mhurhangee/ep-ind-claims huggingface dataset:
Magnetic core with at least one electromagnetic coil structure, said coil structure comprising: at least one electrically conductive winding formed as a flat conductive track; at least one flexible electrically insulating carrier for carrying said winding; wherein said coil structure is mounted on said core to induce and/or receive a magnetic flux in said core, said magnetic core comprising a plurality of teeth arranged on an inner or an outer circumference of the magnetic core, wherein said coil structure comprises a plurality of openings which are formed to encompass a tooth of the magnetic core each, and wherein a part of said flat conductive track is spirally wound around each of said openings. at least one electrically conductive winding formed as a flat conductive track; at least one flexible electrically insulating carrier for carrying said winding; wherein said coil structure is mounted on said core to induce and/or receive a magnetic flux in said core, said magnetic core comprising a plurality of teeth arranged on an inner or an outer circumference of the magnetic core, wherein said coil structure comprises a plurality of openings which are formed to encompass a tooth of the magnetic core each, and wherein a part of said flat conductive track is spirally wound around each of said openings.
A method for identifying and characterizing one or more microbes in a sample through top-down analysis of intact proteins derived from microbial cells, the method comprising: (a) performing a first analytical method using mass spectrometry other than matrix-assisted laser desorption ionization (MALDI) mass spectrometry to detect and identify one or more proteins from each of the one or more microbes in the sample; (b) using the identity of the one or more proteins from each of the one or more microbes to further identify at least one of the microbes in the sample (c) using information from step (b) to automatically select a second analytical method from a list of pre-defined analytical methods, the second method also using mass spectrometry other than MALDI mass spectrometry; (d) performing the second analytical method on the sample to determine if proteins indicative of antibiotic resistance markers, antibiotic susceptibility markers, and/or virulence factors are present in the sample and, optionally, quantifying proteins indicative of antibiotic resistance, antibiotic susceptibility, and/or virulence present in the sample. (a) performing a first analytical method using mass spectrometry other than matrix-assisted laser desorption ionization (MALDI) mass spectrometry to detect and identify one or more proteins from each of the one or more microbes in the sample; (b) using the identity of the one or more proteins from each of the one or more microbes to further identify at least one of the microbes in the sample (c) using information from step (b) to automatically select a second analytical method from a list of pre-defined analytical methods, the second method also using mass spectrometry other than MALDI mass spectrometry; (d) performing the second analytical method on the sample to determine if proteins indicative of antibiotic resistance markers, antibiotic susceptibility markers, and/or virulence factors are present in the sample and, optionally, quantifying proteins indicative of antibiotic resistance, antibiotic susceptibility, and/or virulence present in the sample.
A method for producing N-substituted sulfonamide compounds comprising a step of reacting a sulfonamide compound of the general formula: wherein R 1a is an optionally substituted alkyl, alkenyl, alkynyl, cycloalkyl, aryl, heteroaryl, aralkyl or heteroarylalkyl group, and R 4 is an optionally substituted aryl or heteroaryl group, with a halogenated organic compound of the general formula: wherein R 5 is an alkyl group, and X 1 is a halogen atom, in the presence of cesium carbonate or potassium carbonate in an organic solvent to produce an N-substituted sulfonamide compound of the general formula: wherein R 1a, R 4 and R 5 are the same as defined above.
A signaling method implemented by a radio network controller for executing a hard handover of a mobile station receiving packet data on a shared downlink traffic channel, said method comprising: initiating a hard handover of said mobile station from a current serving cell (CELL A) to a target cell (CELL B) responsive to a signaling message from said mobile station; characterized by bi-casting radio resource control messages on said shared downlink traffic channel through both said current serving cell (CELL A) and said target cell (CELL B) during said handover; and uni-casting user data on said shared downlink traffic channel through the current serving cell (CELL A) during said handover.. initiating a hard handover of said mobile station from a current serving cell (CELL A) to a target cell (CELL B) responsive to a signaling message from said mobile station; characterized by bi-casting radio resource control messages on said shared downlink traffic channel through both said current serving cell (CELL A) and said target cell (CELL B) during said handover; and uni-casting user data on said shared downlink traffic channel through the current serving cell (CELL A) during said handover..
An integrated circuit comprising a die, the die cut from a wafer and comprising: an outer strengthening ring around a periphery of the die, the outer ring having one or more gaps; characterised by: an inner strengthening ring within the outer ring and around interior circuitry of the die, the inner ring having one or more gaps offset from the gaps of the outer ring; and one or more conducting members electrically isolated from said rings and electrically connected to the interior circuitry, each passing through one of said gaps of the inner ring and through one of said gaps of the outer ring. an outer strengthening ring around a periphery of the die, the outer ring having one or more gaps; characterised by: an inner strengthening ring within the outer ring and around interior circuitry of the die, the inner ring having one or more gaps offset from the gaps of the outer ring; and one or more conducting members electrically isolated from said rings and electrically connected to the interior circuitry, each passing through one of said gaps of the inner ring and through one of said gaps of the outer ring. an inner strengthening ring within the outer ring and around interior circuitry of the die, the inner ring having one or more gaps offset from the gaps of the outer ring; and one or more conducting members electrically isolated from said rings and electrically connected to the interior circuitry, each passing through one of said gaps of the inner ring and through one of said gaps of the outer ring.
A computer device, comprising: a memory to store data and instructions; a processor in communication with the memory; and an operating system in communication with the memory, the processor, and an application, executed by the processor, providing a virtual environment, wherein the application is operable to: receive physical movement input based at least on a physical movement of a haptic feedback device that corresponds to a virtual movement interaction with a virtual object in the virtual environment, wherein the virtual object is a file folder that a user may access; access a unique haptic signature associated with the file folder, wherein the unique haptic signature identifies a status of the file folder that indicates whether the file folder is locked and/or whether access to the file folder is restricted; determine a unique haptic response based at least upon the unique haptic signature to identify the status of the virtual object through the unique haptic response; and transmit the unique haptic response to the haptic feedback device. a memory to store data and instructions; a processor in communication with the memory; and an operating system in communication with the memory, the processor, and an application, executed by the processor, providing a virtual environment, wherein the application is operable to: receive physical movement input based at least on a physical movement of a haptic feedback device that corresponds to a virtual movement interaction with a virtual object in the virtual environment, wherein the virtual object is a file folder that a user may access; access a unique haptic signature associated with the file folder, wherein the unique haptic signature identifies a status of the file folder that indicates whether the file folder is locked and/or whether access to the file folder is restricted; determine a unique haptic response based at least upon the unique haptic signature to identify the status of the virtual object through the unique haptic response; and transmit the unique haptic response to the haptic feedback device. receive physical movement input based at least on a physical movement of a haptic feedback device that corresponds to a virtual movement interaction with a virtual object in the virtual environment, wherein the virtual object is a file folder that a user may access; access a unique haptic signature associated with the file folder, wherein the unique haptic signature identifies a status of the file folder that indicates whether the file folder is locked and/or whether access to the file folder is restricted; determine a unique haptic response based at least upon the unique haptic signature to identify the status of the virtual object through the unique haptic response; and transmit the unique haptic response to the haptic feedback device.
A driver device for providing variable electric current to at least one semiconductor light-emitting device, comprising: - a switched-mode power supply (701, 1201) for generating an output current of the driver device, the switched-mode power supply comprising a current switch (201, 404, 1301), - a switch driver circuit (202, 401, 1302) configured to provide switching pulses to said current switch (201, 404, 1301) at a switching frequency, - a feedback connection (ISENSE) for making the switch driver circuit receive a feedback quantity representative of a measured current, and - a control input (EN, 1303) of said switch driver circuit, characterized in that: - said switch driver circuit (202, 401, 1302) is configured to respond to voltages exceeding a first threshold at said control input (EN, 1303) by enabling said providing of switching pulses and to voltages between said first threshold and a second, higher threshold at said control input (EN, 1303) by allowing an amplitude of said measured current to reach a value proportional to the voltage at said control input, and - the driver device comprises a control pulse formatter (203, 706) coupled to said control input (EN, 1303) and configured to provide said control input with control pulses of variable amplitude exceeding said first threshold at a pulse width modulation frequency smaller than said switching frequency. - a switched-mode power supply (701, 1201) for generating an output current of the driver device, the switched-mode power supply comprising a current switch (201, 404, 1301), - a switch driver circuit (202, 401, 1302) configured to provide switching pulses to said current switch (201, 404, 1301) at a switching frequency, - a feedback connection (ISENSE) for making the switch driver circuit receive a feedback quantity representative of a measured current, and - a control input (EN, 1303) of said switch driver circuit, - said switch driver circuit (202, 401, 1302) is configured to respond to voltages exceeding a first threshold at said control input (EN, 1303) by enabling said providing of switching pulses and to voltages between said first threshold and a second, higher threshold at said control input (EN, 1303) by allowing an amplitude of said measured current to reach a value proportional to the voltage at said control input, and - the driver device comprises a control pulse formatter (203, 706) coupled to said control input (EN, 1303) and configured to provide said control input with control pulses of variable amplitude exceeding said first threshold at a pulse width modulation frequency smaller than said switching frequency.
A pressure sensing element comprising: a first electrode including at least one protrusion having elasticity; a second electrode facing the at least one protrusion; and a dielectric disposed between the first electrode and the second electrode and including a first dielectric and a second dielectric, wherein the first dielectric is disposed between a top of the at least one protrusion and the second electrode, and is in contact with each of the top of the at least one protrusion and the second electrode, a contact area between the at least one protrusion and the first dielectric being part of a first capacitor having a first capacitance, and the second dielectric is disposed between a first portion of the first electrode, the first portion not including the at least one protrusion, and the first dielectric, a contact area between the first dielectric and the second dielectric being part of a second capacitor having a second capacitance, and the pressure sensing element has a capacitance which includes the first capacitance and the second capacitance. a first electrode including at least one protrusion having elasticity; a second electrode facing the at least one protrusion; and a dielectric disposed between the first electrode and the second electrode and including a first dielectric and a second dielectric, wherein the first dielectric is disposed between a top of the at least one protrusion and the second electrode, and is in contact with each of the top of the at least one protrusion and the second electrode, a contact area between the at least one protrusion and the first dielectric being part of a first capacitor having a first capacitance, and the second dielectric is disposed between a first portion of the first electrode, the first portion not including the at least one protrusion, and the first dielectric, a contact area between the first dielectric and the second dielectric being part of a second capacitor having a second capacitance, and the pressure sensing element has a capacitance which includes the first capacitance and the second capacitance.
A wireless power transmission method executed by a power transmitter, the method comprising monitoring placement and removal of an object on and from an interface surface of the power transmitter; performing digital ping and receiving a response from a power receiver; acquiring configuration information of the power receiver and generating a power transfer contract with the power receiver by using the configuration information; transmitting power to the power receiver based on the power transfer contract; and transmitting indication information for initiating communication with the power receiver to the power receiver, the method being characterised in that the indication information includes request information that the power transmitter requests for the power receiver to acquire an authority to transmit a predetermined packet, and in that the predetermined packet includes a packet including information on a new guaranteed power level of the power transmitter. monitoring placement and removal of an object on and from an interface surface of the power transmitter; performing digital ping and receiving a response from a power receiver; acquiring configuration information of the power receiver and generating a power transfer contract with the power receiver by using the configuration information; transmitting power to the power receiver based on the power transfer contract; and transmitting indication information for initiating communication with the power receiver to the power receiver, the method being characterised in that the indication information includes request information that the power transmitter requests for the power receiver to acquire an authority to transmit a predetermined packet, and in that the predetermined packet includes a packet including information on a new guaranteed power level of the power transmitter.
A method for generating steam comprising: a. providing feedwater having an electrical conductivity of less than 200 μS/cm to an electrode boiler, wherein the electrode boiler has a capacity of at least 5 megawatts; b. converting the feedwater to saturated steam by the electrode boiler, wherein the saturated steam has a pressure in a range from at least 3.5 MPa and up to 14 MPa and a temperature in a range from 240 degrees C and up to 340 degrees C; c. providing the saturated steam as a first fluid to a heat exchange component; d. providing water having an electrical conductivity of more than 200 μS/cm as a second fluid to the heat exchange component; e. heating the second fluid in the heat exchange component through indirect thermal transfer with the saturated steam to generate wet steam having a temperature lower than the temperature of the saturated steam by a range from 2 degrees C and up to 30 degrees C and a pressure in a range from at least 0.5 MPa and up to 13 MPa; f. at least partially condensing the saturated steam in the heat exchange component through indirect thermal transfer with the second fluid to produce a condensed fluid; and h. providing at least a portion of the condensed fluid to the electrode boiler for use as part of the low-conductivity water to generate said saturated steam, wherein at least a portion of the wet steam is provided for injection into a subsurface hydrocarbon formation for hydrocarbon recovery. a. providing feedwater having an electrical conductivity of less than 200 μS/cm to an electrode boiler, wherein the electrode boiler has a capacity of at least 5 megawatts; b. converting the feedwater to saturated steam by the electrode boiler, wherein the saturated steam has a pressure in a range from at least 3.5 MPa and up to 14 MPa and a temperature in a range from 240 degrees C and up to 340 degrees C; c. providing the saturated steam as a first fluid to a heat exchange component; d. providing water having an electrical conductivity of more than 200 μS/cm as a second fluid to the heat exchange component; e. heating the second fluid in the heat exchange component through indirect thermal transfer with the saturated steam to generate wet steam having a temperature lower than the temperature of the saturated steam by a range from 2 degrees C and up to 30 degrees C and a pressure in a range from at least 0.5 MPa and up to 13 MPa; f. at least partially condensing the saturated steam in the heat exchange component through indirect thermal transfer with the second fluid to produce a condensed fluid; and h. providing at least a portion of the condensed fluid to the electrode boiler for use as part of the low-conductivity water to generate said saturated steam,
An expansion anchor, comprises: a bolt, a spacer sleeve, an expansible sleeve, an expanding member, and a collar, being arranged between the expansible sleeve and the spacer sleeve and having the form of a ring-like body, the bolt inserting into the spacer sleeve, the collar and expansible sleeve in sequence, and thread connected to the expanding member at its leading end, to thereby draw the expanding member into the expansible sleeve and expand radially; characterized in that, said collar is formed by a first material and a second material with different hardness, wherein the first material is a tough and breakproof material and the tensile strength of the first material is from 40Mpa to 100Mpa, the second material is a soft, deformable material and the shoreA hardness of the second material is from 40 to 120, and, wherein the first material forms as the inner part of the collar and the second material forms as the outer part of the collar. a bolt, a spacer sleeve, an expansible sleeve, an expanding member, and a collar, being arranged between the expansible sleeve and the spacer sleeve and having the form of a ring-like body, the bolt inserting into the spacer sleeve, the collar and expansible sleeve in sequence, and thread connected to the expanding member at its leading end, to thereby draw the expanding member into the expansible sleeve and expand radially; characterized in that, said collar is formed by a first material and a second material with different hardness, wherein the first material is a tough and breakproof material and the tensile strength of the first material is from 40Mpa to 100Mpa, the second material is a soft, deformable material and the shoreA hardness of the second material is from 40 to 120, and, wherein the first material forms as the inner part of the collar and the second material forms as the outer part of the collar.
An article inspection system comprising: a plurality of endless article conveyors configured to convey articles along a plurality of parallel conveying paths, each article conveyor defining a plurality of discrete article receiving locations; one or more light sources; and one or more lane dividers, each lane divider positioned adjacent one of the conveying paths, each lane divider comprising an elongate housing having a cross-sectional shape in the form of an arch, bell-shape, upturned U or upturned V, the housing comprising one or more light diffusers (74, 75), wherein each light diffuser is positioned substantially at or below the level of the articles when conveyed along the conveying paths so as to illuminate, using light from the one or more light sources, at least side portions of the articles with substantially diffuse light when the articles are conveyed along the conveying paths, each light diffuser comprising an elongate light emitting surface which has a length such that parts of the light emitting surface are substantially adjacent a plurality of the article receiving locations, wherein the plurality of article receiving locations support a plurality of articles when the articles are conveyed down the conveying path; the article inspection system further comprising at least one camera positioned to image articles conveyed along the conveying paths. a plurality of endless article conveyors configured to convey articles along a plurality of parallel conveying paths, each article conveyor defining a plurality of discrete article receiving locations; one or more light sources; and one or more lane dividers, each lane divider positioned adjacent one of the conveying paths, each lane divider comprising an elongate housing having a cross-sectional shape in the form of an arch, bell-shape, upturned U or upturned V, the housing comprising one or more light diffusers (74, 75), wherein each light diffuser is positioned substantially at or below the level of the articles when conveyed along the conveying paths so as to illuminate, using light from the one or more light sources, at least side portions of the articles with substantially diffuse light when the articles are conveyed along the conveying paths, each light diffuser comprising an elongate light emitting surface which has a length such that parts of the light emitting surface are substantially adjacent a plurality of the article receiving locations, wherein the plurality of article receiving locations support a plurality of articles when the articles are conveyed down the conveying path; the article inspection system further comprising at least one camera positioned to image articles conveyed along the conveying paths.