mhurhangee/patent-ind-claim-en huggingface dataset:
Method for playing back recorded video from a temporal position within a temporal range of the recorded video, the recorded video including intra frames and inter frames, and the recorded video being recorded using a variable frame rate, the method comprising: receiving a request for playing back the recorded video from a specific temporal position recorded in the recorded video as an inter frame, identifying an intra frame at an earlier temporal position in the recorded video than the specific temporal position received in the request, playing back frames of the recorded video in a first mode from the identified intra frame, and playing back frames of the recorded video in a second mode from the specific temporal position in the recorded video when the playing back of the recorded video in the first mode has arrived at the specific temporal position of in the recorded video, wherein playing back recorded video includes rendering a video signal for displaying from the recorded video, wherein the playing back of frames of the recorded video in the first mode is at a constant and predetermined frame rate that is higher than a frame rate used during the recording of the frames, and in the second mode playing back of frames of the recorded video is at a variable frame rate that is continuously proportional to the frame rate used during recording of the frames, and wherein the constant and predetermined frame rate is set in the device playing back the recorded video. receiving a request for playing back the recorded video from a specific temporal position recorded in the recorded video as an inter frame, identifying an intra frame at an earlier temporal position in the recorded video than the specific temporal position received in the request, playing back frames of the recorded video in a first mode from the identified intra frame, and playing back frames of the recorded video in a second mode from the specific temporal position in the recorded video when the playing back of the recorded video in the first mode has arrived at the specific temporal position of in the recorded video, wherein playing back recorded video includes rendering a video signal for displaying from the recorded video, wherein the playing back of frames of the recorded video in the first mode is at a constant and predetermined frame rate that is higher than a frame rate used during the recording of the frames, and in the second mode playing back of frames of the recorded video is at a variable frame rate that is continuously proportional to the frame rate used during recording of the frames, and wherein the constant and predetermined frame rate is set in the device playing back the recorded video.
A method for producing pancreatic organoids capable of continuous culture, the method comprising the steps of: (a) isolating pancreatic tissue from a mouse, wherein the mouse is genetically modified by knockout of the telomerase RNA component (TERC) and by the deletion of exon 11 of the BRCA2 gene; (b) mixing cells isolated from the tissue with Matrigel, and culturing the mixed cells to form pre-organoids; (c) dissociating the pre-organoids with a mechanical stress of 50 to 500 Pa, and (d) re-culturing the dissociated organoids by repeated passaging. (a) isolating pancreatic tissue from a mouse, wherein the mouse is genetically modified by knockout of the telomerase RNA component (TERC) and by the deletion of exon 11 of the BRCA2 gene; (b) mixing cells isolated from the tissue with Matrigel, and culturing the mixed cells to form pre-organoids; (c) dissociating the pre-organoids with a mechanical stress of 50 to 500 Pa, and (d) re-culturing the dissociated organoids by repeated passaging.
Rear load carrier for mounting to a motor vehicle, comprising a base part having a connecting device on the front side for attachment to a vehicle-side trailer coupling, at least a first support part and a second support part , which are fastened to opposite sides of the base part and are each held pivotably about a support part pivot axis assigned to them between a load bearing position, in which the support parts extend essentially horizontally, and a transport position, an attachment bracket which is fastened to the base part in the front region of the base part and projects upwards from the latter, and a license plate holder which is arranged on the rear side of the base part and is designed to receive a license plate, the support parts extending substantially vertically in the transport position, wherein a pivot mechanism is provided which is adapted to pivotably move the license plate holder about a license plate holder pivot axis between a substantially horizontal position and a substantially vertical position and wherein a locking device is provided for releasably locking the license plate holder in its substantially horizontal position, the locking device being configured such that the locking of the license plate holder is automatically released, when the first support part and/or the second support part is/are moved from its load bearing position into its transport position, characterized in that the locking device comprises a first locking unit , which projects upwards from the second support part and is fixedly connected to the latter, which first locking unit has a first locking element defining a latching opening opened in the direction of the free end of the second support part , and a second locking unit arranged on the side of the license palate holder facing towards the base part , which second locking unit defines a second locking element which is designed in the manner of a projection which can be inserted into the latching opening and can be moved back and forwards between a locking position, in which it is in engagement with the first locking element , and a release position, in which it is not in engagement with the first locking element.
A system for power and data transmission in a body of water to unmanned underwater vehicles, the system comprising: - a floating surface station configured to generate electric energy and receiving and transmitting data; - an underwater station connectable to at least one unmanned underwater vehicle ; - at least one depth buoy (8; 23; 26); - an umbilical , which comprises at least one power transmission line and at least one data transmission line, is mechanically and electrically connected to the surface station and to the underwater station , and is mechanically coupled to the depth buoy (8; 23; 26) so that the umbilical comprises a first umbilical section that is stretched between the underwater station and the depth buoy (8; 23; 26) and a second umbilical section that extends loose between the depth buoy (8; 23; 26) and the surface station ; and - a winch (33; 39) for selectively adjusting the length of the first umbilical section and the depth of the depth buoy (8; 22; 26). - a floating surface station configured to generate electric energy and receiving and transmitting data; - an underwater station connectable to at least one unmanned underwater vehicle ; - at least one depth buoy (8; 23; 26); - an umbilical , which comprises at least one power transmission line and at least one data transmission line, is mechanically and electrically connected to the surface station and to the underwater station , and is mechanically coupled to the depth buoy (8; 23; 26) so that the umbilical comprises a first umbilical section that is stretched between the underwater station and the depth buoy (8; 23; 26) and a second umbilical section that extends loose between the depth buoy (8; 23; 26) and the surface station ; and - a winch (33; 39) for selectively adjusting the length of the first umbilical section and the depth of the depth buoy (8; 22; 26).
Method for a Neutral Host, NH, network, a Mobile Network Operator, MNO, network, and a User Entity, UE, the MNO network comprising an access point (MNO_AP), such as an LTE eNodeB, a Mobility Management Entity, MME, (MNO_MME), a Serving Gateway, (MNO_SGW), a MNO Packet Gateway, PGW, (MNO_PGW) providing MNO Internet Protocol, IP, services such as Internet; the Evolved Packet Data Gateway, wherein the ePDG, (MNO_ePDG) may provide Packet Data Connection, PDN, services to user entities (UE) of a NH network; the NH network comprising an NH access node, NH-AP, communicating with the ePDG; the method comprising - the UE connecting to the MNO network ; - the UE finding a NH cell; and - the UE engaging in setting up a connection in the NH network between the UE and the NH-AP; - the ePDG engaging in setting up a first MNO bearer (MNO_BEARER1) between the MNO ePDG (MNO_ePDG) and the MNO PGW (MNO_PGW); - the ePDG engaging in setting up a first IPsec tunnel between the UE and the MNO ePDG; - the ePDG engaging in setting up a second MNO bearer (MNO_BEARER2) between the MNO ePDG (MNO_ePDG) and the MNO PGW (MNO_PGW), - the ePDG requesting setting up a second IPsec tunnel between the UE and the MNO ePDG, for providing differentiated services for the UE, - the UE and the ePDG engaging in setting up the second IPsec tunnel between the UE and the MNO ePDG, for providing differentiated services, wherein the request to create the second IPsec tunnel between the UE and the MNO network is an Internet Key Ex-change, IKE, CREATE CHILD Service Association, SA, request message, and wherein the request to create the second IPsec tunnel between the UE and the MNO network comprises at least one of Traffic Filter Templates, TFT, and QoS class. - the UE connecting to the MNO network ; - the UE finding a NH cell; and - the UE engaging in setting up a connection in the NH network between the UE and the NH-AP; - the ePDG engaging in setting up a first MNO bearer (MNO_BEARER1) between the MNO ePDG (MNO_ePDG) and the MNO PGW (MNO_PGW); - the ePDG engaging in setting up a first IPsec tunnel between the UE and the MNO ePDG; - the ePDG engaging in setting up a second MNO bearer (MNO_BEARER2) between the MNO ePDG (MNO_ePDG) and the MNO PGW (MNO_PGW), - the ePDG requesting setting up a second IPsec tunnel between the UE and the MNO ePDG, for providing differentiated services for the UE, - the UE and the ePDG engaging in setting up the second IPsec tunnel between the UE and the MNO ePDG, for providing differentiated services,
A method for improving the uniformity of a cured tire , comprising: determining, by one or more computing devices, an ablation pattern for each of a plurality of tracks about a bead of a tire ; determining, by the one or more computing devices, a plurality of direct address commands for each ablation pattern based at least in part on an adjustment process , each direct address command specifying one or more ablation parameters for an ablation segment at an address on the bead of the tire , the adjustment process operable to increase azimuthal overlap at an azimuthal location on the tire between two or more ablation segments associated with different tracks of the plurality of tracks along the bead of the tire ; and selectively removing tire material from the bead of the tire based at least in part on the direct address commands; wherein the plurality of direct address commands are determined according to an adjustment process such that two or more ablation segments can be ablated for two or more different tracks at the azimuthal location of the tire without requiring azimuthal movement of the ablation device relative to the tire . determining, by one or more computing devices, an ablation pattern for each of a plurality of tracks about a bead of a tire ; determining, by the one or more computing devices, a plurality of direct address commands for each ablation pattern based at least in part on an adjustment process , each direct address command specifying one or more ablation parameters for an ablation segment at an address on the bead of the tire , the adjustment process operable to increase azimuthal overlap at an azimuthal location on the tire between two or more ablation segments associated with different tracks of the plurality of tracks along the bead of the tire ; and selectively removing tire material from the bead of the tire based at least in part on the direct address commands;
Device for keeping an accelerator handle, which accelerator handle is mounted on a steering bar , in position by means of friction against a bearing surface secured to said steering bar, the device comprising mechanical means having a disc that can rotate about a Z axis and has an inner face , an outer face and a central hole placed in parallel with and against a radial surface , assembly means , guide means , positioning means , and locking means that can move in translation along the Z axis and comprise a ring having an inner face and an outer face ; the positioning means comprising at least three magnets (A), one of the at least three magnets (A) being placed on the outer face of the disc , its visible part being a north pole, and the other of the at least three magnets (A) being placed on the inner face of the ring , its visible part being a south pole; the outer face of the disc and the inner face of the ring facing one another. the positioning means comprising at least three magnets (A), one of the at least three magnets (A) being placed on the outer face of the disc , its visible part being a north pole, and the other of the at least three magnets (A) being placed on the inner face of the ring , its visible part being a south pole; the outer face of the disc and the inner face of the ring facing one another.
A method of wireless communication of a first network , comprising: receiving , at a base station, user equipment, UE, capability information from each UE of a plurality of UEs , the UE capability information received from each UE indicating at least a number of different carrier synchronization timings that the UE can track within a plurality of carriers, the plurality of carriers being associated with a plurality of different networks including the first network ; determining , at the base station, for the plurality of UEs , a set of synchronization-timing priorities based on the received UE capability information, the set of synchronization-timing priorities indicating a priority for timing synchronization types for use within each carrier of a set of carriers of the plurality of carriers; and broadcasting , from the base station, the determined set of synchronization-timing priorities to the plurality of UEs . receiving , at a base station, user equipment, UE, capability information from each UE of a plurality of UEs , the UE capability information received from each UE indicating at least a number of different carrier synchronization timings that the UE can track within a plurality of carriers, the plurality of carriers being associated with a plurality of different networks including the first network ; determining , at the base station, for the plurality of UEs , a set of synchronization-timing priorities based on the received UE capability information, the set of synchronization-timing priorities indicating a priority for timing synchronization types for use within each carrier of a set of carriers of the plurality of carriers; and broadcasting , from the base station, the determined set of synchronization-timing priorities to the plurality of UEs .
A device-to-device, D2D, communication method comprising: transmitting signals in transmission subframes with a randomization pattern selected from a plurality of randomization patterns in time domain, characterized in the plurality of randomization patterns being designed based on relative subframe positions in a D2D subframe sequence composed of multiple D2D subframes, and the selected randomization pattern being repeated for a plurality of D2D subframe sequences. transmitting signals in transmission subframes with a randomization pattern selected from a plurality of randomization patterns in time domain, characterized in the plurality of randomization patterns being designed based on relative subframe positions in a D2D subframe sequence composed of multiple D2D subframes, and the selected randomization pattern being repeated for a plurality of D2D subframe sequences.
Method for repairing a root of a rotor blade of a wind turbine , the root comprising several bores for receiving a bolt and extending form the root front surface into the blade , characterised in that at least a part of the front surface blade material surrounding the bore is removed using a removing tool and that at least one shim plate is attached to the processed front surface surrounding the bore .
A device for determining an ocular aberration of at least one eye of a user, the device comprising: - a wavefront sensing unit designated for measuring at least one optical wavefront comprised by at least one light beam , wherein an ocular aberration of the at least one eye of the user is determined from the at least one optical wavefront; - at least one diffractive element designated for generating multiple diffraction orders in the at least one light beam in two meridians in a manner that the multiple diffraction orders are spatially separated on the wavefront sensing unit and in the at least one eye of the user wherein the multiple diffraction orders comprise at least a zeroth diffraction order and at least two first diffraction orders in each meridian, whereby at least nine light spots are generated across the wavefront sensing unit in the two meridians. - a wavefront sensing unit designated for measuring at least one optical wavefront comprised by at least one light beam , wherein an ocular aberration of the at least one eye of the user is determined from the at least one optical wavefront; - at least one diffractive element designated for generating multiple diffraction orders in the at least one light beam in two meridians in a manner that the multiple diffraction orders are spatially separated on the wavefront sensing unit and in the at least one eye of the user
A method for preparing a catalyst, comprising the following steps 1 and 2 in the following sequence: step 1: in advance a molded precursor of a catalyst containing a metal oxide is filled in a fixed-bed reactor and then a solvent is supplied to the reactor to fully immerse the catalyst precursor for a time period of not less than 0.5 hours, after the immersion, the solvent is removed from the reactor, step 2: then a liquid phase reduction is performed by supplying a hydrogen gas or a mixture of hydrogen gas with an inert gas to a catalyst layer in the presence of a solvent to reduce the catalyst precursor prepared in the step 1, while flowing the solvent and supplying the gas. step 1: in advance a molded precursor of a catalyst containing a metal oxide is filled in a fixed-bed reactor and then a solvent is supplied to the reactor to fully immerse the catalyst precursor for a time period of not less than 0.5 hours, after the immersion, the solvent is removed from the reactor, step 2: then a liquid phase reduction is performed by supplying a hydrogen gas or a mixture of hydrogen gas with an inert gas to a catalyst layer in the presence of a solvent to reduce the catalyst precursor prepared in the step 1, while flowing the solvent and supplying the gas.
Use of a positive electrode active material in an alkaline secondary battery for enhancing the capacity recovery rate after deep discharge, as defined in the description, the positive electrode active material comprising a base particle comprising a nickel hydroxide particle containing Mn in solid solution and a conductive layer comprising a Co compound and covering a surface of the base particle , wherein an X-ray absorption edge energy of the Mn detected within 6500 to 6600 eV in measurement with an XAFS (X-ray Absorption Fine Structure) method is 6548 eV or higher and wherein a content of the Mn is 0.1% by mass or more and 2.0% by mass or less based on a quantity of the nickel hydroxide.
The use of containers or pipelines having a cladding composed of a melamine-formaldehyde foam for the storage or transport of cryogenic liquids, wherein the melamine-formaldehyde foam is applied as a cladding to the outer wall of the containers or pipelines and is lined on the side facing away from the container or the pipeline with a metal foil having a thickness in the range from 0.02 to 5 mm.
A vehicle cab arrangement , the vehicle cab arrangement comprising: - a cabin for housing a human driver of a vehicle ; - a horizontally extending fuel cell stack , the fuel cell stack being placed vertically below the cabin ; and characterized by - a horizontally extending cooling radiator , the cooling radiator being placed between the cabin and the fuel cell stack . - a cabin for housing a human driver of a vehicle ; - a horizontally extending fuel cell stack , the fuel cell stack being placed vertically below the cabin ; and characterized by - a horizontally extending cooling radiator , the cooling radiator being placed between the cabin and the fuel cell stack .
Method for planning and at least partially installing an elevator system in an elevator shaft , wherein automated installation steps are carried out by an automated mounting device and the method comprises the following method steps: - deriving a target layout of the elevator system from target dimensions of the elevator shaft, - establishing the installation steps to be carried out by an automated mounting device , - checking that the automated installation steps can be carried out by the mounting device , - detecting several actual dimensions of the elevator shaft , - deriving an actual layout of the elevator system from the target layout of the elevator system and the detected actual dimensions of the elevator shaft , - planning the automated installation steps on the basis of the actual layout of the elevator system and - carrying out the automated installation steps by means of the mounting device . - deriving a target layout of the elevator system from target dimensions of the elevator shaft, - establishing the installation steps to be carried out by an automated mounting device , - checking that the automated installation steps can be carried out by the mounting device , - detecting several actual dimensions of the elevator shaft , - deriving an actual layout of the elevator system from the target layout of the elevator system and the detected actual dimensions of the elevator shaft , - planning the automated installation steps on the basis of the actual layout of the elevator system and - carrying out the automated installation steps by means of the mounting device .
A filter element comprising: a media pack , wherein the media pack comprises an elongated rectangular structure with opposing side surfaces ; a frame including a pair of side panels , with each side panel extending along a respective side surface of the media pack, each side panel having a foldable portion enabling the side panel to be folded relative to the media pack , and each side panel having a fixed portion extending along a portion of the respective side surface of the media pack, wherein the fixed portion is adjacent a base of the frame and a hinge is provided between the fixed portion and the foldable portion ; and a mass of adhesive between the foldable portion of each side panel and the respective side surface of the media pack, fixing the frame to the media pack . a media pack , wherein the media pack comprises an elongated rectangular structure with opposing side surfaces ; a frame including a pair of side panels , with each side panel extending along a respective side surface of the media pack, each side panel having a foldable portion enabling the side panel to be folded relative to the media pack , and each side panel having a fixed portion extending along a portion of the respective side surface of the media pack, wherein the fixed portion is adjacent a base of the frame and a hinge is provided between the fixed portion and the foldable portion ; and a mass of adhesive between the foldable portion of each side panel and the respective side surface of the media pack, fixing the frame to the media pack .