mhurhangee/ep-ind-claims huggingface dataset:
A spectrometer comprising: a detector including: a collector (120, 220, 320) having a first side and a second side, the first side being configured to detect ions that drifted toward the collector; a dielectric element (128, 228) proximate the second side; an amplifier (226, 326, 426) having an input (234, 236) and an output, wherein the collector (120, 220, 320) is coupled with the input (234, 236) of the amplifier (226, 326, 426); and a capacitive plate element (132, 232, 432) proximate the dielectric element (128, 228) and opposite the collector (120, 220, 320), the capacitive plate element (132, 232, 432) being coupled with the output of the amplifier (226, 326, 426), characterised in that the collector (120, 220, 320), the dielectric element (128, 228), and the capacitive plate element (132, 232, 432) are configured to function as a capacitor in a feedback loop of the amplifier (226, 326, 426). a collector (120, 220, 320) having a first side and a second side, the first side being configured to detect ions that drifted toward the collector; a dielectric element (128, 228) proximate the second side; an amplifier (226, 326, 426) having an input (234, 236) and an output, wherein the collector (120, 220, 320) is coupled with the input (234, 236) of the amplifier (226, 326, 426); and a capacitive plate element (132, 232, 432) proximate the dielectric element (128, 228) and opposite the collector (120, 220, 320), the capacitive plate element (132, 232, 432) being coupled with the output of the amplifier (226, 326, 426),
An electrosurgical generator comprising: an H-bridge; and a tank driven by the H-bridge, the tank including: a transformer having a primary winding and a secondary winding, the secondary winding including a first coil and a second coil; characterised in that the tank further includes a capacitor connected in series between the first coil and the second coil, wherein the capacitor is placed across a common mode plane (X-X) for mitigating a current or charge imbalance between active and return terminals (214,216) of the electrosurgical generator, thus reducing any common mode currents and high frequency leakage. an H-bridge; and a tank driven by the H-bridge, the tank including: a transformer having a primary winding and a secondary winding, the secondary winding including a first coil and a second coil; characterised in that the tank further includes a capacitor connected in series between the first coil and the second coil, wherein the capacitor is placed across a common mode plane (X-X) for mitigating a current or charge imbalance between active and return terminals (214,216) of the electrosurgical generator, thus reducing any common mode currents and high frequency leakage. a transformer having a primary winding and a secondary winding, the secondary winding including a first coil and a second coil; characterised in that the tank further includes a capacitor connected in series between the first coil and the second coil, wherein the capacitor is placed across a common mode plane (X-X) for mitigating a current or charge imbalance between active and return terminals (214,216) of the electrosurgical generator, thus reducing any common mode currents and high frequency leakage.
A radio frequency identification reader assembly, comprising: a portable reader, including: reader circuitry configured to generate an activation signal; a first antenna, where the first antenna is electrically connected to the reader circuitry; and a reader housing containing the reader circuitry and the first antenna; the radio frequency identification reader assembly characterized by: an extension antenna including: an elongated housing; a second antenna located at one end of the housing; and a third antenna located at the opposite end of the housing, where the second antenna is electrically connected to the third antenna; and a mechanical coupler configured to fix one end of the elongated housing of the extension antenna to the housing of the portable reader, wherein the first antenna and second antenna are inductively coupled when the extension antenna is fixed to the housing of the portable reader by the mechanical coupler. reader circuitry configured to generate an activation signal; a first antenna, where the first antenna is electrically connected to the reader circuitry; and a reader housing containing the reader circuitry and the first antenna; an elongated housing; a second antenna located at one end of the housing; and a third antenna located at the opposite end of the housing, where the second antenna is electrically connected to the third antenna; and a mechanical coupler configured to fix one end of the elongated housing of the extension antenna to the housing of the portable reader, wherein the first antenna and second antenna are inductively coupled when the extension antenna is fixed to the housing of the portable reader by the mechanical coupler.
A cement comprising: - from 90% to 100% (w/w) of a clinker containing • from 50% to 80% (w/w) of C 3 S; • from 4% to 40% (w/w) of C 2 S; • from 0% to 20% (w/w) of C 4 AF; and • from 0% to 2% (w/w) of C 3 A; - from 0% to 10% (w/w) of silica fume; and - less than 1.5% (w/w) of $; excluding cements comprising: - 90% (w/w) of clinker containing • 55% (w/w) of C 3 S; • 20% (w/w) of C 2 S; • 15.2% (w/w) of C 4 AF; and • 1.6% (w/w) of C 3 A; - and 10% (w/w) of silica fume. - from 90% to 100% (w/w) of a clinker containing • from 50% to 80% (w/w) of C 3 S; • from 4% to 40% (w/w) of C 2 S; • from 0% to 20% (w/w) of C 4 AF; and • from 0% to 2% (w/w) of C 3 A; • from 50% to 80% (w/w) of C 3 S; • from 4% to 40% (w/w) of C 2 S; • from 0% to 20% (w/w) of C 4 AF; and • from 0% to 2% (w/w) of C 3 A; - from 0% to 10% (w/w) of silica fume; and - less than 1.5% (w/w) of $; - 90% (w/w) of clinker containing • 55% (w/w) of C 3 S; • 20% (w/w) of C 2 S; • 15.2% (w/w) of C 4 AF; and • 1.6% (w/w) of C 3 A; • 55% (w/w) of C 3 S; • 20% (w/w) of C 2 S; • 15.2% (w/w) of C 4 AF; and • 1.6% (w/w) of C 3 A; - and 10% (w/w) of silica fume.
A computer-implemented method, comprising: displaying, on a touch-sensitive display, an image of a scene to be captured, wherein the image of the scene to be captured includes a series of frames displaying the image; receiving a selection of a portion of the displayed scene and defining an area of focus to the portion; automatically setting auto exposure settings for the image based on the selected portion of the displayed scene; displaying, on the touch-sensitive display, the scene frames according to the auto-exposure settings; displaying, on the touch-sensitive display, an adjustment element; receiving, on the touch-sensitive display, an adjustment gesture using the adjustment element, wherein receiving an adjustment gesture comprises receiving a slide gesture on the touch-sensitive display; and adjusting the auto-exposure settings for the entire image for each of the frames, by applying the manual adjustment of the auto-exposure settings for the selected portion of the displayed scene to the entire image, adjusting the scene frames displayed on the touch-sensitive display using the adjusted auto-exposure settings; characterised in that: a degree of adjustment of the auto-exposure settings depends, at least in part, on a speed of the slide gesture. displaying, on a touch-sensitive display, an image of a scene to be captured, wherein the image of the scene to be captured includes a series of frames displaying the image; receiving a selection of a portion of the displayed scene and defining an area of focus to the portion; automatically setting auto exposure settings for the image based on the selected portion of the displayed scene; displaying, on the touch-sensitive display, the scene frames according to the auto-exposure settings; displaying, on the touch-sensitive display, an adjustment element; receiving, on the touch-sensitive display, an adjustment gesture using the adjustment element, wherein receiving an adjustment gesture comprises receiving a slide gesture on the touch-sensitive display; and adjusting the auto-exposure settings for the entire image for each of the frames, by applying the manual adjustment of the auto-exposure settings for the selected portion of the displayed scene to the entire image, adjusting the scene frames displayed on the touch-sensitive display using the adjusted auto-exposure settings; characterised in that: a degree of adjustment of the auto-exposure settings depends, at least in part, on a speed of the slide gesture.
System for air conditioning in a compartment of a vehicle, the said system comprising at least: - a first heat exchanger situated outside the said compartment; - a second heat exchanger situated inside the said compartment and able to collect heat energy from or transfer heat energy to the air circulating in the said compartment; - at least a third heat exchanger (17, 24') able to transfer heat energy to the air circulating in the said compartment; - a compressor; - a circuit for circulating a heat-transfer fluid; characterized in that the said circuit comprises a five-way valve configured to allow connection between: - the inlet of the said compressor and the outlet of the said second heat exchanger; - the inlet of the said compressor and the outlet of the said first heat exchanger; - the outlet of the said compressor and the inlet of the said first heat exchanger; - the outlet of the said compressor and the inlet of the said second heat exchanger; the said at least one third heat exchanger (17, 24') being interposed between the said five-way valve and the outlet of the said compressor and/or between the said five-way valve and the inlet of the said second heat exchanger. - a first heat exchanger situated outside the said compartment; - a second heat exchanger situated inside the said compartment and able to collect heat energy from or transfer heat energy to the air circulating in the said compartment; - at least a third heat exchanger (17, 24') able to transfer heat energy to the air circulating in the said compartment; - a compressor; - a circuit for circulating a heat-transfer fluid; - the inlet of the said compressor and the outlet of the said second heat exchanger; - the inlet of the said compressor and the outlet of the said first heat exchanger; - the outlet of the said compressor and the inlet of the said first heat exchanger; - the outlet of the said compressor and the inlet of the said second heat exchanger;
A method of generation of a single point calibration value, comprising: a) contacting a capture analyte-binding molecule with a predetermined concentration of tracer analyte labeled with a first label and a predetermined concentration of detection analyte-binding molecule labeled with a second label, wherein the capture analyte-binding molecule and the detection analyte-binding molecule concurrently bind to the tracer analyte under conditions which allow for the formation of a capture analyte-binding molecule /tracer analyte/detection analyte- binding molecule complex; b) measuring the signal intensities obtained of the first label ( I 1 0) and of the second label ( I 2 0) in the capture analyte-binding molecule /tracer analyte/detection analyte-binding molecule complex; and c) determining a correction factor as the ratio of the intensity of the second label ( I 2 0) to the intensity of the first label ( I 1 0). a) contacting a capture analyte-binding molecule with a predetermined concentration of tracer analyte labeled with a first label and a predetermined concentration of detection analyte-binding molecule labeled with a second label, wherein the capture analyte-binding molecule and the detection analyte-binding molecule concurrently bind to the tracer analyte under conditions which allow for the formation of a capture analyte-binding molecule /tracer analyte/detection analyte- binding molecule complex; b) measuring the signal intensities obtained of the first label ( I 1 0) and of the second label ( I 2 0) in the capture analyte-binding molecule /tracer analyte/detection analyte-binding molecule complex; and c) determining a correction factor as the ratio of the intensity of the second label ( I 2 0) to the intensity of the first label ( I 1 0).
A method of operating a home subscriber server, HSS, in a wireless communication system, wherein the method comprises: receiving an Update Location Request, ULR, from a Mobility Management Entity, MME, having received an attach request transmitted from an User Equipment, UE; wherein the ULR comprises at least one of information indicating whether the MME belongs to a dedicated core network and information indicating, if the MME belongs to a dedicated core network, whether the MME belongs to a prescribed type of dedicated core network, and characterised by determining whether it is appropriate for the MME to service the UE based on said information comprised in the ULR; and receiving a message for requesting routing information from a Short Message Service-gateway Mobile Switching Centre, SMS-GMSC, wherein if it is determined that it is not appropriate for the MME to service the UE, the HSS does not provide information on the MME to the SMS-GMSC in response to the requesting message. receiving an Update Location Request, ULR, from a Mobility Management Entity, MME, having received an attach request transmitted from an User Equipment, UE; wherein the ULR comprises at least one of information indicating whether the MME belongs to a dedicated core network and information indicating, if the MME belongs to a dedicated core network, whether the MME belongs to a prescribed type of dedicated core network, and characterised by determining whether it is appropriate for the MME to service the UE based on said information comprised in the ULR; and receiving a message for requesting routing information from a Short Message Service-gateway Mobile Switching Centre, SMS-GMSC, wherein if it is determined that it is not appropriate for the MME to service the UE, the HSS does not provide information on the MME to the SMS-GMSC in response to the requesting message.
An electrode suitable for use in a discharge lamp, which electrode comprises - an inner structured zone in an inner portion of the electrode, which inner portion adapted to be embedded in a pinch of the discharge lamp between a conductive foil and a discharge chamber of the lamp; and - an outer structured zone formed over an outer end portion of the electrode that will overlap the conductive foil when embedded in the pinch, wherein the outer structured zone is different from the inner structured zone, and wherein each structured zone (ZA, ZB) comprises a number of recesses (21A, 21B) formed in the surface of the electrode. - an inner structured zone in an inner portion of the electrode, which inner portion adapted to be embedded in a pinch of the discharge lamp between a conductive foil and a discharge chamber of the lamp; and - an outer structured zone formed over an outer end portion of the electrode that will overlap the conductive foil when embedded in the pinch, wherein the outer structured zone is different from the inner structured zone, and wherein each structured zone (ZA, ZB) comprises a number of recesses (21A, 21B) formed in the surface of the electrode.
An auditory prosthesis (1, 101) for middle-ear comprising a portion configured to contact the tympanic membrane, wherein said portion comprises a substrate provided with a coating, wherein said coating is integrally fixed to said substrate and is adapted to contact, at least partially, the tympanic membrane; characterized in that the coating is made of biocompatible silicone and in that the coating is silanized.
A method for providing a Virtual Network Function, VNF, for deployment in a Network Function Virtualization Infrastructure, NFVI, comprising: obtaining an input including a description of available software components, configuration requirements specifying service types to be provided by the VNF, and infrastructure information specifying resources provided by the NFVI, wherein the infrastructure information includes characteristics of virtual machines, VMs; generating, for each service type, a VNF component, VNFC, configuration that optimizes usage of the resources and satisfies a requested service availability; forming a VNF configuration including a collection of VNFC configurations generated for the service types; and delivering the VNF configuration to a Network Function Virtualization, NFV, system for the deployment of VNFC instances on the VMs thereby providing the VNF, wherein generating the VNFC configuration that optimizes the usage of the resources further comprises: generating candidate configurations for each service type; and selecting, from the candidate configurations generated for each service type, the VNFC configuration that uses a minimum number of physical hosts, wherein the method further comprises determining a maximum number of service instances, SIs, collocated per VM that satisfies the requested service availability. obtaining an input including a description of available software components, configuration requirements specifying service types to be provided by the VNF, and infrastructure information specifying resources provided by the NFVI, wherein the infrastructure information includes characteristics of virtual machines, VMs; generating, for each service type, a VNF component, VNFC, configuration that optimizes usage of the resources and satisfies a requested service availability; forming a VNF configuration including a collection of VNFC configurations generated for the service types; and delivering the VNF configuration to a Network Function Virtualization, NFV, system for the deployment of VNFC instances on the VMs thereby providing the VNF, wherein generating the VNFC configuration that optimizes the usage of the resources further comprises: generating candidate configurations for each service type; and selecting, from the candidate configurations generated for each service type, the VNFC configuration that uses a minimum number of physical hosts, wherein the method further comprises determining a maximum number of service instances, SIs, collocated per VM that satisfies the requested service availability. generating candidate configurations for each service type; and selecting, from the candidate configurations generated for each service type, the VNFC configuration that uses a minimum number of physical hosts, wherein the method further comprises determining a maximum number of service instances, SIs, collocated per VM that satisfies the requested service availability.
A method for recovering carbon dioxide in a plant for synthesizing methanol from a hydrocarbon gas, the method comprising: a reforming step of producing a reformed gas by a steam reforming reaction of a hydrocarbon gas; a methanol synthesis step of synthesizing methanol from the reformed gas; a combustion step of combusting a fuel gas to obtain a heat source of the steam reforming reaction; a carbon dioxide recovery step of recovering carbon dioxide, using an absorption liquid, from a combustion exhaust gas generated by the combustion; a step of obtaining a plurality of reformed gas heating media or reformed gas and methanol heating media of different temperatures from the reformed gas, or the reformed gas and the methanol, wherein at least a first heating medium of the plurality of heating media of different temperatures has a temperature of from 115 to 140°C, and a second heating medium has a temperature of from 90 to 110°C; and an absorption liquid regeneration step of regenerating the absorption liquid by heating stepwise the absorption liquid having carbon dioxide absorbed therein to remove carbon dioxide from the absorption liquid, the stepwise heating being performed utilizing the plurality of heating media of different temperatures, wherein the stepwise heating comprises heating the absorption liquid by the first heating medium in a first reboiler positioned at a bottom of a regeneration column and heating the absorption liquid by the second heating medium in a second reboiler positioned in a middle of the regeneration column. a reforming step of producing a reformed gas by a steam reforming reaction of a hydrocarbon gas; a methanol synthesis step of synthesizing methanol from the reformed gas; a combustion step of combusting a fuel gas to obtain a heat source of the steam reforming reaction; a carbon dioxide recovery step of recovering carbon dioxide, using an absorption liquid, from a combustion exhaust gas generated by the combustion; a step of obtaining a plurality of reformed gas heating media or reformed gas and methanol heating media of different temperatures from the reformed gas, or the reformed gas and the methanol, wherein at least a first heating medium of the plurality of heating media of different temperatures has a temperature of from 115 to 140°C, and a second heating medium has a temperature of from 90 to 110°C; and an absorption liquid regeneration step of regenerating the absorption liquid by heating stepwise the absorption liquid having carbon dioxide absorbed therein to remove carbon dioxide from the absorption liquid, the stepwise heating being performed utilizing the plurality of heating media of different temperatures, wherein the stepwise heating comprises heating the absorption liquid by the first heating medium in a first reboiler positioned at a bottom of a regeneration column and heating the absorption liquid by the second heating medium in a second reboiler positioned in a middle of the regeneration column.
Method for operating a vehicle brake system which has at least one brake pad and a friction partner that interacts therewith, wherein an electronic control unit detects a state on the vehicle and, in a manner dependent on the state, initiates a pressing action between brake pad and friction partner such that substantially no perceptible vehicle deceleration occurs, characterized in that the electronic control unit detects, as a state, a change between forward and reverse travel.
A MEMS device, comprising: a substrate having at least an anchor electrode, an RF electrode and a pull-down electrode disposed therein, a switching element disposed over the substrate, the switching element electrically coupled to the anchor electrode and movable from a first position spaced a first distance from the RF electrode and a second position spaced a second distance from the RF electrode, wherein the second distance is less than the first distance; and a dielectric layer disposed over the pull-down electrode; characterised in that the pull-down electrode has a plurality of islands disposed therein, wherein the plurality of islands are electrically isolated from the pull-down electrode, and contact stoppers are disposed on the dielectric layer at locations corresponding to the islands. a substrate having at least an anchor electrode, an RF electrode and a pull-down electrode disposed therein, a switching element disposed over the substrate, the switching element electrically coupled to the anchor electrode and movable from a first position spaced a first distance from the RF electrode and a second position spaced a second distance from the RF electrode, wherein the second distance is less than the first distance; and a dielectric layer disposed over the pull-down electrode; characterised in that the pull-down electrode has a plurality of islands disposed therein, wherein the plurality of islands are electrically isolated from the pull-down electrode, and contact stoppers are disposed on the dielectric layer at locations corresponding to the islands.