mhurhangee/ep-ind-claims huggingface dataset:
A data transmission method, comprising: sending, by a secondary base station, first information to a primary base station, wherein the first information comprises one of the number x of first physical uplink control channel PUCCH code channel resources, the number x of first data blocks sent by the secondary base station to a user equipment UE, and a first channel code word, so that the primary base station determines identifiers of the x first PUCCH code channel resources and the x first data blocks, wherein the first PUCCH code channel resource is used for sending a feedback for the first data block to the primary base station by the UE, and the first channel code word is a channel code word corresponding to the x first data blocks; receiving, by the secondary base station, the identifiers of the x first PUCCH code channel resources and the x first data blocks that are sent by the primary base station; sending, by the secondary base station, the identifiers of the x first PUCCH code channel resources and the x first data blocks to the UE; and receiving, by the secondary base station, the feedback from the primary base station, wherein the feedback is received by the primary base station from the UE by using the first PUCCH code channel resource, wherein the secondary base station serves a secondary component carrier of the UE, and the primary base station serves a primary component carrier of the UE. sending, by a secondary base station, first information to a primary base station, wherein the first information comprises one of the number x of first physical uplink control channel PUCCH code channel resources, the number x of first data blocks sent by the secondary base station to a user equipment UE, and a first channel code word, so that the primary base station determines identifiers of the x first PUCCH code channel resources and the x first data blocks, wherein the first PUCCH code channel resource is used for sending a feedback for the first data block to the primary base station by the UE, and the first channel code word is a channel code word corresponding to the x first data blocks; receiving, by the secondary base station, the identifiers of the x first PUCCH code channel resources and the x first data blocks that are sent by the primary base station; sending, by the secondary base station, the identifiers of the x first PUCCH code channel resources and the x first data blocks to the UE; and receiving, by the secondary base station, the feedback from the primary base station, wherein the feedback is received by the primary base station from the UE by using the first PUCCH code channel resource, wherein the secondary base station serves a secondary component carrier of the UE, and the primary base station serves a primary component carrier of the UE.
A jig saw, comprising a clamping assembly for removably clamping a saw blade and a drive mechanism, wherein the clamping assembly is connected to the drive mechanism and comprises an actuating member and a clamping member (34, 36); the actuating member configured to rotate about a first axis to drive the clamping member to effect locking or unlocking of the saw blade; wherein the first axis is substantially parallel to a length direction of the saw blade when it is installed on the jig saw; the clamping assembly further comprising a motion conversion mechanism (30, 36) adapted to convert a rotational motion about the first axis to a linear motion along the length direction; the motion conversion mechanism comprising an intermediate member and a fixing member; the intermediate member comprising one of an internal thread and an external thread, and the fixing member fixedly connected to the drive member and comprising the other one of the internal thread and the external thread; the intermediate member adapted to be driven by the actuating member to rotate around the fixing member, and during the rotation the intermediate member simultaneously moving relative to the fixing member linearly; the clamping member comprising a body and a clamping piece; the body acting as the fixing member of the motion conversion mechanism; the clamping piece adapted to be driven by the intermediate member to perform the linear motion, and the clamping piece adapted to move along a second axis during the linear motion to effect locking or unlocking of the saw blade; characterized in that the clamping piece is a locking pin and said body includes a chute; said locking pin received within said chute and adapted to move along the chute; the orientation of the chute being neither parallel to the first axis nor perpendicular to the first axis.
A composition comprising a HB-X fusion protein, wherein HB is a heparin binding peptide having the amino acid sequence (MKRKKKGKGLGKKRDPSLRKYK) (SEQ ID NO: 1) or (KRKKKGKGLGKKRDPSLRKYK) (SEQ ID NO:2), and X is Insulin-like growth factor 1 (IGF-1) having the amino acid sequence of SEQ ID NO: 4 or SEQ ID NO: 5 wherein the HB is fused to the N-terminus of IGF-1 or the HB-X fusion protein variant having the amino acid sequence of SEQ ID NO: 15.
Retention device for at least one cooling tube of a cooling system of a turbomachine casing, the casing extending around an axial direction of the turbomachine, the retention device comprising a fixing plate suited to being made integral with the casing and a retention element for the cooling tube, said retention device being characterised in that it comprises an adjustment means (183, 150, 170) configured to adjust the relative position of said retention element with respect to said fixing plate and to absorb a relative movement between the retention element and the fixing plate.
A system for manufacturing ice, the system comprising: a freezing module being configured for creating clear ice sheets, the freezing module comprising: a frame comprising a plurality of levels; a plate freezer provided at each level; at least one mold for placement on each plate freezer and suitable for receiving water to form an ice sheet, wherein the mold has a length, a width, and a depth, and wherein the depth is less than each of the length and the width; and a circulation pump associated with each mold, wherein the circulation pump circulates water in the mold to release air bubbles as the water freezes; a converting station being configured for converting the ice sheet into a plurality of pieces of ice, wherein the converting station comprises: a saw being configured to trim a top surface of the ice sheet; and one or more saws being configured to cut the ice sheet into the plurality of pieces of ice; and a control frame being associated with each plate freezer, wherein the control frame is movable from an elevated position to a fill position, wherein in the fill position, the control frame is at least partially disposed within the mold. a freezing module being configured for creating clear ice sheets, the freezing module comprising: a frame comprising a plurality of levels; a plate freezer provided at each level; at least one mold for placement on each plate freezer and suitable for receiving water to form an ice sheet, wherein the mold has a length, a width, and a depth, and wherein the depth is less than each of the length and the width; and a circulation pump associated with each mold, wherein the circulation pump circulates water in the mold to release air bubbles as the water freezes; a frame comprising a plurality of levels; a plate freezer provided at each level; at least one mold for placement on each plate freezer and suitable for receiving water to form an ice sheet, wherein the mold has a length, a width, and a depth, and wherein the depth is less than each of the length and the width; and a circulation pump associated with each mold, wherein the circulation pump circulates water in the mold to release air bubbles as the water freezes; a converting station being configured for converting the ice sheet into a plurality of pieces of ice, wherein the converting station comprises: a saw being configured to trim a top surface of the ice sheet; and one or more saws being configured to cut the ice sheet into the plurality of pieces of ice; and a saw being configured to trim a top surface of the ice sheet; and one or more saws being configured to cut the ice sheet into the plurality of pieces of ice; and a control frame being associated with each plate freezer, wherein the control frame is movable from an elevated position to a fill position, wherein in the fill position, the control frame is at least partially disposed within the mold.
A process for refining a trialkanolamine from a mixed alkanolamine obtained by a reaction of an alkylene oxide with ammonia, comprising the following steps: a) distilling aqueous ammonia from the mixed alkanolamine obtained by the reaction of alkylene oxide with ammonia; b) distilling water from the mixed alkanolamine obtained in step a); c) distilling monoalkanolamine from the mixed alkanolamine obtained in step b); d) distilling dialkanolamine from the mixed alkanolamine obtained in step c); and e) distilling the raw material trialkanolamine obtained in step d), characterized by adding to the raw material trialkanolamine, obtained in step d), a low-boiling compound, having a boiling point less than that of the trialkanolamine, prior to distillation step e). a) distilling aqueous ammonia from the mixed alkanolamine obtained by the reaction of alkylene oxide with ammonia; b) distilling water from the mixed alkanolamine obtained in step a); c) distilling monoalkanolamine from the mixed alkanolamine obtained in step b); d) distilling dialkanolamine from the mixed alkanolamine obtained in step c); and e) distilling the raw material trialkanolamine obtained in step d),
Closure arrangement for an opening of a cabinet having a side wall and a side wall, wherein the closure arrangement has at least one front blind, wherein the front blind can be guided in guides of the closure arrangement which, in the mounted state of the closure arrangement, are arranged on both the side wall and the side wall, wherein the front blind has slats (10, 10') arranged parallel to one another, wherein at least one slat has at least one first sliding element on each end side and wherein a last slat has at least one second sliding element on each end side, wherein the sliding elements (2, 3) have, on their sides pointing outwardly towards the walls of the opening, at least one guide element (21, 31) which engages in one of the guides, and wherein the guides each have a first guide and a second guide arranged substantially parallel thereto, wherein the guide elements of the first sliding elements of the at least one slat can be guided in the second guides and the guide elements of the second sliding elements of the last slat can be guided in the first guides, characterized in that, in a deflection region of the guides, the second guides are arranged at such a distance from the first guides that the ratio of the radii of the guides (51, 52) is at least 2, and wherein the guide elements (21, 31) are arranged in one piece on the sliding elements (2, 3).
A system for performing a dialysis treatment, the system including: a blood treatment device, in particular a dialyzer, and a tank, from which dialyzing fluid is taken while performing the blood treatment, and into which dialyzing fluid consumed during the performance of the blood treatment is filled, wherein the tank forms part of a mobile device, which can be connected to the blood treatment device in such a way that a fluidic connection can be established between the tank and the blood treatment device, and the system further comprises a filling unit, by means of which the tank of the mobile device can be filled with dialyzing fluid, characterized in that the tank is configured in the form of multiple individual tanks, from which a first tank serves to dispense dialyzing fluid and a second tank serves to receive consumed dialyzing fluid, wherein the second tank for the consumed dialysate encloses the first tank for the fresh dialysate. a blood treatment device, in particular a dialyzer, and a tank, from which dialyzing fluid is taken while performing the blood treatment, and into which dialyzing fluid consumed during the performance of the blood treatment is filled, wherein the tank forms part of a mobile device, which can be connected to the blood treatment device in such a way that a fluidic connection can be established between the tank and the blood treatment device, and the system further comprises a filling unit, by means of which the tank of the mobile device can be filled with dialyzing fluid, characterized in that the tank is configured in the form of multiple individual tanks, from which a first tank serves to dispense dialyzing fluid and a second tank serves to receive consumed dialyzing fluid, wherein the second tank for the consumed dialysate encloses the first tank for the fresh dialysate.
A method for storing data in a memory in a terminal wherein the memory comprises multiple reserved areas, each reserved area assigned to a functional unit, characterised by each reserved area being configured with a respective data withdrawal condition from a data withdrawal condition set, the method comprising: if the functional unit assigned to a reserved area is not driven, using the reserved area by the operating system for storing general purpose data; and if the functional unit is driven, processing the general purpose data stored in the reserved area based on the configured data withdrawal condition so that the reserved area is made available to the assigned functional unit, wherein the data withdrawal condition is one of a data discard condition for deleting data, a move-to-non-reserved area condition for moving data to non-reserved areas, and a move-to-secondary storage condition for moving data to a secondary storage. if the functional unit assigned to a reserved area is not driven, using the reserved area by the operating system for storing general purpose data; and if the functional unit is driven, processing the general purpose data stored in the reserved area based on the configured data withdrawal condition so that the reserved area is made available to the assigned functional unit, wherein the data withdrawal condition is one of a data discard condition for deleting data, a move-to-non-reserved area condition for moving data to non-reserved areas, and a move-to-secondary storage condition for moving data to a secondary storage.
A method for producing a membrane-electrode assembly for polymer electrolyte fuel cells, which comprises an anode and a cathode each having a catalyst layer comprising a catalyst and an electrolyte polymer, and an electrolyte membrane disposed therebetween, characterized in that at least one polymer among the polymer constituting the electrolyte membrane, the polymer contained in the anode catalyst layer and the polymer contained in the cathode catalyst layer, is produced by a process, characterized in that a perfluorinated polymer having precursor groups for sulfonic groups, is subjected to heat treatment for at least 0.1 hour at a temperature of from 200 to 300°C under a reduced pressure of at most 0.02 MPa and then contacted with fluorine gas at a temperature of from 150 to 200°C and further subjected to hydrolysis and treatment for conversion to an acid form, to convert the precursor groups to sulfonic groups.
A rubber composition for tire obtainable by a method for producing a rubber composition comprising: (a) preparing a preliminary composition by preparing a first mixture containing all of or a part of a diene based rubber, a silica, a silane coupling agent and at least one activator selected from guanidines, cysteines, thioureas, ammonium thiocyanates, zinc dialkyl dithiophosphates or thiadiazoles, and containing a glycerin fatty acid ester, and kneading the first mixture; and (b) preparing the rubber composition by adding a vulcanizing agent into the preliminary composition to prepare a second mixture, and kneading the second mixture, wherein: the glycerin fatty acid ester is an ester of a glycerin and two or more fatty acids, a fatty acid component which is the most among the two or more fatty acids constituting the glycerin fatty acid ester being 10 to 90 mass% of all fatty acids; among the two or more fatty acids constituting the glycerin fatty acid ester, one among the most fatty acid component and a second most fatty acid component is a fatty acid with 16 carbon atoms, and the other is a fatty acid with 18 carbon atoms; and a compounding amount of the glycerin fatty acid ester is 0.5 to 20 parts by mass per 100 parts by mass of the silica. (a) preparing a preliminary composition by preparing a first mixture containing all of or a part of a diene based rubber, a silica, a silane coupling agent and at least one activator selected from guanidines, cysteines, thioureas, ammonium thiocyanates, zinc dialkyl dithiophosphates or thiadiazoles, and containing a glycerin fatty acid ester, and kneading the first mixture; and (b) preparing the rubber composition by adding a vulcanizing agent into the preliminary composition to prepare a second mixture, and kneading the second mixture, wherein: the glycerin fatty acid ester is an ester of a glycerin and two or more fatty acids, a fatty acid component which is the most among the two or more fatty acids constituting the glycerin fatty acid ester being 10 to 90 mass% of all fatty acids; among the two or more fatty acids constituting the glycerin fatty acid ester, one among the most fatty acid component and a second most fatty acid component is a fatty acid with 16 carbon atoms, and the other is a fatty acid with 18 carbon atoms; and a compounding amount of the glycerin fatty acid ester is 0.5 to 20 parts by mass per 100 parts by mass of the silica. the glycerin fatty acid ester is an ester of a glycerin and two or more fatty acids, a fatty acid component which is the most among the two or more fatty acids constituting the glycerin fatty acid ester being 10 to 90 mass% of all fatty acids; among the two or more fatty acids constituting the glycerin fatty acid ester, one among the most fatty acid component and a second most fatty acid component is a fatty acid with 16 carbon atoms, and the other is a fatty acid with 18 carbon atoms; and a compounding amount of the glycerin fatty acid ester is 0.5 to 20 parts by mass per 100 parts by mass of the silica.
A method performed by a user equipment to communicate with a base station, comprising: receiving configuration of a first bandwidth corresponding to an enhanced physical downlink control channel, EPDCCH, bandwidth from the base station; monitoring the first bandwidth; receiving a probe message from the base station within the first bandwidth in a first subframe, the probe message is usable to indicate the user equipment to monitor a second bandwidth, corresponding to a system bandwidth, wherein the probe message comprises a bandwidth indicator indicating a bandwidth for the user equipment to monitor, wherein the probe message is a downlink control information, DCI, a cyclic redundancy check, CRC, of the DCI is scrambled with a cell radio network temporary identifier, C-RNTI, and the bandwidth indicator is a one-bit field that is set to a first value to indicate the first bandwidth monitoring by the user equipment and is set to a second value to indicate the second bandwidth monitoring by the user equipment; communicating (408, 420) control information and data with the base station using the second bandwidth in a second subframe. receiving configuration of a first bandwidth corresponding to an enhanced physical downlink control channel, EPDCCH, bandwidth from the base station; monitoring the first bandwidth; receiving a probe message from the base station within the first bandwidth in a first subframe, the probe message is usable to indicate the user equipment to monitor a second bandwidth, corresponding to a system bandwidth, wherein the probe message comprises a bandwidth indicator indicating a bandwidth for the user equipment to monitor, wherein the probe message is a downlink control information, DCI, a cyclic redundancy check, CRC, of the DCI is scrambled with a cell radio network temporary identifier, C-RNTI, and the bandwidth indicator is a one-bit field that is set to a first value to indicate the first bandwidth monitoring by the user equipment and is set to a second value to indicate the second bandwidth monitoring by the user equipment; communicating (408, 420) control information and data with the base station using the second bandwidth in a second subframe.
A method for handling flat objects, in particular sanitary articles such as diapers, sanitary napkins or the like, wherein the objects are conveyed along a transport section in a product flow and are then put together in a grouping station to form groups of objects, wherein objects are introduced into the product flow in the region of an inlet station before the objects are put together to form groups, characterized in that the objects are made available in a hopper (39, 71) in the region of the inlet station and are removed from said hopper and introduced into the product flow, wherein the objects are removed from the top of the hopper (39, 71) which is situated below the transport section, and wherein the objects are moved upward in the hopper (39, 71) by means of a lifting device (45, 72), wherein the lifting device (45, 72) is controlled by a control unit in dependence on the thickness of the objects.
A black matrix comprising at least a first carbon black, the first carbon black having an I 2 number from 30 mg/g to 200 mg/g, a DBP from 20 cc/100g to 45 cc/100g, a concentration of Group IA and IIA elements, in μg/g, of at most y + (15*I 2 number), wherein y is 250, and an M-ratio of from 1 to less than 1.25.