mhurhangee/patent-ind-claim-en huggingface dataset:
A tipper body tailgate for a tipper vehicle, which has an opening and a sliding flap device with a sliding flap for selectively closing and opening the opening , wherein the sliding flap is displaceably guided between a closed position and an open position, so that the opening is blocked when the sliding flap is in the closed position and is at least largely open when the sliding flap is in the open position, wherein the sliding flap device comprises a sliding guide arrangement , which guides the sliding flap during its movements between the closed position and the open position, and an actuating mechanism for displacing the sliding flap , and wherein the sliding guide arrangement has guide track elements for engaging the sliding flap on two sliding flap side edges which are opposed to one another and extend parallel to one another, so that the guide track elements define a guide path parallel to the sliding flap side edges for the movement of the sliding flap , characterised in that the sliding guide arrangement has a plurality of guide track elements , which are arranged in series at intervals from one another to form free spaces between them along the guide path .
A computer-implemented method comprising: - processing, by an in-vehicle feature detection device using an initial feature detection model , sensor data collected by a vehicle to output a detected feature and a confidence metric for the detected feature, wherein the detected feature is a road feature and wherein the detected feature is detected in the sensor data ; and - transmitting the sensor data over a communication network from the vehicle to an external server based on determining that the confidence metric is below a confidence threshold, wherein the transmitted sensor data is used to initiate a creation or a re-training of a feature detection model by processing the sensor data ; wherein the creation or the re-training of the feature detection model occurs externally with respect to the vehicle ; and wherein the created or re-trained feature detection model is deployed to the vehicle to replace the initial feature detection model used by the in-vehicle feature detection device . - processing, by an in-vehicle feature detection device using an initial feature detection model , sensor data collected by a vehicle to output a detected feature and a confidence metric for the detected feature, wherein the detected feature is a road feature and wherein the detected feature is detected in the sensor data ; and - transmitting the sensor data over a communication network from the vehicle to an external server based on determining that the confidence metric is below a confidence threshold, wherein the transmitted sensor data is used to initiate a creation or a re-training of a feature detection model by processing the sensor data ; wherein the creation or the re-training of the feature detection model occurs externally with respect to the vehicle ; and wherein the created or re-trained feature detection model is deployed to the vehicle to replace the initial feature detection model used by the in-vehicle feature detection device .
A method of amplifying a non-polyA tailed RNA less than 30 nucleotides long, the method comprising reverse transcribing the RNA by extending a first primer having at least 6 contiguous nucleotides complementary to the RNA, to produce a first strand cDNA comprising a sequence at least 10 nucleotides long, in addition to the primer sequence, that is complementary to the RNA , amplifying the first strand cDNA with a DNA polymerase-DNA binding domain fusion to extend a second primer, wherein the DNA polymerase has a foot print of 6-10 base pairs and the DNA binding domain has a footprint of 3-5 base pairs and wherein the second primer comprises contiguous base pairs complementary to a 3' region of the first strand cDNA to produce a double-stranded cDNA.
An insect trap, which comprises a receptacle defining at least one side wall and a base , said receptacle having a plurality of holes for the entrance of insects in the interior of the receptacle , said holes are disposed perpendicularly with respect to the base of the receptacle ,wherein said holes are arranged in corresponding cavities made in said at least one side wall of said receptacle , and said cavities are elongated, characterized in that the cavities are perpendicular with respect to the base and each hole is arranged at the end of the cavities farthest from said base . and said cavities are elongated, characterized in that the cavities are perpendicular with respect to the base and each hole is arranged at the end of the cavities farthest from said base .
A method for suspending a Radio Resource Control, RRC, connection, comprising: sending , by a first node, a first notification message to a second node, and negotiating with the second node about whether the RRC connection is required to be suspended, the first notification message being used for notifying the second node that the first node determines that the RRC connection is required to be suspended; and if a result of the negotiation between the first node and the second node is that the RRC connection is required to be suspended, sending , by the first node, a first suspension command to a terminal device, the first suspension command being used for triggering the terminal device to suspend the RRC connection and to enter an RRC inactive state; wherein the first node is a Master Node, MN, in a Dual Connectivity, DC, network or a Multiple Connectivity, MC, network; and the second node is a Secondary Node, SN, in the DC network or the MC network; the method characterized in that negotiating with the second node about whether the RRC connection is required to be suspended comprises: receiving, by the first node, a second timer configured by the second node, and starting the second timer; and during the running of the second timer, receiving, by the first node, a first indication message from the second node, the first indication message being used for indicating the first node to stop the second timer; wherein if the second timer expires before being triggered to stop, sending, by the first node, the first suspension command to the terminal device. sending , by a first node, a first notification message to a second node, and negotiating with the second node about whether the RRC connection is required to be suspended, the first notification message being used for notifying the second node that the first node determines that the RRC connection is required to be suspended; and if a result of the negotiation between the first node and the second node is that the RRC connection is required to be suspended, sending , by the first node, a first suspension command to a terminal device, the first suspension command being used for triggering the terminal device to suspend the RRC connection and to enter an RRC inactive state; wherein the first node is a Master Node, MN, in a Dual Connectivity, DC, network or a Multiple Connectivity, MC, network; and the second node is a Secondary Node, SN, in the DC network or the MC network; the method characterized in that negotiating with the second node about whether the RRC connection is required to be suspended comprises: receiving, by the first node, a second timer configured by the second node, and starting the second timer; and during the running of the second timer, receiving, by the first node, a first indication message from the second node, the first indication message being used for indicating the first node to stop the second timer; wherein if the second timer expires before being triggered to stop, sending, by the first node, the first suspension command to the terminal device.
A suspension of stem/progenitor cells for use in the treatment of a liver dysfunction or condition, wherein the treatment comprises: introducing the suspension into or onto a wall of the biliary tree in a subject having the liver dysfunction or condition, wherein a portion of the cells introduced take up residence in or on at least a portion of the liver as mature liver cells in vivo, thereby treating the liver dysfunction or condition, wherein the stem/progenitor cells are biliary tree stem cells or hepatic stem cells or committed progenitors derived from those stem cells, and wherein the suspension is combined with one or more biomaterials to form a matrix complex, wherein the one or more biomaterials comprise collagens, adhesion molecules, proteoglycans, hyaluronans, glycosaminoglycan chains, chitosan, alginate, and synthetic, biodegradable or biocompatible polymers, or combinations thereof.
A satellite system for navigation and/or geodesy, comprising - a plurality of MEO satellites (MEO) each comprising a dedicated clock, the MEO satellites (MEO) being arranged in a distributed manner on orbital planes and orbit the Earth, wherein a plurality of MEO satellites (MEO), in particular eight, are located in each orbital plane, and - a plurality of LEO satellites (LEO) and, optionally, a plurality of ground stations, - wherein each MEO satellite (MEO) comprises two optical terminals for bidirectional transmission of optical free-beam signals by means of laser with the respectively first and/or second MEO satellite (MEO) orbiting ahead in the same orbital plane and with the first and/or second MEO satellite (MEO) orbiting behind, - wherein, by means of the optical free-beam signals, the clocks of the MEO satellites (MEO) are synchronized with each other for each orbital plane at an orbital plane time applicable to said orbital plane, characterized in that the - orbital plane times in the individual orbital planes of the MEO satellites (MEO) are synchronized using optical signals and/or radio waves via the LEO satellites (LEO). - a plurality of MEO satellites (MEO) each comprising a dedicated clock, the MEO satellites (MEO) being arranged in a distributed manner on orbital planes and orbit the Earth, wherein a plurality of MEO satellites (MEO), in particular eight, are located in each orbital plane, and - a plurality of LEO satellites (LEO) and, optionally, a plurality of ground stations, - wherein each MEO satellite (MEO) comprises two optical terminals for bidirectional transmission of optical free-beam signals by means of laser with the respectively first and/or second MEO satellite (MEO) orbiting ahead in the same orbital plane and with the first and/or second MEO satellite (MEO) orbiting behind, - wherein, by means of the optical free-beam signals, the clocks of the MEO satellites (MEO) are synchronized with each other for each orbital plane at an orbital plane time applicable to said orbital plane, - orbital plane times in the individual orbital planes of the MEO satellites (MEO) are synchronized using optical signals and/or radio waves via the LEO satellites (LEO).
A route learning method, wherein the method is applied to a first network device in a border gateway protocol, BGP-based network, the network further comprises a second network device, the first network device communicates with the second network device over BGP, and the method comprises: obtaining (S210), by the first network device, first BGP routing information from the second network device, wherein the first BGP routing information comprises validation information, and wherein the validation information comprises a first original autonomous system, AS; determining (S220), by the first network device based on the validation information, a target region to which the first BGP routing information belongs, the target region comprising one or more AS, by using a target region to which the first original AS belongs as the target region to which the first BGP routing information belongs; and learning (S230), by the first network device, the first BGP routing information only when the target region to which the first BGP routing information belongs is the same as a target region to which the second network device belongs; characterized in that before the using, by the first network device, a target region to which the first original AS belongs as the target region to which the first BGP routing information belongs, the method further comprises: determining, by the first network device, that the first original AS is the same as a second original AS, wherein the second original AS is an original AS that is obtained from route origin authorization ROA data and that is corresponding to the first BGP routing information. obtaining (S210), by the first network device, first BGP routing information from the second network device, wherein the first BGP routing information comprises validation information, and wherein the validation information comprises a first original autonomous system, AS; determining (S220), by the first network device based on the validation information, a target region to which the first BGP routing information belongs, the target region comprising one or more AS, by using a target region to which the first original AS belongs as the target region to which the first BGP routing information belongs; and learning (S230), by the first network device, the first BGP routing information only when the target region to which the first BGP routing information belongs is the same as a target region to which the second network device belongs; characterized in that before the using, by the first network device, a target region to which the first original AS belongs as the target region to which the first BGP routing information belongs, the method further comprises: determining, by the first network device, that the first original AS is the same as a second original AS, wherein the second original AS is an original AS that is obtained from route origin authorization ROA data and that is corresponding to the first BGP routing information.
A composition for use in a method of treating and/or preventing a CSPG5 expressing cancer by inducing immunity in a subject, wherein the composition comprises, as an active ingredient, (i) at least one polypeptide having immunity-inducing activity and selected from the group consisting of the following polypeptides (a), (b), and (c), or (ii) a recombinant vector comprising a polynucleotide encoding the polypeptide and capable of expressing said polypeptide in vivo: (a) a polypeptide consisting of the amino acid sequence represented by SEQ ID NO: 8, 4, 6, 10, 12, 2 or 14; (b) a polypeptide having a sequence identity of 85% or more with the amino acid sequence represented by SEQ ID NO: 8, 4, 6, 10, 12, 2 or 14; (c) a polypeptide comprising the polypeptide (a) or (b) as a partial sequence. (a) a polypeptide consisting of the amino acid sequence represented by SEQ ID NO: 8, 4, 6, 10, 12, 2 or 14; (b) a polypeptide having a sequence identity of 85% or more with the amino acid sequence represented by SEQ ID NO: 8, 4, 6, 10, 12, 2 or 14; (c) a polypeptide comprising the polypeptide (a) or (b) as a partial sequence.
A method at a base station , comprising: receiving, from a user equipment, UE , a connection request for downlink data; determining that a first congestion level of a first millimeter wave, mmWave, downlink channel is below a first threshold; determining that a second congestion level of a second mmWave downlink channel is below a second threshold; wherein the first mmWave downlink channel and the second mmWave downlink channel correspond to two different aggregated portions of a mmWave frequency spectrum allocated to the base station; transmitting, to the UE, an activation request instructing the UE to activate a first antenna corresponding to the first mmWave downlink channel and to activate a second antenna corresponding to the second mmWave downlink channel; and transmitting at least a portion of the downlink data to the UE over the first mmWave downlink channel and the second mmWave downlink channel. receiving, from a user equipment, UE , a connection request for downlink data; determining that a first congestion level of a first millimeter wave, mmWave, downlink channel is below a first threshold; determining that a second congestion level of a second mmWave downlink channel is below a second threshold; wherein the first mmWave downlink channel and the second mmWave downlink channel correspond to two different aggregated portions of a mmWave frequency spectrum allocated to the base station; transmitting, to the UE, an activation request instructing the UE to activate a first antenna corresponding to the first mmWave downlink channel and to activate a second antenna corresponding to the second mmWave downlink channel; and transmitting at least a portion of the downlink data to the UE over the first mmWave downlink channel and the second mmWave downlink channel.
A signal processing device (12; 31) comprising: a processing unit (123; 315) configured to process an input linear high dynamic range video signal and obtain a plurality of output linear high dynamic range video signals that have respectively undergone grayscale compression processes, wherein the processing unit (123; 315) is configured to perform the grayscale compression processes corresponding to a plurality of signal interfaces (A, B, C), the processing unit is configured to simultaneously output the plurality of the output linear high dynamic range video signals or to selectively output one of the plurality of the output linear high dynamic range video signals, the grayscale compression processes comprise opto-electrical transfer functions (OETF-A, OETF-B, OETF-C) corresponding to the plurality of signal interfaces, and the plurality of signal interfaces comprises Hybrid Log-Gamma, Perceptual Quantizer and S-Log3. a processing unit (123; 315) configured to process an input linear high dynamic range video signal and obtain a plurality of output linear high dynamic range video signals that have respectively undergone grayscale compression processes, wherein the processing unit (123; 315) is configured to perform the grayscale compression processes corresponding to a plurality of signal interfaces (A, B, C), the processing unit is configured to simultaneously output the plurality of the output linear high dynamic range video signals or to selectively output one of the plurality of the output linear high dynamic range video signals, the grayscale compression processes comprise opto-electrical transfer functions (OETF-A, OETF-B, OETF-C) corresponding to the plurality of signal interfaces, and the plurality of signal interfaces comprises Hybrid Log-Gamma, Perceptual Quantizer and S-Log3.
A method of determining a pressure to achieve inflation of an occlusion device, the method comprising processing unit-implemented steps of: obtaining at least one medical image of an occlusion in a blood vessel; determining by an image processor one or more characteristics associated with the occlusion from the at least one medical image; and determining by an inflation pressure processor, the inflation pressure processor being identical to or different from the image processor, a pressure to be applied to the occlusion device based on the one or more characteristics associated with the occlusion, characterised in that determining the pressure to be applied to the occlusion device comprises: determining an actual diameter of the occluded blood vessel; determining a lumen diameter of the occluded blood vessel; wherein the lumen diameter is less than the actual diameter of the occluded blood vessel; determining a radial pressure applied by the occlusion device; wherein the radial pressure is determined based on at least one material property of the occlusion; and simulating a changed lumen diameter of the blood vessel based on the determined radial pressure. obtaining at least one medical image of an occlusion in a blood vessel; determining by an image processor one or more characteristics associated with the occlusion from the at least one medical image; and determining by an inflation pressure processor, the inflation pressure processor being identical to or different from the image processor, a pressure to be applied to the occlusion device based on the one or more characteristics associated with the occlusion, characterised in that determining the pressure to be applied to the occlusion device comprises: determining an actual diameter of the occluded blood vessel; determining a lumen diameter of the occluded blood vessel; wherein the lumen diameter is less than the actual diameter of the occluded blood vessel; determining a radial pressure applied by the occlusion device; wherein the radial pressure is determined based on at least one material property of the occlusion; and simulating a changed lumen diameter of the blood vessel based on the determined radial pressure.
A process for biotransforming ferulic acid into vanillin, characterized by comprising the steps of: (a) immobilizing a microorganism of the strain Streptomyces setonii ATCC 39116 in polyurethane foam; (b) adding a solution of either ferulic acid, or any salt thereof; (c) incubating for carrying out the biotransformation reaction; (d) recovering the biotransformation solution obtained in step (c); and (e) extracting the vanillin from the biotransformation solution obtained in step (d). (a) immobilizing a microorganism of the strain Streptomyces setonii ATCC 39116 in polyurethane foam; (b) adding a solution of either ferulic acid, or any salt thereof; (c) incubating for carrying out the biotransformation reaction; (d) recovering the biotransformation solution obtained in step (c); and (e) extracting the vanillin from the biotransformation solution obtained in step (d).
A tool for retracting soft tissue covering lumbar vertebrae, formed in a strip shaped with a curvature disposed in a main plane, said retracting tool including a retractor having a back side designed to face the soft tissue, a face side opposite said back side and two longitudinal edges, this retractor including a rear portion forming a handle , and a rectilinear front portion elongated in a longitudinal direction and having a front end designed to act as a support on a vertebra in order to perform a pivoting in said main plane about a transverse axis, perpendicular to this main plane, to apply the back side of the retractor on the soft tissue in order to push them back, wherein the front portion of the retractor comprises at least one front transverse edge which, after bending forward, is extended by a support plate , said support plate being flat in a plane substantially parallel to the main plane so extending the retractor forwardly on its longitudinal edge so as to remain substantially in the width of the strip, and the support plate rising towards the face side to end with a hooking contour arranged in the longitudinal direction; said retracting tool being characterized in that it includes a longitudinal distance between a front end of the support plate and the front transverse edge of the retractor , which is greater than six millimeters.