mhurhangee/patent-ind-claim-en huggingface dataset:
Resining plant for stone slabs (L) which provides the movement of slab supports comprising, in succession, - a station for loading the slabs (L) on respective said supports , - a resining station , on which a catalyzable resin can be applied on at least one face of a respective slab (L), - a sealing closure station for a chamber associated with said support , - a catalysis oven station wherein said support is present with said resined slab within the respective chamber sealed and placed under vacuum, - an unloading station for said slab (L) from said support, - moving means for said plurality of supports with said slabs (L) through said stations, said supports comprising each a support frame of the slab, a said sealed chamber associated with said frame , which can be opened and closed, suitable for surrounding the slab (L) supported by the frame , at least one conduit suitable for putting into operating communication the interior of said chamber with an area of extraction of air from outside said chamber , to allow the vacuum to be formed within the chamber , wherein said catalysis oven station comprises a simultaneous housing structure for a plurality of said supports bearing said slabs (L), said simultaneous housing structure being of the multi-floor type, wherein the supports are arranged one above the other. - a station for loading the slabs (L) on respective said supports , - a resining station , on which a catalyzable resin can be applied on at least one face of a respective slab (L), - a sealing closure station for a chamber associated with said support , - a catalysis oven station wherein said support is present with said resined slab within the respective chamber sealed and placed under vacuum, - an unloading station for said slab (L) from said support, - moving means for said plurality of supports with said slabs (L) through said stations,
A method of wireless communication, comprising: determining , at a base station , to modify at least one parameter associated with semi-persistent scheduling, SPS, of traffic for one or more user equipments, UEs ; generating a reconfiguration control message to transmit to the one or more UEs to signal the modification of the at least one parameter, wherein the reconfiguration control message is a reconfigured downlink control information, DCI, that modifies an activation DCI utilizing invalid values that are not allocated by the activation DCI in order to signal that the base station has modified the at least one parameter associated with the SPS; and transmitting the reconfiguration control message to the one or more UEs . determining , at a base station , to modify at least one parameter associated with semi-persistent scheduling, SPS, of traffic for one or more user equipments, UEs ; generating a reconfiguration control message to transmit to the one or more UEs to signal the modification of the at least one parameter, wherein the reconfiguration control message is a reconfigured downlink control information, DCI, that modifies an activation DCI utilizing invalid values that are not allocated by the activation DCI in order to signal that the base station has modified the at least one parameter associated with the SPS; and transmitting the reconfiguration control message to the one or more UEs .
Method for object recognition, comprising the steps of: - forming a three-dimensionally contiguous object from a three-dimensional image of a 3D camera, = evaluating and classifying one or more objects in an image region of a 2D image which corresponds to the formed three-dimensionally contiguous object in the three-dimensional image , - assigning typical class-specific 3D dimensions on the basis of the classification of the object or objects in the 2D image, - dividing the three-dimensionally contiguous object formed from the three-dimensional image into a plurality of individual three-dimensional objects (2; 3) taking into account the class-specific 3D dimensions if the formed three-dimensionally contiguous object is too extended for the assigned class-specific 3D dimensions of the classified object or objects . - forming a three-dimensionally contiguous object from a three-dimensional image of a 3D camera, = evaluating and classifying one or more objects in an image region of a 2D image which corresponds to the formed three-dimensionally contiguous object in the three-dimensional image , - assigning typical class-specific 3D dimensions on the basis of the classification of the object or objects in the 2D image, - dividing the three-dimensionally contiguous object formed from the three-dimensional image into a plurality of individual three-dimensional objects (2; 3) taking into account the class-specific 3D dimensions if the formed three-dimensionally contiguous object is too extended for the assigned class-specific 3D dimensions of the classified object or objects .
A multipath device for processing multipath data traffic, the multipath device comprising: a multipath network access interface comprising at least one access interface for receiving multipath data traffic; and a host processor configured to operate at least one multi-connectivity network protocol and a multipath protocol policy manager, MPPM , wherein the at least one multi-connectivity network protocol is configured to process data traffic of the multipath data traffic that is related to the at least one multi-connectivity network protocol and received via multiple paths of the multipath network access interface , and wherein the MPPM is configured to manage the multiple paths of the multipath network access interface and/or the at least one access interface of the multipath network access interface according to a multipath network protocol policy, wherein the multipath network protocol policy depends on feedback from other multi-connectivity network protocols running on the host processor , characterised in that the at least one multi-connectivity network protocol is configured to register and/or deregister at the MPPM for receiving the multipath network protocol policy related to the at least one multi-connectivity network protocol . a multipath network access interface comprising at least one access interface for receiving multipath data traffic; and a host processor configured to operate at least one multi-connectivity network protocol and a multipath protocol policy manager, MPPM , wherein the at least one multi-connectivity network protocol is configured to process data traffic of the multipath data traffic that is related to the at least one multi-connectivity network protocol and received via multiple paths of the multipath network access interface , and wherein the MPPM is configured to manage the multiple paths of the multipath network access interface and/or the at least one access interface of the multipath network access interface according to a multipath network protocol policy, wherein the multipath network protocol policy depends on feedback from other multi-connectivity network protocols running on the host processor , characterised in that the at least one multi-connectivity network protocol is configured to register and/or deregister at the MPPM for receiving the multipath network protocol policy related to the at least one multi-connectivity network protocol .
A method for producing a bipolar plate strand which has a plurality of contiguous bipolar plates of a fuel cell , comprising the steps of: - providing a first unipolar plate strand and a second unipolar plate strand , the unipolar plate strands comprising a plurality of at least preformed webs and a plurality of at least preformed channels extending between two adjacent webs in each case, - guiding the unipolar plate strands towards a rolling gap of a pair of rollers of a rolling means provided with a rolling structure , wherein the rolling structure of the rollers of the pair of rollers comprises active roller elevations and passive roller elevations , - local heating of at least one surface area of a surface of one or both of the unipolar plate strands , the surface area immediately before or upon entry of the unipolar plate strands into the rolling gap being heated to a joining temperature, and - joining the unipolar plate strands at the at least one surface area to form a bipolar plate strand during transport of the unipolar plate strands through the rolling gap under the action of pressure, wherein the active roller elevations join the two unipolar plate strands located in the rolling gap , and wherein the passive roller elevations do not join the two unipolar plate strands located in the rolling gap . - providing a first unipolar plate strand and a second unipolar plate strand , the unipolar plate strands comprising a plurality of at least preformed webs and a plurality of at least preformed channels extending between two adjacent webs in each case, - guiding the unipolar plate strands towards a rolling gap of a pair of rollers of a rolling means provided with a rolling structure , wherein the rolling structure of the rollers of the pair of rollers comprises active roller elevations and passive roller elevations , - local heating of at least one surface area of a surface of one or both of the unipolar plate strands , the surface area immediately before or upon entry of the unipolar plate strands into the rolling gap being heated to a joining temperature, and - joining the unipolar plate strands at the at least one surface area to form a bipolar plate strand during transport of the unipolar plate strands through the rolling gap under the action of pressure, wherein the active roller elevations join the two unipolar plate strands located in the rolling gap , and wherein the passive roller elevations do not join the two unipolar plate strands located in the rolling gap .
A stent graft having a radially compressed configuration and a radially expanded configuration, comprising: a tubular graft body having a first end opening and a second end opening; a stent structure coupled along the graft body, wherein an end of the stent structure that is in closest proximity to the first end opening of the graft body is spaced from said first end opening to define a clearance region of the graft body; and an annular mesh top stent having a first portion coupled along an inner surface of the graft body along the clearance region below the first end opening at attachment locations, and a second portion extending beyond the first end opening outside of the graft body, wherein, during radial expansion, the first portion is retracted to a retracted longitudinal length, and the second portion expands to a bulbous shape having a greater cross-sectional area than the first portion, wherein the attachment locations are circumferentially spaced from one another at non-axially adjacent locations, whereby tearing of the graft body is inhibited during retraction of the annular mesh top stent. a tubular graft body having a first end opening and a second end opening; a stent structure coupled along the graft body, wherein an end of the stent structure that is in closest proximity to the first end opening of the graft body is spaced from said first end opening to define a clearance region of the graft body; and an annular mesh top stent having a first portion coupled along an inner surface of the graft body along the clearance region below the first end opening at attachment locations, and a second portion extending beyond the first end opening outside of the graft body, wherein, during radial expansion, the first portion is retracted to a retracted longitudinal length, and the second portion expands to a bulbous shape having a greater cross-sectional area than the first portion, wherein the attachment locations are circumferentially spaced from one another at non-axially adjacent locations, whereby tearing of the graft body is inhibited during retraction of the annular mesh top stent.
A fastener bolt comprising: a blank having a hex-shaped tool interface surface, the blank being constructed of a ceramic material; and, a screw threaded surface on the blank, the screw threaded surface being a screw threaded exterior surface of the fastener, the ceramic material being an aluminum oxide ceramic material reinforced with silicon-carbide crystal whiskers in the aluminum oxide ceramic material. a blank having a hex-shaped tool interface surface, the blank being constructed of a ceramic material; and, a screw threaded surface on the blank, the screw threaded surface being a screw threaded exterior surface of the fastener,
An optical filter based on light-matter coupling in quantum-confined cavity spaces comprising a layer structure comprising a plurality of layers (104a-104h, 106a-106i) stacked in a thickness direction (z) of the layer structure and including: a plurality of nano-photonic layers (104a-104h) formed of a nano-photonic material with icosahedral or dodecahedral symmetry, and at least one substrate layer (106a-106i) formed of an optically transparent material, the at least one substrate layer (106a-106i) being free of nano-photonic material, wherein one (106b-106h) of the at least one substrate layer (106a-106i) is positioned between two of the plurality of nano-photonic layers (104a-104h) in the thickness direction (z) of the layer structure such that a 2D cavity is defined by the layer structure . a plurality of nano-photonic layers (104a-104h) formed of a nano-photonic material with icosahedral or dodecahedral symmetry, and at least one substrate layer (106a-106i) formed of an optically transparent material, the at least one substrate layer (106a-106i) being free of nano-photonic material, wherein one (106b-106h) of the at least one substrate layer (106a-106i) is positioned between two of the plurality of nano-photonic layers (104a-104h) in the thickness direction (z) of the layer structure such that a 2D cavity is defined by the layer structure .
An array substrate, comprising: a plurality of pixel units divided by gate lines and data lines arranged crosswise, wherein each of the pixel units comprises a first sub-pixel electrode , a second sub-pixel electrode , a first TFT , and a second TFT ; the first sub-pixel electrode is connected to a drain of the first TFT through a drain line, and the second sub-pixel electrode is connected to a drain of the second TFT through a drain line; a resistance between a source of the first TFT and the data line connected to the source of the first TFT through a source line is greater than a resistance between a source of the second TFT and the data line connected to the source of the second TFT through a source line; wherein the array substrate further comprises: a first resistor in the source line connected to the source of the first TFT , and optionally a second resistor in the drain line connected to the drain of the first TFT ; and characterized in that , the source line connected to the source of the first TFT comprises first source segments spaced apart from each other, and the first resistor comprises second source segments in a different layer from the first source segments ; the second source segments are complementarily connected to the first source segments spaced apart from each other through via holes; and the source of the second TFT is in a same layer with the first source segments ; wherein the second source segments are in the same layer with the first sub-pixel electrode and/or the second sub-pixel electrode .
A semiconducting structure adapted to emit electromagnetic radiation, said structure comprising: - a first and a second zone with a first and a second type of conductivity respectively opposite to each other, said first and second zones being connected to each other to form a semiconducting junction, said junction extending along a plane , called the junction plane, Wherein the first zone comprises at least a first and a second part , such that the second part is the part through which the first zone is connected to the second zone , the first part and the second part being separated from each other by an intermediate layer , called the spreading layer, extending approximately parallel to the junction plane along a major part of the junction, said spreading layer being adapted to cause spreading of carriers along directions included in the plane of the spreading layer , wherein the spreading layer has a higher resistivity than the first part of the first zone over its entire thickness, wherein the spreading layer is formed of a single semiconducting material, wherein the first part of the first zone is a layer approximately parallel to the junction plane, the first part of the first zone having a resistivity ρ 1 and a thickness d 1 , the spreading layer having a resistivity ρ d and a thickness d d and the junction having a maximum dimension 2L in the junction plane , the structure being characterized in that the thicknesses and resistivities of the first part of the first zone and the spreading layer respectively respectes the following relation: ρ 1 ρ d < 100 d 1 × d d L 2 . - a first and a second zone with a first and a second type of conductivity respectively opposite to each other, said first and second zones being connected to each other to form a semiconducting junction, said junction extending along a plane , called the junction plane, Wherein the first zone comprises at least a first and a second part , such that the second part is the part through which the first zone is connected to the second zone , the first part and the second part being separated from each other by an intermediate layer , called the spreading layer, extending approximately parallel to the junction plane along a major part of the junction, said spreading layer being adapted to cause spreading of carriers along directions included in the plane of the spreading layer , wherein the spreading layer has a higher resistivity than the first part of the first zone over its entire thickness, wherein the spreading layer is formed of a single semiconducting material, wherein the first part of the first zone is a layer approximately parallel to the junction plane, the first part of the first zone having a resistivity ρ 1 and a thickness d 1 , the spreading layer having a resistivity ρ d and a thickness d d and the junction having a maximum dimension 2L in the junction plane , the structure being characterized in that the thicknesses and resistivities of the first part of the first zone and the spreading layer respectively respectes the following relation: ρ 1 ρ d < 100 d 1 × d d L 2 .
A small cell detection method performed by a user equipment, comprising: receiving from a macro cell base station a schedulable resource for transmitting by the small cell base station a discovery signal over a first frequency, wherein resource allocation of the discovery signal is negotiated between the small cell base station and the macro cell base station in advance, wherein the discovery signal is transmitted in the schedulable resource which is reserved resource blocks of a reference signal; detecting a discovery signal transmitted by the small cell base station over the schedulable resource in the first frequency which is the operating frequency of the macro cell base station; transmitting a detection report to the macro cell base station in response to detecting the discovery signal (S414); receiving a measurement command from the macro cell base station comprising a second frequency (S416) which is the operating frequency of the small cell base station; measuring at least a signal quality of the second frequency to generate a measurement report (S417); and transmitting the measurement report to the macro cell base station in response to generating the measurement report of the at least one second frequency (S418). receiving from a macro cell base station a schedulable resource for transmitting by the small cell base station a discovery signal over a first frequency, wherein resource allocation of the discovery signal is negotiated between the small cell base station and the macro cell base station in advance, wherein the discovery signal is transmitted in the schedulable resource which is reserved resource blocks of a reference signal; detecting a discovery signal transmitted by the small cell base station over the schedulable resource in the first frequency which is the operating frequency of the macro cell base station; transmitting a detection report to the macro cell base station in response to detecting the discovery signal (S414); receiving a measurement command from the macro cell base station comprising a second frequency (S416) which is the operating frequency of the small cell base station; measuring at least a signal quality of the second frequency to generate a measurement report (S417); and transmitting the measurement report to the macro cell base station in response to generating the measurement report of the at least one second frequency (S418).
A method for making an article, comprising: inputting a digital model of the article into an additive manufacturing apparatus or system comprising an energy source; and repeatedly applying energy from the energy source to successively applied incremental quantities of a powder to fuse the powder to form the article corresponding to the digital model, wherein the powder comprises an aluminum alloy comprising 2.00-10.00 wt.% cerium, 0.50-2.50 wt.% titanium, 0-3.00 wt.% nickel, 0-0.75 wt.% nitrogen, 0-0.05 wt.% other alloying elements, and the balance of aluminum, based on the total weight of the aluminum alloy. inputting a digital model of the article into an additive manufacturing apparatus or system comprising an energy source; and repeatedly applying energy from the energy source to successively applied incremental quantities of a powder to fuse the powder to form the article corresponding to the digital model, wherein the powder comprises an aluminum alloy comprising 2.00-10.00 wt.% cerium, 0.50-2.50 wt.% titanium, 0-3.00 wt.% nickel, 0-0.75 wt.% nitrogen, 0-0.05 wt.% other alloying elements, and the balance of aluminum, based on the total weight of the aluminum alloy.