mhurhangee/patent-ind-claim-en huggingface dataset:
A control channel receiving method in a radio communication system using an orthogonal frequency division multiple access, OFDMA, comprising: determining L physical resource block pairs that are used to transmit a control channel, wherein L is an integer greater than 0, and the control channel is formed by at least one enhanced control channel element, eCCE; wherein resource elements excluding a demodulation reference signal, DMRS, in each physical resource block pair of the L physical resource block pairs are grouped into N enhanced resource element groups, eREGs; and each of the at least one eCCE is mapped onto resource elements of M eREGs, the resource elements excluding other overheads in each eREG of the M eREGs, the other overheads comprise at least one of the following: a common reference signal, CRS, a physical downlink control channel, PDCCH, a physical broadcast channel, PBCH, a positioning reference signal, PRS, a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, wherein M is an integer greater than 0; and receiving the at least one eCCE by using the resource elements comprised in the M eREGs. determining L physical resource block pairs that are used to transmit a control channel, wherein L is an integer greater than 0, and the control channel is formed by at least one enhanced control channel element, eCCE; wherein resource elements excluding a demodulation reference signal, DMRS, in each physical resource block pair of the L physical resource block pairs are grouped into N enhanced resource element groups, eREGs; and each of the at least one eCCE is mapped onto resource elements of M eREGs, the resource elements excluding other overheads in each eREG of the M eREGs, the other overheads comprise at least one of the following: a common reference signal, CRS, a physical downlink control channel, PDCCH, a physical broadcast channel, PBCH, a positioning reference signal, PRS, a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, wherein M is an integer greater than 0; and receiving the at least one eCCE by using the resource elements comprised in the M eREGs.
A two-part curable composition precursor comprising (a) a first part (A) comprising at least one multifunctional epoxy resin having an epoxy functionality of at least three; and (b) a second part (B) comprising a prepolymer obtained from (i) a first amine-based epoxy curing agent and a second amine-based epoxy curing agent distinct from the first amine-based epoxy curing agent and (ii) at least one epoxy resin. (a) a first part (A) comprising at least one multifunctional epoxy resin having an epoxy functionality of at least three; and (b) a second part (B) comprising a prepolymer obtained from (i) a first amine-based epoxy curing agent and a second amine-based epoxy curing agent distinct from the first amine-based epoxy curing agent and (ii) at least one epoxy resin.
A monitoring system configured to monitor a cargo holding area associated with a vehicle during transit, the system comprising: a pressure sensing device locatable within the cargo holding area , in use, and configured to provide live load data output indicative of the pressure applied to the pressure sensing device by cargo within the cargo holding area during transit; a determination module for outputting one or more predetermined load pattern states of the cargo ; a movement sensor for determining movement of the cargo holding area ; a comparator module configured to compare the live load data output with the one or more predetermined load pattern states of the cargo and to determine whether there is a correspondence therebetween; and a notification module configured to output a notification that the cargo is in an unacceptable state during transit in dependence on the result of the comparison; wherein the determination module is configured to receive a movement output from the movement sensor and to adjust the one or more predetermined load pattern states of the cargo in response to the movement output. a pressure sensing device locatable within the cargo holding area , in use, and configured to provide live load data output indicative of the pressure applied to the pressure sensing device by cargo within the cargo holding area during transit; a determination module for outputting one or more predetermined load pattern states of the cargo ; a movement sensor for determining movement of the cargo holding area ; a comparator module configured to compare the live load data output with the one or more predetermined load pattern states of the cargo and to determine whether there is a correspondence therebetween; and a notification module configured to output a notification that the cargo is in an unacceptable state during transit in dependence on the result of the comparison; wherein the determination module is configured to receive a movement output from the movement sensor and to adjust the one or more predetermined load pattern states of the cargo in response to the movement output.
A system configured to capture images, comprising: a movable imaging platform having a single sensor that is configured to capture images of a scene, each image comprising a plurality of pixels; and an image processor configured to: calculate one or more transformations based on input data received indicating the motion of the imaging platform and viewing geometry of the single sensor ; digitally transform captured images with respect to a common field of view 'FOV' using the one or more calculated transformations to compensate for relative motion between the scene and the imaging platform such that the transformed images appear to be taken by a non-moving imaging platform, wherein the pixel size and orientation of pixels of each transformed image are the same; characterized in that the image processor is further configured to in the transformed images, identify and monitor motion of one or more features of a target in the scene, which features are 3-D features having a height and exhibit a slight leaning motion through the scene along predictable paths as a function of the imaging platform's motion and location of a target with respect to the imaging platform , with a rate of movement directly proportional to the height of the features. a movable imaging platform having a single sensor that is configured to capture images of a scene, each image comprising a plurality of pixels; and an image processor configured to: calculate one or more transformations based on input data received indicating the motion of the imaging platform and viewing geometry of the single sensor ; digitally transform captured images with respect to a common field of view 'FOV' using the one or more calculated transformations to compensate for relative motion between the scene and the imaging platform such that the transformed images appear to be taken by a non-moving imaging platform, wherein the pixel size and orientation of pixels of each transformed image are the same; calculate one or more transformations based on input data received indicating the motion of the imaging platform and viewing geometry of the single sensor ; digitally transform captured images with respect to a common field of view 'FOV' using the one or more calculated transformations to compensate for relative motion between the scene and the imaging platform such that the transformed images appear to be taken by a non-moving imaging platform, wherein the pixel size and orientation of pixels of each transformed image are the same; characterized in that the image processor is further configured to in the transformed images, identify and monitor motion of one or more features of a target in the scene, which features are 3-D features having a height and exhibit a slight leaning motion through the scene along predictable paths as a function of the imaging platform's motion and location of a target with respect to the imaging platform , with a rate of movement directly proportional to the height of the features.
Computer-implemented method for extracting an underground deposit, in which method a representation of said underground deposit is constructed, on the basis of curves describing a variation in a saturation of a fluid as a function of at least one property P relative to the flow of said fluid within said deposit, said property P being capillary pressure or relative permeability, said curves being obtained via laboratory experiments carried out on samples extracted from said deposit, and in which method said deposit is discretized into a set of cells, each cell of said set of cells being associated with one lithology, the method comprising the following steps: - a principal component analysis is carried out on a data table constructed from said curves, so as to extract principal factors explaining said data; - said curves are plotted in a representation space constructed from said principal factors; - the curves plotted in the representation space are classified by means of a supervised classification method, the information used to train said supervised classification method corresponding to the lithology of said samples, each class obtained from said classification being associated with one lithology; - at least one curve representative of each class obtained from said classification is defined; - one of said representative curves is associated with each cell, depending on the lithology associated with the cell; - a scheme for optimal extraction of said deposit is defined on the basis of said representation of said deposit and by means of a flow simulator; and - said deposit is extracted according to said optimal extraction scheme. - a principal component analysis is carried out on a data table constructed from said curves, so as to extract principal factors explaining said data; - said curves are plotted in a representation space constructed from said principal factors; - the curves plotted in the representation space are classified by means of a supervised classification method, the information used to train said supervised classification method corresponding to the lithology of said samples, each class obtained from said classification being associated with one lithology; - at least one curve representative of each class obtained from said classification is defined; - one of said representative curves is associated with each cell, depending on the lithology associated with the cell; - a scheme for optimal extraction of said deposit is defined on the basis of said representation of said deposit and by means of a flow simulator; and - said deposit is extracted according to said optimal extraction scheme.
A method for fabricating a light imager panel of a radiation detector , comprising: disposing amorphous silicon, a-Si, on a substrate ; melting the a-Si; and subsequently solidifying the a-Si to form crystalline silicon, c-Si, circuits on the substrate, wherein the c-Si circuits comprise at least a plurality of detector pixels each comprising at least a field effect transistor , a photodiode , and a charge amplifier, wherein disposing the a-Si comprises printing the a-Si on the substrate in patterns and traces of desired circuitry to correspond to at least the field effect transistor, the photodiode, and the charge amplifier. disposing amorphous silicon, a-Si, on a substrate ; melting the a-Si; and subsequently solidifying the a-Si to form crystalline silicon, c-Si, circuits on the substrate, wherein the c-Si circuits comprise at least a plurality of detector pixels each comprising at least a field effect transistor , a photodiode , and a charge amplifier, wherein disposing the a-Si comprises printing the a-Si on the substrate in patterns and traces of desired circuitry to correspond to at least the field effect transistor, the photodiode, and the charge amplifier.
A composition comprising at least the strain deposited at Spanish Type Cultures Collection with deposit number CECT 8700 (AqSynRMH69) for use in a method for treating or preventing diarrhoea caused by viral infection in an animal and/or a human.
A method of wireless communication performed by a base station in a wireless communication network, the method comprising: transmitting a synchronization signal within a zone comprising a plurality of cells to enable a user equipment to synchronize with the zone; communicating with the user equipment using a zone identifier of the zone without providing a cell identifier of a serving cell within the zone; detecting a trigger event that necessitates the user equipment have knowledge of the cell identifier of the serving cell for communication between the user equipment and the serving cell within the zone; transmitting a configuration of a physical cell identification channel, PCICH , to the user equipment within system information; and transmitting the PCICH to the user equipment in response to the trigger event, the PCICH comprising at least the cell identifier of the serving cell. transmitting a synchronization signal within a zone comprising a plurality of cells to enable a user equipment to synchronize with the zone; communicating with the user equipment using a zone identifier of the zone without providing a cell identifier of a serving cell within the zone; detecting a trigger event that necessitates the user equipment have knowledge of the cell identifier of the serving cell for communication between the user equipment and the serving cell within the zone; transmitting a configuration of a physical cell identification channel, PCICH , to the user equipment within system information; and transmitting the PCICH to the user equipment in response to the trigger event, the PCICH comprising at least the cell identifier of the serving cell.
An unmanned vehicle including an ionising radiation detection device , the ionising radiation detection device comprising a data processor communicatively coupled to a position sensor mounted on the unmanned vehicle and a solid state ionising radiation sensor mounted on the unmanned vehicle, the data processor being configured to: receive position data from the position sensor; receive radiation data from the solid state ionising radiation sensor; and periodically associate the position data with ionising radiation data to form combined data characterised in that during creation of the combined data the unmanned vehicle is configured to move at a speed of less than or equal to 5 m/s and the data processor is configured to associate position data with radiation data at least once every second. receive position data from the position sensor; receive radiation data from the solid state ionising radiation sensor; and periodically associate the position data with ionising radiation data to form combined data characterised in that during creation of the combined data the unmanned vehicle is configured to move at a speed of less than or equal to 5 m/s and the data processor is configured to associate position data with radiation data at least once every second.
Tool arrangement having a screwing-in tool and having a tool holder , wherein the screwing-in tool has a thread for engagement into a counterpart thread on the tool holder , characterized in that the counterpart thread and the thread have different thread contours which, in the screw-connected state, adapt to one another by way of elastic deformation, wherein the thread and the counterpart thread have different pitches or the thread and the counterpart thread are in the form of a conical internal thread and a conical external thread with different cone angles (α; β), and wherein, on the screwing-in tool and the tool holder , there is arranged at least one supporting region (Y), which is formed by two conical abutment surfaces or conical bearing surfaces with different cone angles.
Process for the preparation of a self-setting calcium phosphate foam, characterized in that it comprises a single step of simultaneous mixing and foaming a powder phase and a liquid phase, wherein the powder phase comprises at least one calcium source and at least one phosphate source, wherein the liquid phase is an aqueous solution, wherein the powder phase, the liquid phase or both contain at least one additive selected from the group consisting of surfactants and foaming agents, and wherein the mixing and simultaneous foaming are performed by back-and-forth movements of the material through a narrow connection between two containers, one of them initially containing the powder phase and the other one the liquid phase.
A method, comprising: depositing a set of micro-objects onto a surface of a micro-assembler , wherein the micro-assembler comprises a two-dimensional array of force generating pixels ; wherein the method further comprises manipulating the set of micro-objects individually on the surface of the micro-assembler using a set of control patterns simultaneously, wherein each control pattern of the set of control patterns indicates a force pattern, the force pattern being a spatially and temporally varying voltage pattern, on a portion of the two-dimensional array of force generating pixels, characterized in that manipulating the set of micro-objects on the surface of the micro-assembler comprises: controlling orientations of the set of micro-objects in three dimensions relative to the surface of the micro-assembler. depositing a set of micro-objects onto a surface of a micro-assembler , wherein the micro-assembler comprises a two-dimensional array of force generating pixels ; wherein the method further comprises manipulating the set of micro-objects individually on the surface of the micro-assembler using a set of control patterns simultaneously, wherein each control pattern of the set of control patterns indicates a force pattern, the force pattern being a spatially and temporally varying voltage pattern, on a portion of the two-dimensional array of force generating pixels, characterized in that manipulating the set of micro-objects on the surface of the micro-assembler comprises: controlling orientations of the set of micro-objects in three dimensions relative to the surface of the micro-assembler.
An apparatus for perfusing an isolated organ or tissue, the apparatus comprising a perfusion circuit for recirculating perfusate, the perfusion circuit (i) comprising two perfusate flow paths by which liquid perfusate may flow to the organ or tissue and (ii) configured to perfuse the organ or tissue with the liquid perfusate so that perfusate flow in the plurality of flow paths is self-regulated by the organ or tissue; an oxygenator connected to the perfusion circuit and configured to supply oxygen to each of the perfusate flow paths, wherein either (iii) the apparatus comprises two oxygenators, a separate one of the two oxygenators being provided for each of the perfusate flow paths, or (iv) the apparatus further comprises on/off valves and/or pressure regulators configured to control the amount of oxygen supplied to each of the perfusate flow paths so that oxygen concentration of the liquid perfusate in each of the perfusate flow paths is different; and an oxygen supply device configured to supply oxygen to the oxygenator , the oxygen supply device comprising at least one member selected from the group consisting of an oxygen concentrator and an oxygen generator. a perfusion circuit for recirculating perfusate, the perfusion circuit (i) comprising two perfusate flow paths by which liquid perfusate may flow to the organ or tissue and (ii) configured to perfuse the organ or tissue with the liquid perfusate so that perfusate flow in the plurality of flow paths is self-regulated by the organ or tissue; an oxygenator connected to the perfusion circuit and configured to supply oxygen to each of the perfusate flow paths, wherein either (iii) the apparatus comprises two oxygenators, a separate one of the two oxygenators being provided for each of the perfusate flow paths, or (iv) the apparatus further comprises on/off valves and/or pressure regulators configured to control the amount of oxygen supplied to each of the perfusate flow paths so that oxygen concentration of the liquid perfusate in each of the perfusate flow paths is different; and an oxygen supply device configured to supply oxygen to the oxygenator , the oxygen supply device comprising at least one member selected from the group consisting of an oxygen concentrator and an oxygen generator.
A generative adversarial network (GAN) system comprising: a generator sub-network configured to examine images of an object moving relative to a viewer of the object , the generator sub-network also configured to generate one or more distribution-based images based on the images that were examined; and a discriminator sub-network configured to examine the one or more distribution-based images to determine whether the one or more distribution-based images accurately represent the object , wherein a predicted optical flow of the object is represented by relative movement of the object as shown in the one or more distribution-based images . a generator sub-network configured to examine images of an object moving relative to a viewer of the object , the generator sub-network also configured to generate one or more distribution-based images based on the images that were examined; and a discriminator sub-network configured to examine the one or more distribution-based images to determine whether the one or more distribution-based images accurately represent the object , wherein a predicted optical flow of the object is represented by relative movement of the object as shown in the one or more distribution-based images .
A method of processing paper waste for obtaining paper fibers from a stream of paper waste, said method comprising the steps of: - obtaining a pulverized portion of said stream of paper waste, said portion comprising said paper fibers and a further component, said portion having a humidity of at most 40 wt%; - ripping apart said pulverized portion of paper waste by subjecting said portion in between at least two rotary cranks positioned adjacent to each other and arranged for counter-rotating in a mutual rotational plane; - separating said ripped portion of paper waste into a stream of said paper fibers, and a stream of said further components by slinging said portion with said at least two rotary cranks against a sieve positioned in the circumference of said rotary cranks; - separating said further components into a stream of components of low specific weight and a stream of components of high specific weight by dispersing said portion by thermal turbulence generated by said at least two rotary cranks . - obtaining a pulverized portion of said stream of paper waste, said portion comprising said paper fibers and a further component, said portion having a humidity of at most 40 wt%; - ripping apart said pulverized portion of paper waste by subjecting said portion in between at least two rotary cranks positioned adjacent to each other and arranged for counter-rotating in a mutual rotational plane; - separating said ripped portion of paper waste into a stream of said paper fibers, and a stream of said further components by slinging said portion with said at least two rotary cranks against a sieve positioned in the circumference of said rotary cranks; - separating said further components into a stream of components of low specific weight and a stream of components of high specific weight by dispersing said portion by thermal turbulence generated by said at least two rotary cranks .