mhurhangee/patent-ind-claim-en huggingface dataset:
An encoding device comprising: a sub-band dividing unit configured to divide a frequency band of an input signal and generate a first sub-band signal of a first sub-band on a high frequency side of the input signal; a first sub-band power calculation unit configured to calculate first sub-band power of the first sub-band signal based on the first sub-band signal; a second sub-band power calculation unit configured to carry out an operation to weight more the first sub-band power having larger power, and calculate second sub-band power of a second sub-band signal including a number of sub-bands arrayed continuously in a frequency direction; a generating unit configured to generate data to obtain, by estimating, a high frequency signal of the input signal based on the second sub-band power; a low frequency encoding unit configured encode a low frequency signal of the input signal to generate low frequency encoded data; a multiplexing unit configured to multiplex the data and the low frequency encoded data to generate an output code string; and a pseudo high frequency sub-band power calculation unit configured to calculate pseudo high frequency sub-band power which is an estimated value of the second sub-band power based on the input signal or a feature amount obtained from the low frequency signal, wherein the generating unit generates the data by comparing the second sub-band power with the pseudo high frequency sub-band power. a sub-band dividing unit configured to divide a frequency band of an input signal and generate a first sub-band signal of a first sub-band on a high frequency side of the input signal; a first sub-band power calculation unit configured to calculate first sub-band power of the first sub-band signal based on the first sub-band signal; a second sub-band power calculation unit configured to carry out an operation to weight more the first sub-band power having larger power, and calculate second sub-band power of a second sub-band signal including a number of sub-bands arrayed continuously in a frequency direction; a generating unit configured to generate data to obtain, by estimating, a high frequency signal of the input signal based on the second sub-band power; a low frequency encoding unit configured encode a low frequency signal of the input signal to generate low frequency encoded data; a multiplexing unit configured to multiplex the data and the low frequency encoded data to generate an output code string; and a pseudo high frequency sub-band power calculation unit configured to calculate pseudo high frequency sub-band power which is an estimated value of the second sub-band power based on the input signal or a feature amount obtained from the low frequency signal, wherein the generating unit generates the data by comparing the second sub-band power with the pseudo high frequency sub-band power.
A method of diagnosis or prognosis of endometrial carcinoma, the method comprising determining the level of expression of PERM in an isolated fluid sample from the female genital tract.
A method of determining the presence or absence in a sample of a biomarker, the method comprising: (a) providing a porous substrate positioned within a housing, the porous substrate carrying an antigen selected from mycolic acids, derivatives and salts of mycolic acids and wax esters analogous to mycolic acids; (b) contacting a surface of the substrate with the sample, the sample passing through the substrate to an opposite surface of the substrate; (c) contacting the substrate with a composition comprising colloidal gold particles wherein the colloidal gold particles carry a secondary antibody; and (d) observing the substrate, wherein when the biomarker is present in the sample a colour change in the region of the substrate which carries the antigen is observed; wherein the antigen is at least 90% pure; and wherein the substrate is positioned within the housing to enable the sample to pass through the substrate from one surface of the substrate to the opposite surface. (a) providing a porous substrate positioned within a housing, the porous substrate carrying an antigen selected from mycolic acids, derivatives and salts of mycolic acids and wax esters analogous to mycolic acids; (b) contacting a surface of the substrate with the sample, the sample passing through the substrate to an opposite surface of the substrate; (c) contacting the substrate with a composition comprising colloidal gold particles wherein the colloidal gold particles carry a secondary antibody; and (d) observing the substrate, wherein when the biomarker is present in the sample a colour change in the region of the substrate which carries the antigen is observed; wherein the antigen is at least 90% pure; and wherein the substrate is positioned within the housing to enable the sample to pass through the substrate from one surface of the substrate to the opposite surface.
A method comprising: identifying a process model and associated uncertainties representing an industrial process , the industrial process comprises a pH neutralization process , the identification of the process model comprises: obtaining a nominal process model and linearizing the nominal process model at different pH values to identify multiple transfer functions, the transfer functions having similar time constants and different steady-state gains; obtaining controller specifications for an industrial process controller ; identifying a controller design comprising one or more parameters for the industrial process controller using the process model, the uncertainties associated with the process model, and the one or more parameters, the controller design of the industrial process controller is configured to cause the industrial process controller to control a pH of one or more materials in the pH neutralization process; validating the controller design of the industrial process controller for use in a closed-loop control system; and deploying the controller design if validated to the industrial process controller. identifying a process model and associated uncertainties representing an industrial process , the industrial process comprises a pH neutralization process , the identification of the process model comprises: obtaining a nominal process model and linearizing the nominal process model at different pH values to identify multiple transfer functions, the transfer functions having similar time constants and different steady-state gains; obtaining controller specifications for an industrial process controller ; identifying a controller design comprising one or more parameters for the industrial process controller using the process model, the uncertainties associated with the process model, and the one or more parameters, the controller design of the industrial process controller is configured to cause the industrial process controller to control a pH of one or more materials in the pH neutralization process; validating the controller design of the industrial process controller for use in a closed-loop control system; and deploying the controller design if validated to the industrial process controller.
A telescoping panel door system for an aircraft compartment, comprising: a door frame; a first panel configured for hinged connection to the door frame; a second panel adapted to move with respect to and slideably extend from the first panel; and at least one fixed-length linkage hingedly attached to the door frame and the second panel; characterised by at least one elongate aperture in an edge of the first panel, the at least one fixed-length linkage being attached to the second panel through the at least one elongate aperture; wherein the second panel is adapted to slideably extend from and retract within the first panel; wherein the door frame, first and second panels, at least one fixed length linkage, and at least one elongate aperture are configured such that in a closed operational position, the second panel is extended from an interior of the first panel, the first and second panels cooperate to completely cover an opening defined by the door frame, and the fixed-length linkage is generally parallel to the plane defined by the door frame, and in an open operational position, the second panel is retracted into the interior of the first panel by operation of the first linkage and the first and second panels are nested to reduce a distanced spanned by the first panel and second panel. a first panel configured for hinged connection to the door frame; a second panel adapted to move with respect to and slideably extend from the first panel; and at least one fixed-length linkage hingedly attached to the door frame and the second panel; characterised by at least one elongate aperture in an edge of the first panel, the at least one fixed-length linkage being attached to the second panel through the at least one elongate aperture; wherein the second panel is adapted to slideably extend from and retract within the first panel; wherein the door frame, first and second panels, at least one fixed length linkage, and at least one elongate aperture are configured such that in a closed operational position, the second panel is extended from an interior of the first panel, the first and second panels cooperate to completely cover an opening defined by the door frame, and the fixed-length linkage is generally parallel to the plane defined by the door frame, and in an open operational position, the second panel is retracted into the interior of the first panel by operation of the first linkage and the first and second panels are nested to reduce a distanced spanned by the first panel and second panel.
A method of wireless communications performed by a user equipment, UE, comprising: transmitting a UE band combination constraint information to the base station; receiving , at a modem of the UE from a base station and in response to the transmitting of the UE band combination constraint information, a UE configuration based on the UE band combination constraint information, wherein the UE configuration includes a carrier aggregation combination and baseband processing combination configuration; configuring the UE, by a processor of the UE, according to the carrier aggregation combination and baseband processing combination configuration; performing a communication with the base station, via the modem of the UE, according to the carrier aggregation combination and baseband processing combination configuration; and wherein transmitting the UE band combination constraint information further comprises transmitting, to the base station, a total number of layers supported in a carrier aggregation band combination. transmitting a UE band combination constraint information to the base station; receiving , at a modem of the UE from a base station and in response to the transmitting of the UE band combination constraint information, a UE configuration based on the UE band combination constraint information, wherein the UE configuration includes a carrier aggregation combination and baseband processing combination configuration; configuring the UE, by a processor of the UE, according to the carrier aggregation combination and baseband processing combination configuration; performing a communication with the base station, via the modem of the UE, according to the carrier aggregation combination and baseband processing combination configuration; and wherein transmitting the UE band combination constraint information further comprises transmitting, to the base station, a total number of layers supported in a carrier aggregation band combination.
Applicator for cosmetic product, comprising a core extending along a longitudinal extension direction (X), called main direction, and a plurality of protrusions integral with the core , the protrusions extending from a proximal end connected to the core to a free distal end along an elongation direction so as to define a length (L), wherein at least some of the protrusions , called non-linear protrusions, has a non-linear generator over at least some of its length (L), and wherein at least some of said non-linear protrusions are implanted to constitute a plurality of groups in each of which said non-linear protrusions are arranged so as to delimit centrally a space (V) forming a cosmetic product reservoir, the group of protuberances comprising at least three non-linear protrusions, characterised in that all or some of the non-linear protrusions have at least one helicoidal winding over at least some of their length (L), called helicoidal winding portion , the helicoidal winding 9 being substantially in the same direction and in the same step such that the protrusions appear twisted together.
A semiconductor device comprising: a semiconductor substrate; and a plurality of wiring layers (M1, M2, M3, M4) formed over the semiconductor substrate and including at least a first wiring layer (M1) and a second wiring layer (M4), wherein a resistance element is formed in the wiring layers (M1, M2, M3, M4), wherein the resistance element has a repetitive pattern of a first conductive layer formed in the first wiring layer (M1), a second conductive layer formed in the second wiring layer (M4), and an interlayer conductive layer coupling the first conductive layer and the second conductive layer together, wherein a resistance value of the interlayer conductive layer is greater than the sum of a resistance value of the first conductive layer and a resistance value of the second conductive layer , wherein in the first wiring layer (M1), the lengthwise direction of the first conductive layer is taken as a first direction (x) and a direction perpendicular to the first direction (x) is taken as a second direction (y), wherein a plurality of the interlayer conductive layers included in the resistance element are arranged in a matrix pattern in the first direction (x) and the second direction (y), and characterized in that the interlayer conductive layers are coupled in the first direction (x) by first and second conductive layers of the resistance element forming rows in the first direction (x), which are connected to one another at alternating ends via first conductive layers coupling interlayer conductive layers in the second direction (y). a semiconductor substrate; and a plurality of wiring layers (M1, M2, M3, M4) formed over the semiconductor substrate and including at least a first wiring layer (M1) and a second wiring layer (M4), wherein a resistance element is formed in the wiring layers (M1, M2, M3, M4), wherein the resistance element has a repetitive pattern of a first conductive layer formed in the first wiring layer (M1), a second conductive layer formed in the second wiring layer (M4), and an interlayer conductive layer coupling the first conductive layer and the second conductive layer together, wherein a resistance value of the interlayer conductive layer is greater than the sum of a resistance value of the first conductive layer and a resistance value of the second conductive layer , wherein in the first wiring layer (M1), the lengthwise direction of the first conductive layer is taken as a first direction (x) and a direction perpendicular to the first direction (x) is taken as a second direction (y), wherein a plurality of the interlayer conductive layers included in the resistance element are arranged in a matrix pattern in the first direction (x) and the second direction (y), and characterized in that the interlayer conductive layers are coupled in the first direction (x) by first and second conductive layers of the resistance element forming rows in the first direction (x), which are connected to one another at alternating ends via first conductive layers coupling interlayer conductive layers in the second direction (y).
A computing device , comprising: device components including a substrate assembly with electronic components attached to the substrate assembly , the components and the substrate assembly , being enclosed within a housing of the computing device; a thermoplastic film applied to and covering the electronic components and the substrate assembly , and a low modulus elastomer protective material contained within the housing , overlying the thermoplastic film, and filling void spaces around the device components , the thermoplastic film and the low modulus elastomer protective material preventing exposure of the device components to external matter that enters the housing . device components including a substrate assembly with electronic components attached to the substrate assembly , the components and the substrate assembly , being enclosed within a housing of the computing device; a thermoplastic film applied to and covering the electronic components and the substrate assembly , and a low modulus elastomer protective material contained within the housing , overlying the thermoplastic film, and filling void spaces around the device components , the thermoplastic film and the low modulus elastomer protective material preventing exposure of the device components to external matter that enters the housing .
Connection system for releasably connecting two components to a component to be clamped - in particular a tool - having a cylindrical shaft , and a clamping component comprising a cylindrical receptacle , in which the cylindrical shaft can be clamped, the outer surface of the cylindrical shaft having at least one recess with which a locking element can be brought into engagement, wherein an intermediate sleeve of the connection system provided with parallel longitudinal slots uniformly distributed along the circumference is inserted into the cylindrical receptacle and the cylindrical shaft is inserted into the intermediate sleeve , wherein at least one locking element is positioned in a passage opening passing through the wall of the intermediate sleeve , which is formed as a radial through-hole in the wall of the intermediate sleeve , and is in engagement with the recess of the cylindrical shaft , and wherein the intermediate sleeve has, in particular at its rear end region engaging in the receptacle , connecting means by means of which it is positively connected to the clamping component , characterized in that the radial through-hole is placed in such a way, that it lies in the region of a longitudinal slot, and is positioned in particular in such a way that the longitudinal slot centrally divides the through-hole , and in that a circular-arc-shaped slot is formed around and concentrically with the through-hole , which passes through the wall of the intermediate sleeve from the outside inwardly so that spring bars are defined between the circular-arc-shaped slot and the trough-hole , which spring bars are elastically bent outwards when the at least one locking element is inserted into the through-hole from the outside in order to fix the locking element in the through-hole in a clamping manner by the elastic restoring force of the spring bars .
A crystal of a maleate of a compound of Formula (I) having diffraction peaks at 2θ=6.24°, 7.19°, 14.26°, 18.50°, and 26.80°±0.2° in an X-ray powder diffraction pattern.
Method for fabricating and inspecting a photovoltaic assembly , including: - a base , - at least one photovoltaic module , comprising at least one photovoltaic cell between a first transparent layer forming a front face of said at least one photovoltaic module and the base , - at least one adhesion layer based on a crosslinkable polymer material, disposed between the base and said at least one photovoltaic module , characterised in that it includes the following steps: - a step A) of depositing said at least one adhesion layer on the base , - a step B) of assembling said at least one photovoltaic module on the base covered by said at least one adhesion layer , - a step C) of partially crosslinking said at least one adhesion layer based on a crosslinkable polymer material to form at least one partially crosslinked adhesion layer , having an adhesive power allowing a subsequent removal of said at least one photovoltaic module , - an electrical connection step D) consisting in electrically connecting said at least one photovoltaic module to electrical connection means of the base , - a step E) of inspecting the mechanical and electrical functioning of said at least one photovoltaic module , - in the event of correct functioning being detected at the outcome of step E), a step F) of finalising the crosslinking of said at least one partially crosslinked adhesion layer , - in the event of incorrect functioning being detected at the outcome of step E), a step G) of removing at least one defective photovoltaic module , then return to step A) in view of assembling one or more new photovoltaic modules . - a base , - at least one photovoltaic module , comprising at least one photovoltaic cell between a first transparent layer forming a front face of said at least one photovoltaic module and the base , - at least one adhesion layer based on a crosslinkable polymer material, disposed between the base and said at least one photovoltaic module , characterised in that it includes the following steps: - a step A) of depositing said at least one adhesion layer on the base , - a step B) of assembling said at least one photovoltaic module on the base covered by said at least one adhesion layer , - a step C) of partially crosslinking said at least one adhesion layer based on a crosslinkable polymer material to form at least one partially crosslinked adhesion layer , having an adhesive power allowing a subsequent removal of said at least one photovoltaic module , - an electrical connection step D) consisting in electrically connecting said at least one photovoltaic module to electrical connection means of the base , - a step E) of inspecting the mechanical and electrical functioning of said at least one photovoltaic module , - in the event of correct functioning being detected at the outcome of step E), a step F) of finalising the crosslinking of said at least one partially crosslinked adhesion layer , - in the event of incorrect functioning being detected at the outcome of step E), a step G) of removing at least one defective photovoltaic module , then return to step A) in view of assembling one or more new photovoltaic modules .
A photosensitive resin composition comprising a water-dispersible latex (A), a rubber (B) other than a (meth)acrylic modified polymer, a sulfonate surfactant (C), a photopolymerizable monomer (D), and a photopolymerization initiator (E), wherein a polymer content of the composition other than a (meth)acrylic modified polymer consists of the components (A) and (B), a ratio of the mass of the component (C) to a total mass of the components (A), (B), and (C) is within a range of 0.1 to 20%, a ratio of the mass of the component (A) to a total mass of the components (A) and (B) is within 20 to 90%, a size of a dispersed phase consisting mainly of the component (B) is 10 μm or smaller, and the component (D) comprises a (meth)acrylic modified polymer.