mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor light-emitting diode, comprising: a light-emitting region, wherein the light-emitting region comprises an array of non-uniformly-sized nano-pillars; and wherein the semiconductor light-emitting diode is characterised in that the array of non-uniformly-sized nano-pillars have different diameters (102A - 102D) and different strain relaxations resulting in the ability to emit a continuous broadband spectrum. a light-emitting region, wherein the light-emitting region comprises an array of non-uniformly-sized nano-pillars; and wherein the semiconductor light-emitting diode is characterised in that the array of non-uniformly-sized nano-pillars have different diameters (102A - 102D) and different strain relaxations resulting in the ability to emit a continuous broadband spectrum.
A method for identifying a device, comprising: generating, by a control device, an identification identifier of a multimedia device according to acquired device description information of the multimedia device, and sending the identification identifier to the multimedia device, so that the multimedia device displays the identification identifier (S 101); acquiring, by the control device, the identification identifier displayed by the multimedia device and an appearance image of the multimedia device, and acquiring the device description information according to the identification identifier displayed by the multimedia device (S 102); and associating, by the control device, the device description information with the appearance image of the multimedia device, so that a user of the control device identifies the multimedia device according to the appearance image (S 103). generating, by a control device, an identification identifier of a multimedia device according to acquired device description information of the multimedia device, and sending the identification identifier to the multimedia device, so that the multimedia device displays the identification identifier (S 101); acquiring, by the control device, the identification identifier displayed by the multimedia device and an appearance image of the multimedia device, and acquiring the device description information according to the identification identifier displayed by the multimedia device (S 102); and associating, by the control device, the device description information with the appearance image of the multimedia device, so that a user of the control device identifies the multimedia device according to the appearance image (S 103).
Induction hob with an assembly frame, which forms a basic structure of a housing of the induction hob and supports various electronic and electrical subassemblies of the induction hob, with an inductor support and with a fastening apparatus for fastening the inductor support to the assembly frame, comprising at least one fastening element connected to the assembly frame and a coil spring fitted to the fastening element, which mounts the inductor support in a vertically resilient manner and generates a clamping force from induction heating elements arranged on the inductor support acting against a cover plate, wherein the connection between the fastening element and the assembly frame is produced by an engagement of an extension moulded on the fastening element into a hole in the assembly frame.
Wind turbine, having a machine frame and, on mutually opposite sides of the machine frame, a rotor and a generator, wherein the rotor and the generator are gearlessly coupled to one another via a rotor shaft and a generator shaft and a coupling arrangement arranged therebetween, characterized in that the generator has an external-rotor design and the generator shaft is fastened on a rear side of the generator, the rear side being remote from the rotor, via a connection.
An expansion kit for reversible incorporation in a bioreactor for dividing a bioreactor into two separate reaction chambers and for performing a microbial bio-electrosynthesis, wherein the expansion kit has a reaction chamber which is open on the top side and which has a window in a sidewall, said window being provided with a membrane, wherein the expansion kit is formed in such a way that the reaction chamber of the expansion kit is connected to a reaction chamber of the bioreactor by means of the membrane when in a state of being incorporated in the bioreactor, wherein the expansion kit has a reactor cover which has at least two through openings into which electrodes are insertable such that these electrodes each protrude into one of the reaction chambers which are separated by the membrane and function, respectively, as anode or cathode.
An oral dosage formulation of a Guanylate Cyclase-C agonist peptide comprising a peptide consisting of the sequence of SEQ ID NO:1, wherein said peptide is a (4,12; 7,15) bicycle, an inert low moisture microcrystalline cellulose carrier, and wherein the peptide has a chromatographic purity of no less than 91%.
A method for actively damping oscillations in a compression process, the method being performed by a controller, the method comprising: acquiring process data from a compression process; performing oscillation frequency estimation of any detected oscillations in the process data, wherein the oscillation frequency estimation is configured to estimate oscillations in a frequency range from 0.1 Hz to 10 Hz; generating a damping signal based on the oscillation frequency estimation; and providing the damping signal to an electrical drive of the compression process, characterized in that the compression process comprises using a centrifugal compressor, and the process data is acquired from at least one of suction conditions of the centrifugal compressor and discharge conditions of the centrifugal compressor. acquiring process data from a compression process; performing oscillation frequency estimation of any detected oscillations in the process data, wherein the oscillation frequency estimation is configured to estimate oscillations in a frequency range from 0.1 Hz to 10 Hz; generating a damping signal based on the oscillation frequency estimation; and providing the damping signal to an electrical drive of the compression process, characterized in that the compression process comprises using a centrifugal compressor, and the process data is acquired from at least one of suction conditions of the centrifugal compressor and discharge conditions of the centrifugal compressor.
A method for the detection of a pathogen in a sample that may comprise one or more pathogens, wherein the method comprises performing RT, PCR or RT-PCR and wherein the sample comprises particulate or cellular matter; characterised in that the method comprises: adding the sample to a vessel that comprises PCR reaction components; and centrifuging the sample prior to RT and PCR and not during RT or PCR within a closed vessel and wherein the vessel is the same vessel as the PCR is to subsequently be performed in, and wherein the centrifugation step is performed: a) at a speed and duration so as to pellet the particular/cellular material whilst leaving the pathogen in the supernatant; or b) wherein where the sample is a blood sample, the centrifugation is performed at a speed and for a duration so as to result in pelleting a first fraction of the sample whilst leaving a second fraction of the sample in the supernatant, wherein the first fraction comprises red blood cells and the second fraction comprises white blood cells and any viruses or bacteria present in the sample. adding the sample to a vessel that comprises PCR reaction components; and centrifuging the sample prior to RT and PCR and not during RT or PCR within a closed vessel and wherein the vessel is the same vessel as the PCR is to subsequently be performed in, and wherein the centrifugation step is performed: a) at a speed and duration so as to pellet the particular/cellular material whilst leaving the pathogen in the supernatant; or b) wherein where the sample is a blood sample, the centrifugation is performed at a speed and for a duration so as to result in pelleting a first fraction of the sample whilst leaving a second fraction of the sample in the supernatant, wherein the first fraction comprises red blood cells and the second fraction comprises white blood cells and any viruses or bacteria present in the sample. a) at a speed and duration so as to pellet the particular/cellular material whilst leaving the pathogen in the supernatant; or b) wherein where the sample is a blood sample, the centrifugation is performed at a speed and for a duration so as to result in pelleting a first fraction of the sample whilst leaving a second fraction of the sample in the supernatant, wherein the first fraction comprises red blood cells and the second fraction comprises white blood cells and any viruses or bacteria present in the sample.
A surface cleaning apparatus including: a floor head; a housing supporting: a suction source; and a dirt collection container having an elongate axis; an elongate member having an elongate axis, said elongate member connecting the floor head to the housing, said elongate member including a passage for carrying dirt-laden air from the floor head to the dirt collection container, wherein the elongate axis of the elongate member intersects or substantially intersects the elongate axis of the dirt collection container, and characterised in that the elongate axis of the dirt collection container is substantially horizontal in normal use. a floor head; a housing supporting: a suction source; and a dirt collection container having an elongate axis; a suction source; and a dirt collection container having an elongate axis; an elongate member having an elongate axis, said elongate member connecting the floor head to the housing, said elongate member including a passage for carrying dirt-laden air from the floor head to the dirt collection container, wherein the elongate axis of the elongate member intersects or substantially intersects the elongate axis of the dirt collection container, and characterised in that the elongate axis of the dirt collection container is substantially horizontal in normal use.
A mould for forming an absorbent core for an absorbent article, the mould comprising: i. a mould cavity being bounded by at least one exterior surface defining the contour of the absorbent core and a bottom air permeable base surface, and ii. a three-dimensional shaping profile member within the mould cavity, wherein the shaping profile member and the air permeable base surface are engaged via interlocking elements (70, 71). i. a mould cavity being bounded by at least one exterior surface defining the contour of the absorbent core and a bottom air permeable base surface, and ii. a three-dimensional shaping profile member within the mould cavity,
A high-Q triple-mode cavity dielectric resonant hollow structure for a filter, comprising a cavity and a cover plate, wherein the cavity is internally provided with a dielectric resonant block and a dielectric support frame; the cavity takes a cube-like shape; the dielectric resonant block takes a cube-like shape and is internally provided with a hollow chamber; the dielectric support frame is connected with the dielectric resonant block and an inner wall of the cavity, respectively; the dielectric resonant block and the dielectric support frame form a triple-mode dielectric resonator, wherein the triple-mode is a base mode; a dielectric constant of the dielectric support frame is smaller than a dielectric constant of the dielectric resonant block; a ratio K of a size of a single side of the inner wall of the cavity to a size of a corresponding single side of the dielectric resonant block is: K is greater than or equal to a transition point 1 and is smaller than or equal to a transition point 2, such that a Q value of a higher-order mode adjacent to the base mode of the triple-mode cavity resonant structure is transited into a Q value of the base mode of the triple-mode cavity resonant structure, a base-mode resonant frequency after transition is equal to a base-mode resonant frequency prior to transition, a Q value of the base mode after transition is greater than a Q value of the base mode prior to transition, and a Q value of the higher-order mode adjacent to the base mode after transition is smaller than a Q value of the higher-order mode adjacent to the base mode prior to transition; the triple-mode cavity resonant structure is internally provided with a coupling structure for changing an orthogonal property of an electromagnetic field of the triple-mode in the cavity; and the triple-mode cavity resonant structure is internally provided with a frequency tuning device for changing a tuning frequency of the triple-mode in the cavity. a ratio K of a size of a single side of the inner wall of the cavity to a size of a corresponding single side of the dielectric resonant block is: K is greater than or equal to a transition point 1 and is smaller than or equal to a transition point 2, such that a Q value of a higher-order mode adjacent to the base mode of the triple-mode cavity resonant structure is transited into a Q value of the base mode of the triple-mode cavity resonant structure, a base-mode resonant frequency after transition is equal to a base-mode resonant frequency prior to transition, a Q value of the base mode after transition is greater than a Q value of the base mode prior to transition, and a Q value of the higher-order mode adjacent to the base mode after transition is smaller than a Q value of the higher-order mode adjacent to the base mode prior to transition; the triple-mode cavity resonant structure is internally provided with a coupling structure for changing an orthogonal property of an electromagnetic field of the triple-mode in the cavity; and the triple-mode cavity resonant structure is internally provided with a frequency tuning device for changing a tuning frequency of the triple-mode in the cavity.
A pharmaceutical composition comprising a compound of formula: wherein R1 is wherein AA is a peptide bond-linked natural amino acid, or a pharmaceutically acceptable salt thereof, in association with a pharmaceutically acceptable adjuvant, diluent or carrier. wherein R1 is wherein AA is a peptide bond-linked natural amino acid, or a pharmaceutically acceptable salt thereof, in association with a pharmaceutically acceptable adjuvant, diluent or carrier.
A compressor for a vehicle comprising: an electric motor including: a rotor configured to be rotated by an electromagnetic force generated while a current is flowing through a coil; a stator having a cylindrical shape surrounding an outer periphery of the rotor and having a plurality of winding slots formed on an inner peripheral surface thereof to extend in parallel to a rotary shaft of the rotor, coils being wound through the winding slots; and a connector configured to fix a plurality of terminals formed at a tip end of the coils wound on the stator and having a body fixed to the stator characterized in that the compressor comprises a housing body configured to receive the connector, wherein a pocket is formed at one side of a partition wall opposite to an opened end of the housing body, and the pocket has an opening in which the connector body is positioned and a boss formed at a circumference of the opening to protrude toward an outside, wherein a length of the pocket is obtained by subtracting a length between an end turn of the stator and a bottom end of the housing body from a length of the connector body. an electric motor including: a rotor configured to be rotated by an electromagnetic force generated while a current is flowing through a coil; a stator having a cylindrical shape surrounding an outer periphery of the rotor and having a plurality of winding slots formed on an inner peripheral surface thereof to extend in parallel to a rotary shaft of the rotor, coils being wound through the winding slots; and a connector configured to fix a plurality of terminals formed at a tip end of the coils wound on the stator and having a body fixed to the stator a rotor configured to be rotated by an electromagnetic force generated while a current is flowing through a coil; a stator having a cylindrical shape surrounding an outer periphery of the rotor and having a plurality of winding slots formed on an inner peripheral surface thereof to extend in parallel to a rotary shaft of the rotor, coils being wound through the winding slots; and a connector configured to fix a plurality of terminals formed at a tip end of the coils wound on the stator and having a body fixed to the stator characterized in that the compressor comprises a housing body configured to receive the connector, wherein a pocket is formed at one side of a partition wall opposite to an opened end of the housing body, and the pocket has an opening in which the connector body is positioned and a boss formed at a circumference of the opening to protrude toward an outside, wherein a length of the pocket is obtained by subtracting a length between an end turn of the stator and a bottom end of the housing body from a length of the connector body.
Method for authenticating a user for access to applications executed on a remote gateway of a network from a mobile device via a thin client application, wherein the remote gateway is a remote display gateway for displaying a user interface of a server based application to the user of the mobile device, wherein the server based application is a browser application for browsing websites on the Internet and is accessed via the thin client application on the mobile device and wherein the remote gateway receives a request from the mobile device for initiating the server based application via the thin client application, extracts information on the mobile device requesting the initiation of the server based application, issues an authentication request to an identity management unit within the network and the remote gateway performs a login of the user into the server based application installed on the remote gateway with an identifier, which has been obtained by the identity management unit, as a user name.
A method for calibrating an engine throttle position sensor sensing the position of an engine throttle of a fuel-fired engine during operation of a refrigeration system powered by the fuel-fired engine and providing an engine throttle position value indicative of the level of fuel flow being supplied to the fuel-fired engine, which is used for controlling the fuel-fired engine in order to balance refrigeration load with the available engine power, the method comprising: monitoring a current sensed engine operating RPM and a current sensed engine throttle position signal; the engine throttle position correlating with the available engine power provided by the fuel-fired engine; gradually increasing a load imposed by the refrigeration system on the fuel-fired engine; increasing the power output by the fuel-fired engine in order to meet the increased load and maintain the engine speed at a given target RPM irrespective of the increased load imposed on the engine; determining when the current engine operating RPM has drooped to a preset RPM calibration limit; defining the current sensed engine throttle position signal sensed coincident with the sensed engine operating RPM when the engine operating RPM has drooped to the preset RPM calibration limit as a recalibrated engine throttle position signal indicative of an engine throttle position of 100%; and applying the recalibrated engine throttle position signal indicative of an engine throttle position of 100%. monitoring a current sensed engine operating RPM and a current sensed engine throttle position signal; the engine throttle position correlating with the available engine power provided by the fuel-fired engine; gradually increasing a load imposed by the refrigeration system on the fuel-fired engine; increasing the power output by the fuel-fired engine in order to meet the increased load and maintain the engine speed at a given target RPM irrespective of the increased load imposed on the engine; determining when the current engine operating RPM has drooped to a preset RPM calibration limit; defining the current sensed engine throttle position signal sensed coincident with the sensed engine operating RPM when the engine operating RPM has drooped to the preset RPM calibration limit as a recalibrated engine throttle position signal indicative of an engine throttle position of 100%; and applying the recalibrated engine throttle position signal indicative of an engine throttle position of 100%.
A camera assembly for deployment in a smart home environment, comprising: a housing; an image sensor encased in the housing and configured to capture activity of the smart home environment; a wireless radio (1302, 1306) configured to transmit video frames captured by the image sensor to an electronic device via a remote server; at least one infrared transmitter configured to selectively illuminate the smart home environment; one or more circuit boards encased in the housing, the one or more circuit boards including at least one processor mounted thereon; a heating component coupled to the image sensor, the heating component configured to continuously maintain the image sensor at a temperature above a threshold temperature while the image sensor is capturing the activity of the smart home environment; and control circuitry configured to: determine a temperature of the image sensor based on data from a temperature sensor; and set an operating parameter of the heating component based on the determined temperature. a housing; an image sensor encased in the housing and configured to capture activity of the smart home environment; a wireless radio (1302, 1306) configured to transmit video frames captured by the image sensor to an electronic device via a remote server; at least one infrared transmitter configured to selectively illuminate the smart home environment; one or more circuit boards encased in the housing, the one or more circuit boards including at least one processor mounted thereon; a heating component coupled to the image sensor, the heating component configured to continuously maintain the image sensor at a temperature above a threshold temperature while the image sensor is capturing the activity of the smart home environment; and control circuitry configured to: determine a temperature of the image sensor based on data from a temperature sensor; and set an operating parameter of the heating component based on the determined temperature. determine a temperature of the image sensor based on data from a temperature sensor; and set an operating parameter of the heating component based on the determined temperature.