structure of silicon atoms and oxygen atoms alternately bound to one another, a part of silicon atoms in the organosilicon polymer has a T3 unit structure represented by R a SiO 3/2 , where R a denotes a C 1-6 alkyl group or phenyl group, the ratio of the area of peaks derived from silicon having the T3 unit structure relative to the total area of peaks derived from all silicon element contained in the organosilicon polymer particle is from 0.70 to 1.00 in 29 Si-NMR measurement of the organosilicon polymer particle as determined according to the description, the plurality of domains of the wax are present in the cross-section of the toner particle observed under a scanning transmission electron microscope, the wax is an ester wax, the average long diameter of the domains of the ester wax, as determined according to the description, is from 0.03 μm to 2.00 μm, and the SP value SPw of the wax, as determined according to the description, is from 8.59 to 9.01.
An N,N-dihydrocarbyl amide carboxylic acid with a structure represented by Formula I: wherein, R 1 and R 2 are each independently a linear or branched, saturated or unsaturated, and unsubstituted C6 or more hydrocarbyl; R 3 is a linear or branched, saturated or unsaturated, and unsubstituted C6 or more hydrocarbyl; and n is a natural number from 1 to 10. wherein, R 1 and R 2 are each independently a linear or branched, saturated or unsaturated, and unsubstituted C6 or more hydrocarbyl; R 3 is a linear or branched, saturated or unsaturated, and unsubstituted C6 or more hydrocarbyl; and n is a natural number from 1 to 10.
A method, comprising: receiving , at a network interface of a first electronic device of a network of devices, wherein the network of devices comprises a first network and a second network , an Internet Protocol version 6, IPv6, message from a second electronic device of the network of devices over the first network , wherein the message is bound for a target electronic device of the network of devices, while the first and target electronic devices operate on more than one network of the network of devices; identifying, by a processor of the first electronic device , an Extended Unique Local Address encoded in an IPv6 header of the message, wherein the Extended Unique Local Address indicates a network of the more than one network of the network of devices that is preferred to reach the target electronic device ; determining, by the first electronic device , based at least in part on the Extended Unique Local Address which network of more than one network to use to communicate the message toward the target electronic device ; and communicating , via the network interface , the message through the network of devices toward the target electronic device , using the first network if it is determined that the first network is preferred to reach the target electronic device and using the second network if it is determined that the second network is preferred to reach the target electronic device , based at least in part on the Extended Unique Local Address. receiving , at a network interface of a first electronic device of a network of devices, wherein the network of devices comprises a first network and a second network , an Internet Protocol version 6, IPv6, message from a second electronic device of the network of devices over the first network , wherein the message is bound for a target electronic device of the network of devices, while the first and target electronic devices operate on more than one network of the network of devices; identifying, by a processor of the first electronic device , an Extended Unique Local Address encoded in an IPv6 header of the message, wherein the Extended Unique Local Address indicates a network of the more than one network of the network of devices that is preferred to reach the target electronic device ; determining, by the first electronic device , based at least in part on the Extended Unique Local Address which network of more than one network to use to communicate the message toward the target electronic device ; and communicating , via the network interface , the message through the network of devices toward the target electronic device , using the first network if it is determined that the first network is preferred to reach the target electronic device and using the second network if it is determined that the second network is preferred to reach the target electronic device , based at least in part on the Extended Unique Local Address.
A pharmaceutical composition for use in a method of treating cancer by in vivo administration of the pharmaceutical composition to a subject in need thereof, comprising an isolated protein transduction reagent-modified reprogramming protein, selected from the group consisting of Sox2, Oct4 and Nanog, wherein the protein transduction reagent comprises a cation reagent and a lipid and wherein the protein transduction reagent is not covalently bound to the reprogramming protein.
An apparatus comprising at least one processor , and at least one memory including computer program code , wherein the at least one memory and the computer program code are configured, with the at least one processor , to cause the apparatus to: obtain a plurality of handover parameter values; use a first machine learning model to select a subset of handover parameter values from the plurality of handover parameter values; obtain historical information of a plurality of first terminal devices; determine a first set of optimal handover parameter values for the plurality of first terminal devices from the subset of handover parameter values; tag the first set of optimal handover parameter values with the historical information of the plurality of first terminal devices to obtain a labelled dataset; train a second machine learning model with the labelled dataset, wherein the trained second machine learning model is capable of predicting a second set of optimal handover parameter values for a second terminal device based on historical information of the second terminal device. obtain a plurality of handover parameter values; use a first machine learning model to select a subset of handover parameter values from the plurality of handover parameter values; obtain historical information of a plurality of first terminal devices; determine a first set of optimal handover parameter values for the plurality of first terminal devices from the subset of handover parameter values; tag the first set of optimal handover parameter values with the historical information of the plurality of first terminal devices to obtain a labelled dataset; train a second machine learning model with the labelled dataset, wherein the trained second machine learning model is capable of predicting a second set of optimal handover parameter values for a second terminal device based on historical information of the second terminal device.
IR microscope for analyzing a sample by molecular spectroscopy, comprising a beam path having - at least one quantum cascade laser (QCL) , which emits infrared (IR) radiation in the form of a laser beam, - a phase modulator arranged between the QCL and the sample , - at least one optical element arranged between the phase modulator and the sample , and - a sensor which detects IR radiation transmitted and/or reflected by the sample , the phase modulator being a rotatable IR-transparent diffuser or a rotatable diffusing mirror that reflects IR radiation, the phase modulator continually rotating during the analysis, characterized in that the phase modulator is arranged in the beam path of the IR microscope such that no IR radiation scattered at the center of the phase modulator impinges on the sample , the diameter of the laser beam at the point of impingement on the phase modulator being 80% or less, in particular 70% or less, than the radius of the phase modulator , the phase modulator rotating at a rate of rotation (n) that is at least 20% greater than a frame rate of the sensor , and the rate of rotation (n) of the phase modulator not being an integral or half-integral multiple of the frame rate of the sensor . - at least one quantum cascade laser (QCL) , which emits infrared (IR) radiation in the form of a laser beam, - a phase modulator arranged between the QCL and the sample , - at least one optical element arranged between the phase modulator and the sample , and - a sensor which detects IR radiation transmitted and/or reflected by the sample ,
A registration apparatus for registering images, the registration apparatus comprising: an images providing unit for providing a first image and a second image of an object, wherein the images providing unit is adapted to provide the first image such that an image element of the first and second image at a respective position has been reconstructed by multiplying projection data values, which are assigned to rays traversing the image element, with weights and by backprojecting the weighted projection data values along the rays, a confidence map providing unit for providing a confidence map comprising for different positions in the first image confidence values being indicative of a likelihood that an image feature is caused by a structure of the object, wherein the confidence map providing unit is adapted to determine for the image element a confidence value by calculating a sum of a function, which depends on the respective weight, over the rays traversing the image element, a registration unit for determining a registration transformation for registering the first image and the second image to each other under consideration of the confidence map. an images providing unit for providing a first image and a second image of an object, wherein the images providing unit is adapted to provide the first image such that an image element of the first and second image at a respective position has been reconstructed by multiplying projection data values, which are assigned to rays traversing the image element, with weights and by backprojecting the weighted projection data values along the rays, a confidence map providing unit for providing a confidence map comprising for different positions in the first image confidence values being indicative of a likelihood that an image feature is caused by a structure of the object, wherein the confidence map providing unit is adapted to determine for the image element a confidence value by calculating a sum of a function, which depends on the respective weight, over the rays traversing the image element, a registration unit for determining a registration transformation for registering the first image and the second image to each other under consideration of the confidence map.
A microwave antenna system, comprising: a parabolic reflector antenna ; a feed assembly that includes a waveguide structure that extends in a longitudinal direction; and characterised by : a feed assembly interface that includes a first rectangular waveguide and a second rectangular waveguide that are each coupled to the waveguide structure at respective first and second longitudinal positions along opposite sides of the waveguide structure . a parabolic reflector antenna ; a feed assembly that includes a waveguide structure that extends in a longitudinal direction; and characterised by : a feed assembly interface that includes a first rectangular waveguide and a second rectangular waveguide that are each coupled to the waveguide structure at respective first and second longitudinal positions along opposite sides of the waveguide structure .
A heating apparatus , comprising: a heater configured to apply heat energy to an object ; and control circuitry configured to: control the heater based on a target temperature to which the object is to be heated; characterized in that in response to determining that a first measured temperature sample associated with a first temperature sensor is greater than a first reference temperature , update a first temperature range and the first reference temperature based on the first measured temperature sample; and in response to determining that a second measured temperature sample associated with the first temperature sensor and subsequent to the first measured temperature sample is not within the first temperature range , reduce the priority of the first temperature sensor for control of applying the heat energy to the object . a heater configured to apply heat energy to an object ; and control circuitry configured to: control the heater based on a target temperature to which the object is to be heated; characterized in that in response to determining that a first measured temperature sample associated with a first temperature sensor is greater than a first reference temperature , update a first temperature range and the first reference temperature based on the first measured temperature sample; and in response to determining that a second measured temperature sample associated with the first temperature sensor and subsequent to the first measured temperature sample is not within the first temperature range , reduce the priority of the first temperature sensor for control of applying the heat energy to the object . control the heater based on a target temperature to which the object is to be heated; characterized in that in response to determining that a first measured temperature sample associated with a first temperature sensor is greater than a first reference temperature , update a first temperature range and the first reference temperature based on the first measured temperature sample; and in response to determining that a second measured temperature sample associated with the first temperature sensor and subsequent to the first measured temperature sample is not within the first temperature range , reduce the priority of the first temperature sensor for control of applying the heat energy to the object .
A terminal comprising: a receiving section adapted to receive, via higher layer signaling, configuration information regarding a physical uplink control channel, PUCCH, resource set containing one or more PUCCH resources; and a control section adapted to determine a PUCCH resource associated with a value of a field in downlink control information, characterized in that the field comprises three bits, eight values of the field are respectively associated with eight PUCCH resources, and if a number M of PUCCH resources contained in the PUCCH resource set is less than eight, then the control section is adapted to determine the PUCCH resource, associated with the value, from a first through M-th PUCCH resources out of the eight PUCCH resources. a receiving section adapted to receive, via higher layer signaling, configuration information regarding a physical uplink control channel, PUCCH, resource set containing one or more PUCCH resources; and a control section adapted to determine a PUCCH resource associated with a value of a field in downlink control information, characterized in that the field comprises three bits, eight values of the field are respectively associated with eight PUCCH resources, and if a number M of PUCCH resources contained in the PUCCH resource set is less than eight, then the control section is adapted to determine the PUCCH resource, associated with the value, from a first through M-th PUCCH resources out of the eight PUCCH resources.