mhurhangee/patent-ind-claim-en huggingface dataset:
Compound of the following formula (I): wherein: • R 1 represents an aryl group, optionally substituted by one or more (C 1 -C 2 )alkyl groups, one or more halogens, one or more -OH, -CN or CF 3 groups, and a combination thereof; and • R 2 represents a (C 1 -C 6 )alkyl group or a hydroxy(C 1 -C 6 )alkyl group or a (C 1 -C 4 )alkoxy(C 1 -C 6 )alkyl group; or a pharmaceutically acceptable hydrate or solvate thereof. • R 1 represents an aryl group, optionally substituted by one or more (C 1 -C 2 )alkyl groups, one or more halogens, one or more -OH, -CN or CF 3 groups, and a combination thereof; and • R 2 represents a (C 1 -C 6 )alkyl group or a hydroxy(C 1 -C 6 )alkyl group or a (C 1 -C 4 )alkoxy(C 1 -C 6 )alkyl group;
Method of delivering regulating power for an electric energy supply network with a plurality of energy generators , a plurality of energy consumers and a centralised control unit , wherein the method comprises the following steps: providing an overall energy storage device , consisting of a plurality of economic units couplable to the electric energy supply network with in each case at least one energy storage device and in each case at least one decentralised control unit ; determining an individual instantaneous power and an individual maximum power of the at least one energy storage device for each of the economic units , at a frequency, through the at least one decentralised control unit ; determining, through the centralised control unit , an individual power potential in each case for each of the economic units as the difference of the individual maximum power and the individual instantaneous power; assigning an individual power for a time period, through the centralised control unit , in each case for each of the economic units , wherein in each case the amount of the individual power is smaller than or equal to the amount of the individual power potential, and wherein the total of the individual powers and a power reserve is identical to a first total power for regulating power; reserving, through each of the economic units for the time period, the individual power for regulating power. providing an overall energy storage device , consisting of a plurality of economic units couplable to the electric energy supply network with in each case at least one energy storage device and in each case at least one decentralised control unit ; determining an individual instantaneous power and an individual maximum power of the at least one energy storage device for each of the economic units , at a frequency, through the at least one decentralised control unit ; determining, through the centralised control unit , an individual power potential in each case for each of the economic units as the difference of the individual maximum power and the individual instantaneous power; assigning an individual power for a time period, through the centralised control unit , in each case for each of the economic units , wherein in each case the amount of the individual power is smaller than or equal to the amount of the individual power potential, and wherein the total of the individual powers and a power reserve is identical to a first total power for regulating power; reserving, through each of the economic units for the time period, the individual power for regulating power.
A cochlear implant system comprising. - a receiving unit configured to receive an acoustical signal and transmit an audio signal based on the acoustical signal, - a processor unit configured to: - receive and divide the audio signal into a plurality of band limited audio signals, - sample each of the plurality of band limited audio signals with a temporal onset, - generate a plurality of stimulation pulses based on sampling of the plurality of band limited audio signals, and - determine one or more audio components for each of the plurality of band limited audio signals via the sampling, - an electrode array including a plurality of electrodes, and wherein the processor unit includes a switching mean configured to switch between using a fixed stimulation frame onset or a variable stimulation frame onset for frame coding the plurality of stimulation pulses into one or more stimulation frames, wherein the switching mean is configured to switch between the fixed stimulation frame onset and the variable stimulation frame onset based on the one or more audio components, and wherein the electrode array is configured to stimulate auditory nerves of a user of the cochlear implant system based on the frame coded plurality of stimulation pulses. - a receiving unit configured to receive an acoustical signal and transmit an audio signal based on the acoustical signal, - a processor unit configured to: - receive and divide the audio signal into a plurality of band limited audio signals, - sample each of the plurality of band limited audio signals with a temporal onset, - generate a plurality of stimulation pulses based on sampling of the plurality of band limited audio signals, and - determine one or more audio components for each of the plurality of band limited audio signals via the sampling, - receive and divide the audio signal into a plurality of band limited audio signals, - sample each of the plurality of band limited audio signals with a temporal onset, - generate a plurality of stimulation pulses based on sampling of the plurality of band limited audio signals, and - determine one or more audio components for each of the plurality of band limited audio signals via the sampling, - an electrode array including a plurality of electrodes,
A light pole , wherein the light pole extends along a principal axis, A, and comprises: a housing extending along the principal axis, and a support structure arranged within the housing, wherein the support structure comprises a board-shaped segment extending along the principal axis, and flanges extending along the principal axis and arranged on either, longitudinal side of the segment, wherein the flanges, in a cross-section of the support structure perpendicular to the principal axis, extend in a plane perpendicular to the principal axis, characterised in that the length, L, of the flanges in said plane is larger at both end portions of the support structure than at a central portion of the support structure along the principal axis. a housing extending along the principal axis, and a support structure arranged within the housing, wherein the support structure comprises a board-shaped segment extending along the principal axis, and flanges extending along the principal axis and arranged on either, longitudinal side of the segment, wherein the flanges, in a cross-section of the support structure perpendicular to the principal axis, extend in a plane perpendicular to the principal axis, characterised in that the length, L, of the flanges in said plane is larger at both end portions of the support structure than at a central portion of the support structure along the principal axis.
A coating evaluation device comprising : a shape acquisition unit configured to acquire shape information representing a curved shape of a coating surface; a surface roughness acquisition unit configured to acquire surface roughness information representing a surface roughness of the coating surface; and a controller configured to estimate an evaluation value that corresponds to a combination of the shape information and the surface roughness information by using an evaluation model that outputs a brilliance evaluation value pertaining to the coating surface in response to an input including the shape information and the surface roughness information. a shape acquisition unit configured to acquire shape information representing a curved shape of a coating surface; a surface roughness acquisition unit configured to acquire surface roughness information representing a surface roughness of the coating surface; and a controller configured to estimate an evaluation value that corresponds to a combination of the shape information and the surface roughness information by using an evaluation model that outputs a brilliance evaluation value pertaining to the coating surface in response to an input including the shape information and the surface roughness information.
A thrust foil bearing comprising: a base plate including an insertion hole through which a shaft is inserted and a support surface disposed around the insertion hole on one side of the insertion hole in an axial direction; and a back foil supported by the support surface , wherein the support surface has a plurality of inclined surfaces , and the back foil is divided into a plurality of divided regions in the radial direction by a slit , and the plurality of divided regions are supported by the plurality of inclined surfaces , characterized in that inclination angles (θ1, θ2, θ3, θ4) of the plurality of inclined surfaces inclined toward the other side of the base plate in the axial direction become shallower in order toward an outside of the insertion hole in a radial direction. a base plate including an insertion hole through which a shaft is inserted and a support surface disposed around the insertion hole on one side of the insertion hole in an axial direction; and a back foil supported by the support surface , wherein the support surface has a plurality of inclined surfaces , and the back foil is divided into a plurality of divided regions in the radial direction by a slit , and the plurality of divided regions are supported by the plurality of inclined surfaces , characterized in that inclination angles (θ1, θ2, θ3, θ4) of the plurality of inclined surfaces inclined toward the other side of the base plate in the axial direction become shallower in order toward an outside of the insertion hole in a radial direction.
A boom structure for a work machine, the work machine comprising a cabin and a boom structure , the boom structure is a branched boom structure that comprises at least two boom branches arranged on the work machine and a main boom structure extending from their convergence area substantially in a working direction, wherein the boom structure is rotatable in relation to the frame of the work machine about a substantially vertical axis, the boom branches are arranged on the work machine substantially in the vicinity of planes formed by side walls of the cabin , the boom branches are arranged to extend at least partly to the area of the side walls of the cabin in at least one use or transport position of the work machine , characterized in that the boom structure is turnable in relation to an axis (C) perpendicular to the working direction, in such a manner that the boom branches turn at least partly onto the area of the side walls of the cabin at least in one use or transport position of the work machine , and that the boom branches and at least part of the main boom structure constitute a substantially continuous structure in such a manner that said parts are not substantially movable in relation to one another.
Set of dental drills , for the preparation of an implant bed, comprising two or more dental drills , wherein the dental drills comprise a cutting portion having an end side-proximal drill end and a shank portion having a receptacle end region which is specified to be received in a drill holding device, wherein the shank portion has a substantially circular-cylindrical guide region for guiding the dental drill , and wherein the guide regions of the two or more dental drills are of the same diameter and of the same height, characterized in that the shank portion of the dental drills additionally has an introduction region for laterally introducing the dental drills into a drill guide , said introduction region being designed so as to be narrower than the guide region and the cutting portion of the dental drills .
A method of measuring a total radiated power of a device under test by means of a test system having a base station simulator , a measurement antenna assigned to the base station simulator and a control and measurement equipment , wherein the method comprises the steps of: - Establishing (S1) a radio resource control connection between the device under test and the base station simulator via the measurement antenna , - Activating (S3) an uplink-beam lock function at the device under test , which ensures that an uplink-beam and a downlink-beam of the device under test do not necessarily have to coincidence with each other since the uplink-beam is locked while pointing to a determined fixed position with respect to the orientation of the device under test , - Performing (S5) a total radiated power measurement by means of the control and measurement equipment while continuously sending a downlink signal from the base station simulator via the measurement antenna to the device under test , characterized in that the downlink signal continuously sent comprises an acknowledgement signal, and wherein the acknowledgement signal is sent by means of the base station simulator without receiving a signal to be acknowledged, thereby ensuring that a signaling link stays alive between the device under test and the base station simulator . - Establishing (S1) a radio resource control connection between the device under test and the base station simulator via the measurement antenna , - Activating (S3) an uplink-beam lock function at the device under test , which ensures that an uplink-beam and a downlink-beam of the device under test do not necessarily have to coincidence with each other since the uplink-beam is locked while pointing to a determined fixed position with respect to the orientation of the device under test , - Performing (S5) a total radiated power measurement by means of the control and measurement equipment while continuously sending a downlink signal from the base station simulator via the measurement antenna to the device under test ,
A method for forming a nanopore in a membrane comprising: exposing two opposing surfaces of a membrane to an electrically conducting liquid environment; characterized in that the method further comprises applying at least one nanopore nucleation voltage pulse, having a preselected nucleation pulse amplitude and preselected pulse duration known to produce nanopore nucleation in the membrane, the nanopore nucleation voltage pulse being applied between the two membrane surfaces, through the liquid environment, without measuring electrical conductance of the membrane during the nucleation voltage pulse application, to produce at the membrane a nanopore nucleation site; and after producing the nanopore nucleation site by applying the nanopore nucleation voltage pulse, processing the membrane to produce a nanopore, having a preselected nanopore diameter, at the nanopore nucleation site. exposing two opposing surfaces of a membrane to an electrically conducting liquid environment; characterized in that the method further comprises applying at least one nanopore nucleation voltage pulse, having a preselected nucleation pulse amplitude and preselected pulse duration known to produce nanopore nucleation in the membrane, the nanopore nucleation voltage pulse being applied between the two membrane surfaces, through the liquid environment, without measuring electrical conductance of the membrane during the nucleation voltage pulse application, to produce at the membrane a nanopore nucleation site; and after producing the nanopore nucleation site by applying the nanopore nucleation voltage pulse, processing the membrane to produce a nanopore, having a preselected nanopore diameter, at the nanopore nucleation site.
A method for producing a hydrofluoroolefin or fluoroolefin having 2, 3 or 4 carbon atoms, comprising irradiating at least one starting material compound selected from C 1-2 -hydrofluorocarbons and C 2-3 -hydrofluoroolefins A with ionizing radiation and/or UV-light having a wavelength of ≤ 300 nm, with the proviso that when the at least one starting material compound is the hydrofluoroolefin A, the resulting hydrofluoroolefin is different from the hydrofluoroolefin A.
A device comprising: a data processing circuit having an input for receiving an input signal, a power supply terminal, and an output for providing an output signal; a chaotic oscillator circuit having an output coupled to provide an output signal for controlling a voltage level of a power supply of the data processing circuit ; characterized in that the chaotic oscillator circuit further has an input coupled to receive a control signal; and in that the device further comprises a counter having an input coupled to receive a clock signal, and an output coupled to control a variable parameter of the chaotic oscillator circuit . a data processing circuit having an input for receiving an input signal, a power supply terminal, and an output for providing an output signal; a chaotic oscillator circuit having an output coupled to provide an output signal for controlling a voltage level of a power supply of the data processing circuit ; characterized in that the chaotic oscillator circuit further has an input coupled to receive a control signal; and in that the device further comprises a counter having an input coupled to receive a clock signal, and an output coupled to control a variable parameter of the chaotic oscillator circuit .
A device for use with ultrasound imaging procedures comprising: a medical device (D) for insertion into a body, the medical device (D) having a housing (H) defining a chamber (C) in which at least part of an echogenic marker is placed, the marker including a paddle connected to a shaft having an axis wherein the shaft and the paddle are rotatable about the axis and a first portion of the paddle is offset to one side of the shaft and a second portion of the paddle is offset to the other side of the shaft, wherein when positioned within the body and when driven to rotate at a first rotation rate the marker produces a Doppler shift which is observable through ultrasound imaging procedures when the marker is subjected to ultrasound waves, wherein the housing is wholly or partially echolucent and the paddle is constructed of an echogenic material. a medical device (D) for insertion into a body, the medical device (D) having a housing (H) defining a chamber (C) in which at least part of an echogenic marker is placed, the marker including a paddle connected to a shaft having an axis wherein the shaft and the paddle are rotatable about the axis and a first portion of the paddle is offset to one side of the shaft and a second portion of the paddle is offset to the other side of the shaft, wherein when positioned within the body and when driven to rotate at a first rotation rate the marker produces a Doppler shift which is observable through ultrasound imaging procedures when the marker is subjected to ultrasound waves, wherein the housing is wholly or partially echolucent and the paddle is constructed of an echogenic material.
Method for manufacturing a multi-walled device, in particular a multi-walled roof device, comprising of: - providing a first wall element having an upper side and an underside , and a second wall element having an upper side and an underside ; - placing the first and second wall element one above the other, wherein at least one spacer is arranged between the upper side of the first wall element and the underside of the second wall element ; said method for manufacturing being characterised by the following steps: - providing a mould which extends from the upper side of the second wall element to the underside of the first wall element , such that a space R is formed which is bounded by at least the mould , the at least one spacer and a peripheral part (41; 51; 61) of the first and second wall element; wherein the mould is provided with a flexible part extending in a peripheral direction; - introducing an injection part via the flexible part into the space R and arranging a sealing material in said space in the mould in pressureless manner with the injection part while the injection part is being moved relative to the peripheral part of the first and second wall element. - providing a first wall element having an upper side and an underside , and a second wall element having an upper side and an underside ; - placing the first and second wall element one above the other, wherein at least one spacer is arranged between the upper side of the first wall element and the underside of the second wall element ; said method for manufacturing being characterised by the following steps: - providing a mould which extends from the upper side of the second wall element to the underside of the first wall element , such that a space R is formed which is bounded by at least the mould , the at least one spacer and a peripheral part (41; 51; 61) of the first and second wall element; wherein the mould is provided with a flexible part extending in a peripheral direction; - introducing an injection part via the flexible part into the space R and arranging a sealing material in said space in the mould in pressureless manner with the injection part while the injection part is being moved relative to the peripheral part of the first and second wall element. - providing a mould which extends from the upper side of the second wall element to the underside of the first wall element , such that a space R is formed which is bounded by at least the mould , the at least one spacer and a peripheral part (41; 51; 61) of the first and second wall element; wherein the mould is provided with a flexible part extending in a peripheral direction; - introducing an injection part via the flexible part into the space R and arranging a sealing material in said space in the mould in pressureless manner with the injection part while the injection part is being moved relative to the peripheral part of the first and second wall element.
Method for focusing a camera , wherein the field of view of the camera is divided into at least two segments , and wherein at least one operating element or at least one position of an operating element is in each case assigned to at least the two segments , and at least one object (A, B) is in each case recognized and tracked in at least two segments , and the recognized at least two objects (A, B) are automatically assigned to the respective operating element or position of the operating element depending on which segment they are assigned to, and when the operating element is actuated or the operating element is brought into the corresponding position, the camera is focused on the object (A, B) assigned to the operating element or the position of the operating element .