mhurhangee/ep-ind-claims huggingface dataset:
A document verification device for verifying a document, comprising: a detection device for detecting document data of the document; a communication interface, which is configured to retrieve a verification definition from a remote communication server via a communication network, and wherein the verification definition defines at least one verification feature of the document; and a processor, which is configured to verify the verification feature based on the detected document data according to the verification definition in order to verify the document. a detection device for detecting document data of the document; a communication interface, which is configured to retrieve a verification definition from a remote communication server via a communication network, and wherein the verification definition defines at least one verification feature of the document; and a processor, which is configured to verify the verification feature based on the detected document data according to the verification definition in order to verify the document.
An antibody-drug conjugate of the formula: Ab-L-Z-X-D, wherein: - Ab is an anti-TfR antibody, - L is a linker molecule bonded to said antibody, said linker molecule being of formula: wherein n is an integer comprised between 2 and 20, - Z is a dipeptide of valine-citrulline bonded to L, - X is an aminobenzyl ester self-immolative group bonded to Z, - D is a drug bonded to X. - Ab is an anti-TfR antibody, - L is a linker molecule bonded to said antibody, said linker molecule being of formula: wherein n is an integer comprised between 2 and 20, - Z is a dipeptide of valine-citrulline bonded to L, - X is an aminobenzyl ester self-immolative group bonded to Z, - D is a drug bonded to X.
A wireless device comprising: a processor; a communications subsystem coupled to the processor for conducting a wireless call with a second communication device; an audio analysis module coupled to the processor for analyzing audio received by the wireless device; a privacy condition manager coupled to the processor for detecting a privacy condition based on a correlation between the audio and a stored sound profile of a non-private location and sending a privacy condition message to the second communication device; and a display coupled to the processor for displaying privacy condition information received from the second communication device. a processor; a communications subsystem coupled to the processor for conducting a wireless call with a second communication device; an audio analysis module coupled to the processor for analyzing audio received by the wireless device; a privacy condition manager coupled to the processor for detecting a privacy condition based on a correlation between the audio and a stored sound profile of a non-private location and sending a privacy condition message to the second communication device; and a display coupled to the processor for displaying privacy condition information received from the second communication device.
A footwear article, comprising: a first circular-knit layer; a second circular-knit layer coupled to the first circular-knit layer, the second circular-knit layer configured to be disposed adjacent at least a portion of the first circular-knit layer when folded into or around the first circular-knit layer; and a functional layer interposed between the first circular-knit layer and the second circular-knit layer using a fold-over technique, such that, when the second circular-knit layer is folded into or around the first circular-knit layer, the functional layer is trapped between the first circular-knit layer and the second circular-knit layer and comprises a trapped midsole and a knit footbed within the footwear article, wherein the trapped midsole comprises outsole lugs that extend through the first and the second layers, and wherein the first layer or the second layer comprises apertures to allow the outsole lugs of trapped midsole to extend therethrough. a first circular-knit layer; a second circular-knit layer coupled to the first circular-knit layer, the second circular-knit layer configured to be disposed adjacent at least a portion of the first circular-knit layer when folded into or around the first circular-knit layer; and a functional layer interposed between the first circular-knit layer and the second circular-knit layer using a fold-over technique, such that, when the second circular-knit layer is folded into or around the first circular-knit layer, the functional layer is trapped between the first circular-knit layer and the second circular-knit layer and comprises a trapped midsole and a knit footbed within the footwear article, wherein the trapped midsole comprises outsole lugs that extend through the first and the second layers, and wherein the first layer or the second layer comprises apertures to allow the outsole lugs of trapped midsole to extend therethrough.
A light-emitting device comprising first, second, and third pixels capable of respectively emitting in first, second, and third wavelength ranges, wherein: - the first pixel comprises a two-dimensional light-emitting cell comprising a vertical stack of a first doped semiconductor layer of a first conductivity type, of an active layer, and of a second doped semiconductor layer of the second conductivity type; - each of the second and third pixels comprises a three-dimensional light-emitting cell comprising a plurality of nanostructures of same dimensions regularly distributed across the surface of the pixel, each nanostructure comprising a doped pyramidal semiconductor core (111G, 111R) of the first conductivity type, an active layer coating the lateral walls of the core, and a doped semiconductor layer of the second conductivity type coating the active layer; and - the nanostructures of the second and third pixels have different dimensions and/or a different spacing, the device further comprising a substantially planar base semiconductor layer having a surface coated with a substantially planar dielectric masking layer, the masking layer comprising, opposite the first pixel, a single opening laterally delimiting the first semiconductor layer of the first pixel and, opposite each of the second and third pixels, a plurality of openings laterally delimiting the semiconductor cores (111G, 111R) of the second and third pixels, the first semiconductor layer of the first pixel and the semiconductor cores (111G, 111R) of the second and third pixels being arranged on top of and in contact with said surface of the base semiconductor layer, in said openings. - the first pixel comprises a two-dimensional light-emitting cell comprising a vertical stack of a first doped semiconductor layer of a first conductivity type, of an active layer, and of a second doped semiconductor layer of the second conductivity type; - each of the second and third pixels comprises a three-dimensional light-emitting cell comprising a plurality of nanostructures of same dimensions regularly distributed across the surface of the pixel, each nanostructure comprising a doped pyramidal semiconductor core (111G, 111R) of the first conductivity type, an active layer coating the lateral walls of the core, and a doped semiconductor layer of the second conductivity type coating the active layer; and - the nanostructures of the second and third pixels have different dimensions and/or a different spacing,
A method for aggregating storage resources of multiple storage devices (102A, 102B), each storage device including a storage array, the method comprising a first storage device performing the steps of: discovering one or more remote virtual drives associated with one or more remote storage arrays provided by one or more other storage devices; advertising, to the one or more other storage devices, one or more local virtual drives associated with a local storage array of the first storage device; receiving an IO request from a client addressed to one or more of said remote virtual drives associated with one or more remote storage arrays; and transmitting at least one command descriptor block request to the one or more remote storage arrays associated with the one or more virtual drives that are addressed by the IO request from the client, to allocate local cache space at the one or more remote storage arrays; wherein the method further comprises: transmitting the IO request from the first storage device to the one or more remote storage arrays via Remote Direct Memory Access (RDMA). discovering one or more remote virtual drives associated with one or more remote storage arrays provided by one or more other storage devices; advertising, to the one or more other storage devices, one or more local virtual drives associated with a local storage array of the first storage device; receiving an IO request from a client addressed to one or more of said remote virtual drives associated with one or more remote storage arrays; and transmitting at least one command descriptor block request to the one or more remote storage arrays associated with the one or more virtual drives that are addressed by the IO request from the client, to allocate local cache space at the one or more remote storage arrays; wherein the method further comprises: transmitting the IO request from the first storage device to the one or more remote storage arrays via Remote Direct Memory Access (RDMA).
An epoxy resin, which is a reaction product of an epoxy compound and an acid-terminated polyester, wherein the acid-terminated polyester is produced by polycondensation of a polycarboxylic acid and a polyhydric alcohol, and an amount of a diol having a cyclic structure in the polyhydric alcohol is 20mol% or more.
A concentration meter, comprising: a housing having a cavity; an electrode accommodated in the cavity; a permeation membrane that has a measurement surface that contacts a measurement target, a releasing surface that releases the measurement target that enters from the measurement surface into the cavity, and a plurality of holes that open to the measurement surface and the releasing surface, and are for the measurement target to enter, and seals the cavity; an internal liquid that is sealed in the cavity, and contacts the electrode and the permeation membrane; and a main body connection section for electrically connecting the electrode to an endoscope reprocessor main body; characterized in that the concentration meter further comprises: an adjustment section that applies a mechanical load to the permeation membrane so that opening areas of the holes in at least the measurement surface reversibly increase or decrease; and a control section that is connected to the adjustment section, and controls change of strength of the mechanical load that is applied to the permeation membrane, or presence or absence of the mechanical load that is applied to the permeation membrane. a housing having a cavity; an electrode accommodated in the cavity; a permeation membrane that has a measurement surface that contacts a measurement target, a releasing surface that releases the measurement target that enters from the measurement surface into the cavity, and a plurality of holes that open to the measurement surface and the releasing surface, and are for the measurement target to enter, and seals the cavity; an internal liquid that is sealed in the cavity, and contacts the electrode and the permeation membrane; and a main body connection section for electrically connecting the electrode to an endoscope reprocessor main body; characterized in that the concentration meter further comprises: an adjustment section that applies a mechanical load to the permeation membrane so that opening areas of the holes in at least the measurement surface reversibly increase or decrease; and a control section that is connected to the adjustment section, and controls change of strength of the mechanical load that is applied to the permeation membrane, or presence or absence of the mechanical load that is applied to the permeation membrane. an adjustment section that applies a mechanical load to the permeation membrane so that opening areas of the holes in at least the measurement surface reversibly increase or decrease; and a control section that is connected to the adjustment section, and controls change of strength of the mechanical load that is applied to the permeation membrane, or presence or absence of the mechanical load that is applied to the permeation membrane.
A process for the production of a fluorinated olefin comprising CF 3 CH=CFH (HFO-1234ze) comprising dehydrohalogenation of a fluorinated and chlorinated alkane comprising CF 3 CH 2 CHClF (HCFC-244fa), in the presence of a catalyst comprising activated carbon and one or more metal-based catalyst components comprising an alkali metal or alkali earth metal.
A pulse shaper for compensating group runtime effects, comprising: - a first and a second dispersive element, wherein - an optical pulse is coupled to the pulse shaper along a coupling direction such that said pulse exits from the pulse shaper after passing through the first and the second dispersive element along an exit direction, and - the first and the second dispersive element are formed and arranged to be movable relative to each other such that the path length to be traversed by the optical pulse through the first and the second dispersive element after coupling to the pulse shaper can be adjusted without any change in an offset (Δy) between the coupling direction and the exit direction caused by the dispersion properties of the first and the second dispersive element, - wherein the first and the second dispersive element each are formed in the shape of a wedge (11, 12), characterized in that the first and the second dispersive element are arranged in such a way that the shape of the optical pulse experiences a change as the pulse travels through the pulse shaper, which is caused mainly or exclusively by the group velocity dispersion occurring during passage through the first and/or the second dispersive element, wherein the first and the second dispersive element form a first pair and the pulse shaper in addition includes a second pair of dispersive elements. - a first and a second dispersive element, wherein - an optical pulse is coupled to the pulse shaper along a coupling direction such that said pulse exits from the pulse shaper after passing through the first and the second dispersive element along an exit direction, and - the first and the second dispersive element are formed and arranged to be movable relative to each other such that the path length to be traversed by the optical pulse through the first and the second dispersive element after coupling to the pulse shaper can be adjusted without any change in an offset (Δy) between the coupling direction and the exit direction caused by the dispersion properties of the first and the second dispersive element, - wherein the first and the second dispersive element each are formed in the shape of a wedge (11, 12),
A method performed by a master base station in a wireless communication system, the method comprising: transmitting, to a secondary base station, a secondary base station addition request message including a quality of service, QoS, flow identifier, a protocol data unit, PDU, session identifier associated with the QoS flow identifier and a QoS policy associated with the QoS flow identifier; receiving, from the secondary base station, a secondary base station addition response message including the QoS flow identifier, the PDU session identifier associated with the QoS flow identifier, transport layer information associated with data reception and a radio resource control, RRC, container including configuration information of a secondary cell associated with the secondary base station; and transmitting, to a core network entity, a modification request message including the QoS flow identifier, the PDU session identifier associated with the QoS flow identifier and the transport layer information associated with the data reception. transmitting, to a secondary base station, a secondary base station addition request message including a quality of service, QoS, flow identifier, a protocol data unit, PDU, session identifier associated with the QoS flow identifier and a QoS policy associated with the QoS flow identifier; receiving, from the secondary base station, a secondary base station addition response message including the QoS flow identifier, the PDU session identifier associated with the QoS flow identifier, transport layer information associated with data reception and a radio resource control, RRC, container including configuration information of a secondary cell associated with the secondary base station; and transmitting, to a core network entity, a modification request message including the QoS flow identifier, the PDU session identifier associated with the QoS flow identifier and the transport layer information associated with the data reception.
A method for control of a heating, ventilation and/or air-conditioning installation having at least two heat exchangers (10 - 12) and at least two sensors (16 - 18), the at least two heat exchangers (10 - 12) each comprising an electromechanical valve (7 - 9), the electromechanical valves (7 - 9) each being associated with one of the at least two sensors (16 - 18), each of the electromechanical valves (7 - 9) being movable between an open position allowing flow of a fluid through its heat exchanger (10 - 12) and a closed position obturating flow of a fluid through its heat exchanger (10 - 12); the method comprising the steps of: reading a time series of position signals from each of the electromechanical valves (7 - 9); extracting a characterized position from each time series and rescaling the characterized position; reading one or more sensor signals from each of the at least two sensors (16 - 18); deriving for each of the at least two sensors (16 - 18) a physical quantity from the one or more sensor signals and a deviation measure indicative of a deviation of the physical quantity from a target value; determining a balance measure by averaging the deviation measures; producing an upper limit position for each of the electromechanical valves (7 - 9) based on the rescaled characterized positions and based on the deviation measures and based on the balance measure such that for each of the at least two sensors (16 - 18) the deviation measure approaches the balance measure; and moving at least one of the electromechanical valves (7 - 9) between the closed position and the upper limit position produced for the at least one electromechanical valve (7 - 9). reading a time series of position signals from each of the electromechanical valves (7 - 9); extracting a characterized position from each time series and rescaling the characterized position; reading one or more sensor signals from each of the at least two sensors (16 - 18); deriving for each of the at least two sensors (16 - 18) a physical quantity from the one or more sensor signals and a deviation measure indicative of a deviation of the physical quantity from a target value; determining a balance measure by averaging the deviation measures; producing an upper limit position for each of the electromechanical valves (7 - 9) based on the rescaled characterized positions and based on the deviation measures and based on the balance measure such that for each of the at least two sensors (16 - 18) the deviation measure approaches the balance measure; and moving at least one of the electromechanical valves (7 - 9) between the closed position and the upper limit position produced for the at least one electromechanical valve (7 - 9).
A tool, comprising: a. an arcuate tool head; b. an aperture defined through said head for receiving first tab means of a fitting, said aperture having a first tab contacting face and a second tab contacting face spaced therefrom; c. an abutment surface on said head and spaced from said aperture for abutting second tab means adjacent said first tab means in use; d. an arcuate projection formed on said second tab contacting face and extending into an area of said aperture; and e. a lever member extending from said tool head adapted to receive handle means or act as an impact surface for imparting leverage to said head; wherein, in an improper position in which the projection is abutting against the first tab means, the projection causes disengagement of the tool head from the fitting when torque is applied. a. an arcuate tool head; b. an aperture defined through said head for receiving first tab means of a fitting, said aperture having a first tab contacting face and a second tab contacting face spaced therefrom; c. an abutment surface on said head and spaced from said aperture for abutting second tab means adjacent said first tab means in use; d. an arcuate projection formed on said second tab contacting face and extending into an area of said aperture; and e. a lever member extending from said tool head adapted to receive handle means or act as an impact surface for imparting leverage to said head; wherein, in an improper position in which the projection is abutting against the first tab means, the projection causes disengagement of the tool head from the fitting when torque is applied.
A wireless charging receiver, comprising: a controller, configured to dynamically detect information of a wireless power transmitter which provides power for a portable device via the wireless charging receiver; and a setting circuit, coupled to the controller, configured to dynamically generate at least one power configuration signal on at least one signal path of a communication interface between the wireless charging receiver and the portable device according to the detected information of the wireless power transmitter, to limit a maximum charging current provided from the wireless charging receiver to the portable device at a specific charging current level, characterized in that the setting circuit is arranged to generate a set of power configuration signal on data ports D+ and D- of the communication interface between the wireless charging receiver and the portable device according to the detected information of the wireless power transmitter. a controller, configured to dynamically detect information of a wireless power transmitter which provides power for a portable device via the wireless charging receiver; and a setting circuit, coupled to the controller, configured to dynamically generate at least one power configuration signal on at least one signal path of a communication interface between the wireless charging receiver and the portable device according to the detected information of the wireless power transmitter, to limit a maximum charging current provided from the wireless charging receiver to the portable device at a specific charging current level, characterized in that the setting circuit is arranged to generate a set of power configuration signal on data ports D+ and D- of the communication interface between the wireless charging receiver and the portable device according to the detected information of the wireless power transmitter.
Indiocyanine green for use in a diagnosis method "in vivo" for an angiogenesis or inflammation, which involves imaging at least one plaque structure of an anatomical structure, comprising: providing the ICG to the at least one plaque structure; and determining whether the at least one plaque structure includes at least one of the angiogenesis and inflammation based on fluorescence caused by interaction between the ICG agent and the at least one plaque structure. providing the ICG to the at least one plaque structure; and determining whether the at least one plaque structure includes at least one of the angiogenesis and inflammation based on fluorescence caused by interaction between the ICG agent and the at least one plaque structure.