mhurhangee/patent-ind-claim-en huggingface dataset:
A fill level measuring device which operates according to a transit time method and applies electromagnetic waves, the device comprising: an echo curve detecting device for detecting a first and a second echo curve; wherein the fill level measuring device is designed such that the first echo curve depicts the reflection relations along a first measuring path , along which a first measuring signal moves to a filling material surface or separating layer surface; wherein the level measuring device is designed such that the second echo curve depicts the reflection relations along a second measuring path , along which a second measuring signal moves to the filling material surface or the separating layer surface; wherein the level measuring device is designed such that the two measuring signals require different transit times to the filling material surface or the separating layer surface , even if they were emitted simultaneously; wherein the two measuring signals are electromagnetic signals; further comprising: an evaluation device for evaluating the first and the second echo curve in order to calculate therefrom at least one characteristic value for an superimposed medium which is located above the filling material surface or the separating layer surface; wherein the at least one characteristic value is the product of permeability and permittivity. an echo curve detecting device for detecting a first and a second echo curve; wherein the fill level measuring device is designed such that the first echo curve depicts the reflection relations along a first measuring path , along which a first measuring signal moves to a filling material surface or separating layer surface; wherein the level measuring device is designed such that the second echo curve depicts the reflection relations along a second measuring path , along which a second measuring signal moves to the filling material surface or the separating layer surface; wherein the level measuring device is designed such that the two measuring signals require different transit times to the filling material surface or the separating layer surface , even if they were emitted simultaneously; wherein the two measuring signals are electromagnetic signals; further comprising: an evaluation device for evaluating the first and the second echo curve in order to calculate therefrom at least one characteristic value for an superimposed medium which is located above the filling material surface or the separating layer surface; wherein the at least one characteristic value is the product of permeability and permittivity. an evaluation device for evaluating the first and the second echo curve in order to calculate therefrom at least one characteristic value for an superimposed medium which is located above the filling material surface or the separating layer surface; wherein the at least one characteristic value is the product of permeability and permittivity.
A method comprising: supplying a gas to a mixing zone ; supplying a cryogen to the mixing zone ; discharging a coolant gas from the mixing zone into a vessel , the coolant gas comprising the gas and the cryogen; measuring a first temperature using a sensor ; and maintaining the first temperature within a first predetermined range of a set-point temperature by adjusting a proportional valve , which regulates a flow rate at which the cryogen is supplied to the mixing zone. supplying a gas to a mixing zone ; supplying a cryogen to the mixing zone ; discharging a coolant gas from the mixing zone into a vessel , the coolant gas comprising the gas and the cryogen; measuring a first temperature using a sensor ; and maintaining the first temperature within a first predetermined range of a set-point temperature by adjusting a proportional valve , which regulates a flow rate at which the cryogen is supplied to the mixing zone.
The Cr-Mn-N austenitic heat-resistant steel, comprising, in weight percentage: carbon 0.30% to 0.45%, silicon 0.80% to 1.50%, manganese 3.00% to 4.80%, phosphorus less than 0.02%, sulphur less than 0.02%, chromium 23.00% to 26.00%, nickel 6.00 to 8.00%, molybdenum less than 0.20%, niobium less than 0.30%, tungsten less than 0.40%, vanadium less than 0.12%, nitrogen 0.30 to 0.60%, zirconium less than 0.08%, cobalt less than 0.08%, yttrium less than 0.08%, boron less than 0.10%, with the balance iron. carbon 0.30% to 0.45%, silicon 0.80% to 1.50%, manganese 3.00% to 4.80%, phosphorus less than 0.02%, sulphur less than 0.02%, chromium 23.00% to 26.00%, nickel 6.00 to 8.00%, molybdenum less than 0.20%, niobium less than 0.30%, tungsten less than 0.40%, vanadium less than 0.12%, nitrogen 0.30 to 0.60%, zirconium less than 0.08%, cobalt less than 0.08%, yttrium less than 0.08%, boron less than 0.10%, with the balance iron.
A sd-rxRNA for use in delivering a nucleic acid to an eye of a subject in need thereof, wherein the sd-rxRNA is administered to the eye in an effective amount to promote RNA interference by the sd-rxRNA in the eye, wherein the sd-rxRNA comprises an isolated double stranded nucleic acid molecule comprising a guide strand and a passenger strand, wherein the sd-rxRNA includes a double stranded region and wherein the guide strand contains a single stranded region, wherein the double stranded region is from 8-15 nucleotides long, wherein the single stranded region is 4-12 nucleotides long, wherein the single stranded region contains 3, 4, 5, 6, 7, 8, 9, 10, 11 or 12 phosphorothioate modifications, wherein at least 40% of the nucleotides of the isolated double stranded nucleic acid molecule are modified, wherein the sd-rxRNA is directed against a gene encoding TGFβ1 or TGFβ2, and wherein the sd-rxRNA comprises at least 12 contiguous nucleotides of a sequence selected from the sequences SEQ ID NOs: 1027-1158 (Table 6) or SEQ ID NOs: 1159-1314 (Table 7). wherein the sd-rxRNA comprises an isolated double stranded nucleic acid molecule comprising a guide strand and a passenger strand, wherein the sd-rxRNA includes a double stranded region and wherein the guide strand contains a single stranded region, wherein the double stranded region is from 8-15 nucleotides long, wherein the single stranded region is 4-12 nucleotides long, wherein the single stranded region contains 3, 4, 5, 6, 7, 8, 9, 10, 11 or 12 phosphorothioate modifications, wherein at least 40% of the nucleotides of the isolated double stranded nucleic acid molecule are modified, wherein the sd-rxRNA is directed against a gene encoding TGFβ1 or TGFβ2, and wherein the sd-rxRNA comprises at least 12 contiguous nucleotides of a sequence selected from the sequences SEQ ID NOs: 1027-1158 (Table 6) or SEQ ID NOs: 1159-1314 (Table 7).
A method for the production of a cement-fibre composite K N having a surface O N , wherein particles P are applied to at least one surface O R of a wet cement-fibre composite K R which is still pasty and are pressed into the surface O R of the cement-fibre composite K R in order to obtain the cement-fibre composite K N with the surface O N , wherein at least 90% by weight of the particles P have a particle size of between 0.05 and 15 mm, measured in accordance with DIN 66165, characterized in that the particles P are pressed into the surface O R of the cement-fibre composite K R with a pressure of at least 1000 tonne/m 2 .
A power conversion apparatus connectable to a power grid and configured to supply power to one or more load devices , the power conversion apparatus comprising: a plurality of input interfaces configured to input generated power from each of a plurality of power generation apparatuses of a same type, such as a solar cell string, a wind power generator or a fuel cell; and a controller configured to perform MPPT control on a priority basis on at least one input interface among the plurality of input interfaces , characterized in that the controller is further configured to calculate a remaining power generation capability of a power generation apparatus connected to another input interface using a generated current of a power generation apparatus connected to the at least one input interface during independent operation in which the power conversion apparatus is disconnected from the power grid, and a stored value of a generated voltage of the power generation apparatus connected to the another input interface calculated under MPPT control during interconnected operation in which the power conversion apparatus is connected to the power grid. a plurality of input interfaces configured to input generated power from each of a plurality of power generation apparatuses of a same type, such as a solar cell string, a wind power generator or a fuel cell; and a controller configured to perform MPPT control on a priority basis on at least one input interface among the plurality of input interfaces , characterized in that the controller is further configured to calculate a remaining power generation capability of a power generation apparatus connected to another input interface using a generated current of a power generation apparatus connected to the at least one input interface during independent operation in which the power conversion apparatus is disconnected from the power grid, and a stored value of a generated voltage of the power generation apparatus connected to the another input interface calculated under MPPT control during interconnected operation in which the power conversion apparatus is connected to the power grid.
An x-ray imaging apparatus comprising: a storage unit configured to store sizes of a plurality of x-ray detectors ; and a user interface (G1) configured to: display the sizes of the plurality of x-ray detectors, receive a selection of an x-ray detector of the plurality of x-ray detector depending on the displayed sizes from a user, display at least one mounting unit in which the plurality of x-ray detectors is mountable, characterized in that the user interface is configured to activate a button corresponding to a selectable mounting unit among the displayed at least one mounting unit based on the size of a selected x-ray detector, and deactivate a further button corresponding to a mounting unit among the displayed at least one mounting unit in which the selected x-ray detector is not mountable based on the size of the selected x-ray detector. a storage unit configured to store sizes of a plurality of x-ray detectors ; and a user interface (G1) configured to: display the sizes of the plurality of x-ray detectors, receive a selection of an x-ray detector of the plurality of x-ray detector depending on the displayed sizes from a user, display at least one mounting unit in which the plurality of x-ray detectors is mountable, characterized in that the user interface is configured to activate a button corresponding to a selectable mounting unit among the displayed at least one mounting unit based on the size of a selected x-ray detector, and deactivate a further button corresponding to a mounting unit among the displayed at least one mounting unit in which the selected x-ray detector is not mountable based on the size of the selected x-ray detector. display the sizes of the plurality of x-ray detectors, receive a selection of an x-ray detector of the plurality of x-ray detector depending on the displayed sizes from a user, display at least one mounting unit in which the plurality of x-ray detectors is mountable, characterized in that the user interface is configured to activate a button corresponding to a selectable mounting unit among the displayed at least one mounting unit based on the size of a selected x-ray detector, and deactivate a further button corresponding to a mounting unit among the displayed at least one mounting unit in which the selected x-ray detector is not mountable based on the size of the selected x-ray detector.
An electric linear motion actuator comprising: an electric motor capable of generating a torque corresponding to a driving electric current applied to the electric motor ; a motion conversion mechanism configured to convert the torque generated by the electric motor to a linear driving force of a linear motion member such that a pressing force is applied to a target member from the linear motion member ; a load sensor configured to detect a magnitude of the pressing force applied to the target member ; and a motor control device configured to control the driving electric current applied to the electric motor on a basis of the magnitude of the pressing force detected by the load sensor , wherein the motion conversion mechanism comprises a mechanism showing a hysteresis property by which a magnitude of the torque of the electric motor when the pressing force is of any arbitrary magnitude while the torque is increasing (L 1 ) is not identical to, but is larger than, a magnitude of the torque when the pressing force is of said arbitrary magnitude while the torque is decreasing (L 3 ), characterized in that the motor control device is configured to control the electric current applied to the electric motor when the pressing force applied to the target member is to be maintained, such that the torque of the electric motor increases until the pressing force, as detected by the load sensor , reaches a predetermined value larger than a target value, and then the torque of the electric motor decreases until the pressing force, as detected by the load sensor , reaches the target value. an electric motor capable of generating a torque corresponding to a driving electric current applied to the electric motor ; a motion conversion mechanism configured to convert the torque generated by the electric motor to a linear driving force of a linear motion member such that a pressing force is applied to a target member from the linear motion member ; a load sensor configured to detect a magnitude of the pressing force applied to the target member ; and a motor control device configured to control the driving electric current applied to the electric motor on a basis of the magnitude of the pressing force detected by the load sensor , wherein the motion conversion mechanism comprises a mechanism showing a hysteresis property by which a magnitude of the torque of the electric motor when the pressing force is of any arbitrary magnitude while the torque is increasing (L 1 ) is not identical to, but is larger than, a magnitude of the torque when the pressing force is of said arbitrary magnitude while the torque is decreasing (L 3 ), characterized in that the motor control device is configured to control the electric current applied to the electric motor when the pressing force applied to the target member is to be maintained, such that the torque of the electric motor increases until the pressing force, as detected by the load sensor , reaches a predetermined value larger than a target value, and then the torque of the electric motor decreases until the pressing force, as detected by the load sensor , reaches the target value.
Method for obtaining a leaktight electronic device , in which the following steps are provided: a) placing an electronic module inside a mold , b) keeping said electronic module away from the walls of said mold with the aid of holding lugs that each have an end which protrudes toward the inside of the mold , c) injecting into said mold a thermoplastic material designed to harden so as to form a leaktight shell , said holding lugs retracting toward the outside of the mold during the injection of said thermoplastic material, characterized in that at least one electronic subassembly of the electronic module placed inside the mold in step a) is encapsulated in a flexible shell . a) placing an electronic module inside a mold , b) keeping said electronic module away from the walls of said mold with the aid of holding lugs that each have an end which protrudes toward the inside of the mold , c) injecting into said mold a thermoplastic material designed to harden so as to form a leaktight shell , said holding lugs retracting toward the outside of the mold during the injection of said thermoplastic material,
A method for developing a virtual channel matrix for mapping analysis channels to stimulation channels for a cochlear implant patient comprising: selecting a stimulation channel and measuring the amplitude growth function for the selected stimulation channel in response to commands to the cochlear implant to apply electrical stimulation pulses for the stimulation channel, where each stimulation pulse comprises a negative and positive phase separated in time by a first inter-phase-gap ; measuring the amplitude growth function for the selected stimulation channel in response to commands to the cochlear implant to apply electrical stimulation pulses for the stimulation channel, where each stimulation pulse comprises a negative and positive phase separated in time by a second inter-phase-gap and whereby the first and second inter-phase-gaps are different; determining the slopes of the measured amplitude growth functions for the stimulation channel measured with the first and second inter-phase-gaps , and calculating an indicator based at least in part on the difference of the slopes of the amplitude growth functions indicative of the local neural survival for that stimulation channel; and repeating this process for each stimulation channel where an indicator shall be derived; selecting for the virtual channel matrix the stimulation channels with best local neural survival by optimizing a function based at least in part on the calculated indicators of the stimulation channels. selecting a stimulation channel and measuring the amplitude growth function for the selected stimulation channel in response to commands to the cochlear implant to apply electrical stimulation pulses for the stimulation channel, where each stimulation pulse comprises a negative and positive phase separated in time by a first inter-phase-gap ; measuring the amplitude growth function for the selected stimulation channel in response to commands to the cochlear implant to apply electrical stimulation pulses for the stimulation channel, where each stimulation pulse comprises a negative and positive phase separated in time by a second inter-phase-gap and whereby the first and second inter-phase-gaps are different; determining the slopes of the measured amplitude growth functions for the stimulation channel measured with the first and second inter-phase-gaps , and calculating an indicator based at least in part on the difference of the slopes of the amplitude growth functions indicative of the local neural survival for that stimulation channel; and repeating this process for each stimulation channel where an indicator shall be derived; selecting for the virtual channel matrix the stimulation channels with best local neural survival by optimizing a function based at least in part on the calculated indicators of the stimulation channels.
A thermal imaging device, wherein the thermal imaging device comprises: a housing comprising a front housing ; a lens mount , fixedly connected to the front housing , and wherein a sealing gasket is provided between the front housing and the lens mount ; a lens , threaded with the lens mount ; a manual lens focusing structure comprising a focusing wheel and an axial positioning structure, wherein the focusing wheel and the lens are connected to each other in a manner of synchronous rotation and relative axial movement; the axial positioning structure axially positions the focusing wheel such that the focusing wheel does not move axially during the focusing process; wherein the axial positioning structure comprises a limit seat and a rotating ring , the limit seat is fixedly connected to the housing , the rotating ring is rotatably sleeved on a radially outer side of the limit seat , and the axial position of the rotating ring relative to the limit seat is limited, wherein the focusing wheel is integrally connected with the rotating ring ; the limit seat is fixed to the housing by a second screw . a housing comprising a front housing ; a lens mount , fixedly connected to the front housing , and wherein a sealing gasket is provided between the front housing and the lens mount ; a lens , threaded with the lens mount ; a manual lens focusing structure comprising a focusing wheel and an axial positioning structure, wherein the focusing wheel and the lens are connected to each other in a manner of synchronous rotation and relative axial movement; the axial positioning structure axially positions the focusing wheel such that the focusing wheel does not move axially during the focusing process; wherein the axial positioning structure comprises a limit seat and a rotating ring , the limit seat is fixedly connected to the housing , the rotating ring is rotatably sleeved on a radially outer side of the limit seat , and the axial position of the rotating ring relative to the limit seat is limited, wherein the focusing wheel is integrally connected with the rotating ring ; the limit seat is fixed to the housing by a second screw .
A compound of Formula I comprising: wherein Ar and Ar' are independently selected from the group consisting of phenyl, biphenyl, naphthyl, dibenzothiophene, and dibenzofuran, which are optionally further substituted; wherein Z is selected from Si and Ge; wherein L is a single bond or comprises aryl, amino, or combinations thereof; wherein L is optionally further substituted; wherein A is a group directly bonded to Z and is selected from the group consisting of dibenzofuran, dibenzothiophene, azadibenzofuran, azadibenzothiophene, dibenzoselenophene, azadibenzoselenophene, and combinations thereof, which are optionally further substituted with at least one group selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, aryl, arylseleno, pyridine, triazine, nitrile, isonitrile, and combinations thereof, and wherein the substitution is optionally fused to the group directly bonded to Z; and wherein B contains an azacarbazole, which is optionally further substituted with at least one group selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof, and wherein the substitution is optionally fused to the azacarbazole group. wherein Ar and Ar' are independently selected from the group consisting of phenyl, biphenyl, naphthyl, dibenzothiophene, and dibenzofuran, which are optionally further substituted; wherein Z is selected from Si and Ge; wherein L is a single bond or comprises aryl, amino, or combinations thereof; wherein L is optionally further substituted; wherein A is a group directly bonded to Z and is selected from the group consisting of dibenzofuran, dibenzothiophene, azadibenzofuran, azadibenzothiophene, dibenzoselenophene, azadibenzoselenophene, and combinations thereof, which are optionally further substituted with at least one group selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, aryl, arylseleno, pyridine, triazine, nitrile, isonitrile, and combinations thereof, and wherein the substitution is optionally fused to the group directly bonded to Z; and wherein B contains an azacarbazole, which is optionally further substituted with at least one group selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof, and wherein the substitution is optionally fused to the azacarbazole group.