mhurhangee/patent-ind-claim-en huggingface dataset:
A method for publishing a resource, comprising receiving (S501), by a gateway , a first resource link of a resource to be published from a server , the first resource link of the resource to be published comprising the identifier of the resource to be published, the first resource link of the resource to be published further comprising an anchor indicating a host device of the resource to be published, the value of said anchor identifying the server as host device of the resource to be published; determining (S503), by the gateway , a second resource link of the resource to be published by adding an obtained identifier of the server to a location before the identifier of the resource to be published in the first resource link, and modifying the anchor of the first resource link to an identifier of the gateway , wherein the modified anchor identifies the gateway as host device of the resource to be published; and sending (S505), by the gateway , the second resource link of the resource to be published to a cloud platform , wherein the second resource link of the resource to be published is used by the cloud platform to publish the resource to be published on a resource directory. receiving (S501), by a gateway , a first resource link of a resource to be published from a server , the first resource link of the resource to be published comprising the identifier of the resource to be published, the first resource link of the resource to be published further comprising an anchor indicating a host device of the resource to be published, the value of said anchor identifying the server as host device of the resource to be published; determining (S503), by the gateway , a second resource link of the resource to be published by adding an obtained identifier of the server to a location before the identifier of the resource to be published in the first resource link, and modifying the anchor of the first resource link to an identifier of the gateway , wherein the modified anchor identifies the gateway as host device of the resource to be published; and sending (S505), by the gateway , the second resource link of the resource to be published to a cloud platform , wherein the second resource link of the resource to be published is used by the cloud platform to publish the resource to be published on a resource directory.
Switching device , in particular load-disconnecting switch for a busbar system, wherein the switching device has at least one switch contact , wherein the at least one switch contact is transferrable from a contact position into an interruption position and vice versa, wherein the switching device has an actuatable snap-action switching mechanism for transferring the at least one switch contact from the contact position into the interruption position and vice versa, wherein the snap-action switching mechanism has a joint arrangement with a first pivot lever , which is mounted so as to be pivotable about a first pivot pin , and with a second pivot lever , which is mounted so as to be pivotable about a second pivot pin , wherein the first pivot lever and the second pivot lever are connected to one another in an articulated manner via a connecting means , wherein the connecting means is mounted in the first pivot lever so as to be displaceable under deformation of a restoring means , wherein pivoting of the first pivot lever during transfer of the switch contact from the contact position into the interruption position and/or during transfer of the switch contact from the interruption position into the contact position is realized as far as a tipping-point position counter to a restoring force of the restoring means , and, after the tipping-point position has been exceeded, the restoring means assists with further pivoting of the first pivot lever , wherein the connecting means is mounted displaceably in the second pivot lever , characterized in that the switching device has a guide structure , wherein, during transfer of the switch contact from the contact position into the interruption position, and vice versa, the connecting means interacts with the guide structure .
A method of decoding video from a bitstream of encoded video using a video decoder, the video including a picture partitioned into coding units, the method comprising: for one of the coding units, reconstructing a low-fidelity flag for that coding unit and associated with a video component, wherein reconstructing the low-fidelity flag comprises decoding the low-fidelity flag from that coding unit in the bitstream; if the low-fidelity flag is set, then determining a quantization parameter for the video component based upon a low-fidelity-mode offset, wherein the low-fidelity-mode offset is signaled in at least one of a picture parameter set, PPS, or a sequence parameter set, SPS; if the low-fidelity flag is not set, then determining the quantization parameter for the video component without using the low- fidelity-mode offset; and dequantizing decoded coefficients in the video component for the coding unit, based upon the quantization parameter, to produce dequantized coefficients. for one of the coding units, reconstructing a low-fidelity flag for that coding unit and associated with a video component, wherein reconstructing the low-fidelity flag comprises decoding the low-fidelity flag from that coding unit in the bitstream; if the low-fidelity flag is set, then determining a quantization parameter for the video component based upon a low-fidelity-mode offset, wherein the low-fidelity-mode offset is signaled in at least one of a picture parameter set, PPS, or a sequence parameter set, SPS; if the low-fidelity flag is not set, then determining the quantization parameter for the video component without using the low- fidelity-mode offset; and dequantizing decoded coefficients in the video component for the coding unit, based upon the quantization parameter, to produce dequantized coefficients.
A particle for use in a powder-based additive manufacturing process comprising: a magnetic core having a first magnetic permeability; and an aluminum alloy coating surrounding the magnetic core , the aluminum alloy coating having a second magnetic permeability lower than the first magnetic permeability; characterized in that the aluminum alloy coating comprises a material selected from the group consisting of Al12Si, AlSi10Mg, Aluminum 356.0, Aluminum 357.0, and combinations thereof. a magnetic core having a first magnetic permeability; and an aluminum alloy coating surrounding the magnetic core , the aluminum alloy coating having a second magnetic permeability lower than the first magnetic permeability; characterized in that the aluminum alloy coating comprises a material selected from the group consisting of Al12Si, AlSi10Mg, Aluminum 356.0, Aluminum 357.0, and combinations thereof.
A wearable electronic device , comprising: a handling portion that facilitates donning the wearable electronic device on a user , wherein the handling portion comprises a ring; a biometric authentication sensor associated with the handling portion , wherein the biometric authentication sensor comprises a fingerprint sensor configured to sense a fingerprint of the user while the user is donning the wearable electronic device ; a wear status indicator module to determine whether the wearable electronic devices is being worn; a storage to store a fingerprint or extracted features thereof of an authorized user of the ring; and a security module (114; 314) to determine whether a scanned fingerprint matches a stored fingerprint of the authorized user of the ring, to determine whether the ring is on the finger of the user; and if the scanned fingerprint matches the fingerprint of the authorized user of the ring and the ring is on the finger of the user, to authorize communication of the ring with one or more other electronic devices. a handling portion that facilitates donning the wearable electronic device on a user , wherein the handling portion comprises a ring; a biometric authentication sensor associated with the handling portion , wherein the biometric authentication sensor comprises a fingerprint sensor configured to sense a fingerprint of the user while the user is donning the wearable electronic device ; a wear status indicator module to determine whether the wearable electronic devices is being worn; a storage to store a fingerprint or extracted features thereof of an authorized user of the ring; and a security module (114; 314) to determine whether a scanned fingerprint matches a stored fingerprint of the authorized user of the ring, to determine whether the ring is on the finger of the user; and if the scanned fingerprint matches the fingerprint of the authorized user of the ring and the ring is on the finger of the user, to authorize communication of the ring with one or more other electronic devices.
A photochromic curable composition comprising (A) a radically polymerizable monomer having at least one oxetanyl group in one molecule, (B) a photochromic compound and (C) radically polymerizable monomers other than the component (A).
A separation membrane element comprising a pair of separation membranes containing - two separation membranes arranged so that the filtrate-side surfaces thereof are disposed in mutually opposed relation, - wherein the two mutually opposed filtrate surfaces of the separation membranes are bonded via resin members that are designed to connect the separation membranes while maintaining a predetermined gap of 50 μm or more and 5,000 μm or less, which provides a flow channel, - the peripheral edge of the pair of separation membranes being sealed with resin to form a sealing member , - wherein the resin members are aligned to form broken lines from one resin member (7-1) as a start point to another resin member (7-2) as an end point, wherein the broken line extends from the start point in a vertical, horizontal or inclined at an arbitrary angle α direction to the end point - or wherein the resin members form a checkered-steel-plate-like checkered pattern composed of short ridges A aligned in one direction and a group of short ridges B aligned in a direction perpendicular to the direction of the ridges A, with the ridges A and the ridges B being arranged alternately - or wherein the resin members form a dotted arrangement. - two separation membranes arranged so that the filtrate-side surfaces thereof are disposed in mutually opposed relation, - wherein the two mutually opposed filtrate surfaces of the separation membranes are bonded via resin members that are designed to connect the separation membranes while maintaining a predetermined gap of 50 μm or more and 5,000 μm or less, which provides a flow channel, - the peripheral edge of the pair of separation membranes being sealed with resin to form a sealing member , - wherein the resin members are aligned to form broken lines from one resin member (7-1) as a start point to another resin member (7-2) as an end point, wherein the broken line extends from the start point in a vertical, horizontal or inclined at an arbitrary angle α direction to the end point - or wherein the resin members form a checkered-steel-plate-like checkered pattern composed of short ridges A aligned in one direction and a group of short ridges B aligned in a direction perpendicular to the direction of the ridges A, with the ridges A and the ridges B being arranged alternately - or wherein the resin members form a dotted arrangement.
An absorbent article comprising a liquid pervious topsheet , a liquid impervious backsheet , and an essentially fluffless absorbent structure positioned in between said backsheet and said topsheet, said absorbent structure comprising a length along an x-axis, a width along a y-axis and a thickness along a z-axis, whereby said absorbent structure comprises two laterally opposed side edges extending substantially along the x-axis and a front edge and a back edge which extend substantially along the y-axis, wherein the absorbent structure further comprises an edge barrier , said edge barrier being disposed along at least a part of at least one of the side edges, along at least a part of the front edge and/or along at least a part of the back edge, wherein the edge barrier is substantially absorbent particulate polymer material impermeable to prevent sideways leakage of absorbent particulate polymer material from said absorbent structure characterized in that the edge barrier extends along the entire thickness of the absorbent structure and the edge barrier is substantially liquid impermeable to prevent sideways leakage of fluid from said absorbent structure.
A method of producing percolated mullite in a body of material, the method including the step of heating the body of material at a temperature in the range of from 1400°C to 1600°C for at least 8 hours, wherein the body of material has a composition that includes alumina and silica, and the weight percent ratio of alumina:silica is from 10:90 to 60:40 when normalized to exclude non-alumina and non-silica impurities, and wherein the percolated mullite comprises a microstructure formed of a continuous interconnected scaffold or network of direct-bonded mullite grains, the direct-bonded mullite grain being such that glass is excluded from between the grains, wherein the percolated mullite microstructure extends continuously throughout the body, wherein the material is a 0-3 composite, wherein the mullite forms a 3-dimensional network and residual glass is isolated in individual regions not in mutual contact.
A metal detector for detecting at least one metallic object exposed to a detection magnetic field, the metal detector comprising: - at least one reception coil arranged to receive a magnetic field signal, called reception signal, s ( t ), which is representative of at least one modification of the detection magnetic field under the influence of the metallic object, the reception signal, s ( t ), comprising at least one detection channel of given bandwidth, each detection channel being associated with a separate detection frequency, f D , and - at least one sampled-architecture receiver which is coupled to the reception coil , characterized in that - the sampled-architecture receiver comprises a first sampling device of non-quantizing type, called first sampler , which is configured to sample the reception signal, s ( t ), or a signal that is a derivative of the reception signal, | s ( t )|, | s ( t )*|, | s '[ t ]|, | s '[ t ]*|, s + ′ t , at a first sampling frequency, f 1, which observes the Nyquist-Shannon bandwidth sampling theorem, in such a way as to - deliver a discrete-time signal, called first sampled signal, s [ t ], which, in the spectral domain, corresponds to a replica signal of the reception signal, s ( t ), or of the signal that is a derivative of the reception signal, s'[t], and - frequency-transpose the reception signal, s ( t ), to a first intermediate frequency which is less than the detection frequency, f D . - at least one reception coil arranged to receive a magnetic field signal, called reception signal, s ( t ), which is representative of at least one modification of the detection magnetic field under the influence of the metallic object, the reception signal, s ( t ), comprising at least one detection channel of given bandwidth, each detection channel being associated with a separate detection frequency, f D , and - at least one sampled-architecture receiver which is coupled to the reception coil , - the sampled-architecture receiver comprises a first sampling device of non-quantizing type, called first sampler , which is configured to sample the reception signal, s ( t ), or a signal that is a derivative of the reception signal, | s ( t )|, | s ( t )*|, | s '[ t ]|, | s '[ t ]*|, s + ′ t , at a first sampling frequency, f 1, which observes the Nyquist-Shannon bandwidth sampling theorem, in such a way as to - deliver a discrete-time signal, called first sampled signal, s [ t ], which, in the spectral domain, corresponds to a replica signal of the reception signal, s ( t ), or of the signal that is a derivative of the reception signal, s'[t], and - frequency-transpose the reception signal, s ( t ), to a first intermediate frequency which is less than the detection frequency, f D .
Cream dispenser for topically dispensing liquid on the skin of a user, having the following features: a. the cream dispenser possesses a liquid reservoir having an outlet port ; and b. the cream dispenser possesses an applicator head having an outlet duct and an applicator opening at the end of the outlet duct ; and c. the applicator head has an end wall which is penetrated by the outlet duct and in which the applicator opening is provided; and d. the applicator head possesses a hinged cover which in a closed state closes the applicator opening ; and e. the hinged cover on an internal side has a bulged closure face of which the size is larger than the cross-sectional area of the applicator opening , wherein the bulged closure face in the closed state of the hinged cover in the region of an annular contact face surrounding the applicator opening bears on the end wall , characterized by the following additional features: f. the closure face is formed by a face which lies opposite the applicator opening and which in the closed state bulges in the direction of the applicator opening ; and g. the closure face has a curvature radius which at least in the region of the annular contact face is between 4 cm and 25 cm; and h. the hinged cover has a periphery and a covering wall which is bordered by this periphery, wherein the bulged closure face occupies at least 80% of an internal side of the covering wall . a. the cream dispenser possesses a liquid reservoir having an outlet port ; and b. the cream dispenser possesses an applicator head having an outlet duct and an applicator opening at the end of the outlet duct ; and c. the applicator head has an end wall which is penetrated by the outlet duct and in which the applicator opening is provided; and d. the applicator head possesses a hinged cover which in a closed state closes the applicator opening ; and e. the hinged cover on an internal side has a bulged closure face of which the size is larger than the cross-sectional area of the applicator opening , wherein the bulged closure face in the closed state of the hinged cover in the region of an annular contact face surrounding the applicator opening bears on the end wall , f. the closure face is formed by a face which lies opposite the applicator opening and which in the closed state bulges in the direction of the applicator opening ; and g. the closure face has a curvature radius which at least in the region of the annular contact face is between 4 cm and 25 cm; and h. the hinged cover has a periphery and a covering wall which is bordered by this periphery, wherein the bulged closure face occupies at least 80% of an internal side of the covering wall .
An apparatus for filtering each of blocks in an area of pixels within an image using for each of the blocks a respective plurality of best-matching blocks found in a search image region, the apparatus comprising a processing circuitry which is configured to: divide the area of pixels into blocks including L non-overlapping template blocks and at least one non-template block, L being an integer larger than one, for each of the L template blocks find a predetermined number K of best-matching blocks by applying block matching within the search image region, K being an integer larger than one, thereby obtaining L sets containing K best matching offsets corresponding to the found best-matching blocks, create, from the L sets containing K best matching offsets found for the template blocks, a set of best spatial offsets, for the at least one non-template block find K or more best-matching blocks among blocks with spatial offsets from the set of best spatial offsets found for the template blocks, filter each of the L template blocks using the respective found K best-matching blocks and the at least one non-template block using the found K or more best-matching blocks. divide the area of pixels into blocks including L non-overlapping template blocks and at least one non-template block, L being an integer larger than one, for each of the L template blocks find a predetermined number K of best-matching blocks by applying block matching within the search image region, K being an integer larger than one, thereby obtaining L sets containing K best matching offsets corresponding to the found best-matching blocks, create, from the L sets containing K best matching offsets found for the template blocks, a set of best spatial offsets, for the at least one non-template block find K or more best-matching blocks among blocks with spatial offsets from the set of best spatial offsets found for the template blocks, filter each of the L template blocks using the respective found K best-matching blocks and the at least one non-template block using the found K or more best-matching blocks.
An anti-pinch circuit device for an apparatus for automatic movement of sliding windows in a motor vehicle, in particular a power-window apparatus, comprising a d.c. electric motor that moves a window (F) so that it slides along guides, said device comprising an electronic control module for controlling said d.c. electric motor , in particular a microprocessor, said electronic control module being configured for measuring a current (I) of said motor and for measuring a position (X) of said window (F), said control module being moreover configured for driving reversal of operation of the electric motor if it is verified that said current (I) is higher than a threshold current (I th ) and said position (X) of said window (F) falls within a given zone (APZ) of a path (P) of movement of the window, whereby : said anti-pinch circuit device is configured for measuring a back electromotive force (E; E m ) of the motor , obtaining a value of said back electromotive force (E; E m ), and the electronic control module is configured for calculating the position of the window (F) as a function of said measured value of said back electromotive force (E; E m ) of the motor so as to operate without the aid of external sensors.