mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the production of large stacks of large-format sheets , wherein, for bridging a vertical distance between a feed plane of the sheets and a floor level, a storage platform is designed as a stack receiving table that can be vertically extended and retracted, wherein on the stack receiving table a conventional pallet is placed, on which the sheets are deposited into stacks, wherein the receiving table is driven by means of a lifting device into an upper end position and the sheets are fed continuously to the pallet , wherein during the continuous feeding the stack receiving table is lowered continuously with the pallet to ensure uniform stacking, and when the desired stack height is reached, a stack change device travels between two sheets and completely separates these from each other, the subsequent stack being formed on the top of the stack receiving table which is designed as an insert shelf, wherein the insert shelf is lowered continuously while the receiving table moves into its lower end position at the level of the floor area and the pallet with the formed stack is transported away, wherein the stack receiving table is then moved to the level of the stack changing device with a new, empty conventional pallet and the stack changing device moves horizontally back to its original position, thereby unloading the stack being formed onto the empty pallet , after which the pallet or the stack receiving table is lowered again continuously until the desired stack height is reached and the stack changing device again moves between two sheets to separate the stacks, characterised in that an adapter pallet designed to be much higher than conventional pallets is inserted once at the beginning of the continuous stack formation.
A method for data storage, comprising: in a memory comprising an array of analog memory cells , selecting , for storing first data, a group of the memory cells such that each memory cell in the group has one or more neighbor memory cells in the array that are excluded from the group; storing the first data in the group of the memory cells using a sequence of programming pulses that increase by a first increment, while excluding the neighbor memory cells from programming as long as the first data is stored in the group of the memory cells ; selecting another group of the memory cells for storing second data; and storing the second data in the another group of the memory cells by programming the memory cells in the another group using a sequence of programming pulses that increase by a second increment, greater than the first increment, while including in the programming all neighboring cells in the another group. in a memory comprising an array of analog memory cells , selecting , for storing first data, a group of the memory cells such that each memory cell in the group has one or more neighbor memory cells in the array that are excluded from the group; storing the first data in the group of the memory cells using a sequence of programming pulses that increase by a first increment, while excluding the neighbor memory cells from programming as long as the first data is stored in the group of the memory cells ; selecting another group of the memory cells for storing second data; and storing the second data in the another group of the memory cells by programming the memory cells in the another group using a sequence of programming pulses that increase by a second increment, greater than the first increment, while including in the programming all neighboring cells in the another group.
A compound of Formula I, or an enantiomer, diastereoisomer, atropisomer, or a mixture thereof, or a pharmaceutically acceptable salt thereof, wherein: R 1 is -C 0-4 alk-O-C 1-8 alk, -C 0-4 alk-S-C 1-8 alk, or -C 0-4 alk-NH(C 1-8 alk); wherein said C 1-8 alk is substituted by 0, 1, 2, 3, 4, 5, or 6 halo; R 2 is H, halo, CN, C 1-6 alk, or C 1-6 haloalk; R 3 is C 1-6 alk, C 1-6 haloalk, -O-C 1-6 alk, -O-cyclopropyl, or -O-cyclobutyl; R 4 is a 5- to 6-membered heteroaryl; each of R 6 and R 7 is hydrogen; and each of R 5a ; R 5b ;R 5c ; R 5d; and R 5e is independently hydrogen or halo. R 1 is -C 0-4 alk-O-C 1-8 alk, -C 0-4 alk-S-C 1-8 alk, or -C 0-4 alk-NH(C 1-8 alk); wherein said C 1-8 alk is substituted by 0, 1, 2, 3, 4, 5, or 6 halo; R 2 is H, halo, CN, C 1-6 alk, or C 1-6 haloalk; R 3 is C 1-6 alk, C 1-6 haloalk, -O-C 1-6 alk, -O-cyclopropyl, or -O-cyclobutyl; R 4 is a 5- to 6-membered heteroaryl; each of R 6 and R 7 is hydrogen; and each of R 5a ; R 5b ;R 5c ; R 5d; and R 5e is independently hydrogen or halo.
A drag reducing composition, comprising: a drag reducing polymer; a partitioning agent comprising one or more of a coal-tar resin, a C5 aliphatic petroleum resin, a C9 aromatic petroleum resin, C5/C9 aliphatic/aromatic petroleum resin, a cycloaliphatic diene-based petroleum resin, a rosin resin, a rosin resin derivative, one or more of an alkylphenol resin, a modified alkylphenol resin, or fully or partially hydrogenated form thereof; and a suspending fluid medium. a drag reducing polymer; a partitioning agent comprising one or more of a coal-tar resin, a C5 aliphatic petroleum resin, a C9 aromatic petroleum resin, C5/C9 aliphatic/aromatic petroleum resin, a cycloaliphatic diene-based petroleum resin, a rosin resin, a rosin resin derivative, one or more of an alkylphenol resin, a modified alkylphenol resin, or fully or partially hydrogenated form thereof; and a suspending fluid medium.
A stator for a radial flux electrical machine, comprising a plurality of tooth elements (400; 501-505; 611-613) separated by a plurality of slots, each tooth element surrounded by a respective coil, each coil formed from a plurality of hairpin wires having pairs of legs passing through first and second slots (401, 402; 521, 522) on opposing faces of the tooth element (400; 511), the coil (300; 501-505) having n full turns, n being a positive integer, passing around the tooth element (400; 511), the first and second slots (401, 402; 521, 522) each having 2n+2 slot positions each having a radial depth (d') for accommodating a single hairpin wire, the slots each having a first slot position at an outer radial end of the slot and a 2n+2 th slot position at an opposing inner radial end of the slot, characterized by the coil (300; 501-505) having first and second terminal connections (323, 324; 551, 552) connected to hairpin wires extending through the first and second slots (401, 402; 521, 522) at respective first and second slot positions of the first and second slots, the first and second slot positions being the first and second radially outermost slot positions.
A spindle drive assembly for opening and/or closing a vehicle flap , comprising a spindle drive assembly housing which extends along a spindle drive axis and comprises, between its axial ends , a stop section acting axially on both sides, wherein a motor gear unit is arranged on a first axial side of the stop section and a spindle unit is arranged on a second axial side of the stop section opposite the first axial side , wherein the motor gear unit is placed against the first axial side of the stop section and the spindle unit is placed against the second axial side of the stop section , wherein the spindle drive assembly housing is tubular with a substantially circular cross-section, wherein that part of the spindle drive assembly housing in which the motor gear unit and the spindle unit are seated is manufactured in one piece, wherein the spindle drive assembly housing comprises a housing cap , which closes the spindle drive assembly housing on the motor gear input side, wherein the motor gear unit includes a spindle drive motor , which is coupled to a gearing via a motor shaft , characterized in that the housing cap is laser welded inside the spindle drive assembly housing , wherein the spindle drive motor and the motor gear unit are supported in the spindle drive assembly housing so as to be rotationally fixed with respect to the spindle drive axis by means of an interlocking fit, wherein the spindle drive motor is supported at the housing cap so as to be rotationally fixed by means of an interlocking fit. wherein a motor gear unit is arranged on a first axial side of the stop section and a spindle unit is arranged on a second axial side of the stop section opposite the first axial side , wherein the motor gear unit is placed against the first axial side of the stop section and the spindle unit is placed against the second axial side of the stop section , wherein the spindle drive assembly housing is tubular with a substantially circular cross-section, wherein that part of the spindle drive assembly housing in which the motor gear unit and the spindle unit are seated is manufactured in one piece, wherein the spindle drive assembly housing comprises a housing cap , which closes the spindle drive assembly housing on the motor gear input side, wherein the motor gear unit includes a spindle drive motor , which is coupled to a gearing via a motor shaft , characterized in that the housing cap is laser welded inside the spindle drive assembly housing , wherein the spindle drive motor and the motor gear unit are supported in the spindle drive assembly housing so as to be rotationally fixed with respect to the spindle drive axis by means of an interlocking fit, wherein the spindle drive motor is supported at the housing cap so as to be rotationally fixed by means of an interlocking fit.
A method for decrypting, the method comprising: transmitting, by a computing device, to a data storage server storing encrypted data, a user authentication request for accessing the encrypted data; receiving, by the computing device, from the data storage server , a validation token associated with the user authentication request, wherein the validation token indicates that the user successfully authenticated; transmitting, by the computing device, the validation token to a first key server; in response to transmitting the validation token, receiving, by the computing device from the first key server, a first key required for decrypting the encrypted data, the first key being associated with a first secret; transmitting, by the computing device, the validation token to a second key server; receiving, by the computing device, a second key associated with a second secret; and decrypting, by the computing device, at least a portion of the encrypted data using the first key, wherein either the first key or the second key alone only allows the computing device to decrypt a first portion of the encrypted data, and wherein both the first key and the second key are required to allow the computing device to decrypt a second portion of the encrypted data including the first portion of the encrypted data. transmitting, by a computing device, to a data storage server storing encrypted data, a user authentication request for accessing the encrypted data; receiving, by the computing device, from the data storage server , a validation token associated with the user authentication request, wherein the validation token indicates that the user successfully authenticated; transmitting, by the computing device, the validation token to a first key server; in response to transmitting the validation token, receiving, by the computing device from the first key server, a first key required for decrypting the encrypted data, the first key being associated with a first secret; transmitting, by the computing device, the validation token to a second key server; receiving, by the computing device, a second key associated with a second secret; and decrypting, by the computing device, at least a portion of the encrypted data using the first key, wherein either the first key or the second key alone only allows the computing device to decrypt a first portion of the encrypted data, and wherein both the first key and the second key are required to allow the computing device to decrypt a second portion of the encrypted data including the first portion of the encrypted data.
A method performed by a first communication device for performing one or more actions to resolve a state mismatch between the first communication device and a second communication device operating in a communications network , the method comprising: determining a time, between a transmission of a connection request message to the second communication device and a transmission of a first data transmission to the second communication device , based on a probability of occurrence of the state mismatch between the first communication device and the second communication device ; searching for one or more transmissions from the second communication device that are indicative of the state mismatch between the first communication device and the second communication device , wherein a time for the searching for the one or more transmissions is based on the determined time between the transmission of the connection request message and the transmission of the first data transmission; and upon detection of the one or more transmissions, performing one or more actions to resolve the state mismatch, the performing of the one or more actions being according to one of: a) a current state of the second communication device and b) a transition to a state different from a current state of the first communication device . determining a time, between a transmission of a connection request message to the second communication device and a transmission of a first data transmission to the second communication device , based on a probability of occurrence of the state mismatch between the first communication device and the second communication device ; searching for one or more transmissions from the second communication device that are indicative of the state mismatch between the first communication device and the second communication device , wherein a time for the searching for the one or more transmissions is based on the determined time between the transmission of the connection request message and the transmission of the first data transmission; and upon detection of the one or more transmissions, performing one or more actions to resolve the state mismatch, the performing of the one or more actions being according to one of: a) a current state of the second communication device and b) a transition to a state different from a current state of the first communication device .
A medical container for storing red blood cells comprising: one or more container walls defining an interior chamber, wherein each of said one or more container walls is made of a composition comprising (a) one or more polymeric materials comprising polyvinyl chloride; (b) at least one extractable agent comprising a di-2-ethyl hexyl terephthalate in an amount effective to suppress hemolysis in red blood cells; and (c) one or more additional extractable agents selected from the plasticizer group of citrate esters, wherein the at least one extractable agent and the one or more additional extractable agents comprises approximately 20%-45%, by weight of said composition, and preferably of which at least approximately 5% by weight is said di-2-ethyl hexyl terephthalate. (a) one or more polymeric materials comprising polyvinyl chloride; (b) at least one extractable agent comprising a di-2-ethyl hexyl terephthalate in an amount effective to suppress hemolysis in red blood cells; and (c) one or more additional extractable agents selected from the plasticizer group of citrate esters,
An apparatus for post-processing 2D cross-sectional slice images (110a-d), the apparatus comprising: - a graphical user interface controller ; - a segmenter unit ; and - a goodness of segmentation evaluater ; wherein the graphical user interface controller is configured to generate for display on a screen a graphical user interface , the user interface when so displayed comprising an interactive first window widget displaying on the screen an initial slice based on one or more of the 2D slices, the window widget configured to allow a user to specify position data of a segmentation seed point anywhere on the displayed initial slice ; wherein the segmenter unit is configured to access, in response to the user specifying the position data, the 2D slices and to segment each of a plurality of the 2D slices by using the segmentation seed point as a common seed point for each of the segmentations; wherein the goodness of segmentation evaluater is configured to establish, by comparison, from among the plurality of the segmented 2D slices the best slice having a segmentation with the best goodness of segmentation value, said goodness of segmentation value being based on one or more image contrast criteria; and wherein the graphical user interface controller is further configured to update the first window widget to display therein, instead of the initial slice, the best slice or to display therein the best slice with the best segmentation overlaid or to generate for display on the screen in a second window widget the best segmentation overlaid on a second image based on all or a selection of the 2D slices. - a graphical user interface controller ; - a segmenter unit ; and - a goodness of segmentation evaluater ; wherein the graphical user interface controller is configured to generate for display on a screen a graphical user interface , the user interface when so displayed comprising an interactive first window widget displaying on the screen an initial slice based on one or more of the 2D slices, the window widget configured to allow a user to specify position data of a segmentation seed point anywhere on the displayed initial slice ; wherein the segmenter unit is configured to access, in response to the user specifying the position data, the 2D slices and to segment each of a plurality of the 2D slices by using the segmentation seed point as a common seed point for each of the segmentations; wherein the goodness of segmentation evaluater is configured to establish, by comparison, from among the plurality of the segmented 2D slices the best slice having a segmentation with the best goodness of segmentation value, said goodness of segmentation value being based on one or more image contrast criteria; and wherein the graphical user interface controller is further configured to update the first window widget to display therein, instead of the initial slice, the best slice or to display therein the best slice with the best segmentation overlaid or to generate for display on the screen in a second window widget the best segmentation overlaid on a second image based on all or a selection of the 2D slices.
A radio-frequency identification, RFID, device comprising: a first strap conductor comprised of at least one pair of strap pads and an RFID chip connected between the at least one pair of strap pads ; an antenna conductor ; a second conductor ; and a dielectric positioned between the first strap conductor and the second conductor , characterized in that the second conductor is a bridge conductor arranged to couple the first strap conductor and the antenna conductor ; wherein the second conductor , the first strap conductor , and the antenna conductor are arranged to overlap each other to provide a mutual area with separating dielectrics such that the second conductor , the first strap conductor , and the antenna conductor are coupled via a plurality of capacitors each having a capacitance value, and wherein a capacitor formed by the first strap conductor and the antenna conductor has larger capacitive value in comparison to capacitors formed by: the coupling between the second conductor and the first strap conductor , and the coupling between the second conductor and the antenna conductor . a first strap conductor comprised of at least one pair of strap pads and an RFID chip connected between the at least one pair of strap pads ; an antenna conductor ; a second conductor ; and a dielectric positioned between the first strap conductor and the second conductor , characterized in that the second conductor is a bridge conductor arranged to couple the first strap conductor and the antenna conductor ; wherein the second conductor , the first strap conductor , and the antenna conductor are arranged to overlap each other to provide a mutual area with separating dielectrics such that the second conductor , the first strap conductor , and the antenna conductor are coupled via a plurality of capacitors each having a capacitance value, and wherein a capacitor formed by the first strap conductor and the antenna conductor has larger capacitive value in comparison to capacitors formed by: the coupling between the second conductor and the first strap conductor , and the coupling between the second conductor and the antenna conductor . the coupling between the second conductor and the first strap conductor , and the coupling between the second conductor and the antenna conductor .
Brake system with a first emergency brake control valve means , a first emergency brake flow path (NBa) which is operatively connected to at least one compressed-air brake cylinder for compressed air applied by the first emergency brake control valve means , an emergency line (NL) and a switch-over valve means , of which the pneumatic control connection (38a 4 ) is connected to the emergency line (NL), wherein the emergency line (NL), in service operating mode of the brake system , is kept at zero pressure (ND=0) and in emergency operating mode of the brake system , a pressure (ND≠0) is applied to the emergency line (NL), so that the first switch-over valve means is kept in a first position in a service operating mode and is kept in a second position in an emergency operating mode, characterised in that the first switch-over valve means is embodied such that, in its first position, the first emergency brake flow path (NBa) is cleared and a first emergency flow path (NFa) for compressed air applied by an emergency control valve means is blocked and that, in its second position, the first emergency brake flow path (NBa) is blocked and the first emergency flow path (NFa) is cleared.