mhurhangee/ep-ind-claims huggingface dataset:
A transmitter configured to transmit a synchronisation signal of a first type in M 1 symbols l i, 0 ≤ i ≤ ( M 1 - 1), of a subframe and a synchronisation signal of a second type in M 2 symbols k j, 0 ≤ j ≤ ( M 2 - 1), of the subframe, wherein the subframe comprises N symbols, wherein N ≥ M 2 ≥ M 1 ≥ 2, wherein the synchronisation signal of the first type and the synchronisation signal of the second type comprise different information, wherein the synchronisation signal of the first type and the synchronisation signal of the second type have to be successfully detected to acquire a sufficient synchronisation and the synchronisation signal of the first type has to be detected before the synchronisation signal of the second type, wherein the transmitter comprises: a processor configured to determine in which symbols l i of the subframe the synchronisation signal of the first type is to be transmitted, and calculate in which symbols k j of the subframe the synchronisation signal of the second type is to be transmitted by placing each of the M 2 symbols k j at a determined symbol distance from an associated symbol l i, wherein the determined symbol distance between each of the M 2 symbols k j and the respective associated symbol l i is equal for all of the M 1 symbols l i in the subframe and comprises a set of ┌ M 2 / M 1 ┐ integer values; and a transmitting circuit configured to transmit the synchronisation signals of the first type in the determined M 1 symbols l i of the subframe and the synchronisation signals of the second type in the calculated M 2 symbols k j of the subframe, wherein the M 1 symbols l i are determined to be contiguously located in subsequent symbols l i, such that: l i +1 = l i + 1. a processor configured to determine in which symbols l i of the subframe the synchronisation signal of the first type is to be transmitted, and calculate in which symbols k j of the subframe the synchronisation signal of the second type is to be transmitted by placing each of the M 2 symbols k j at a determined symbol distance from an associated symbol l i, wherein the determined symbol distance between each of the M 2 symbols k j and the respective associated symbol l i is equal for all of the M 1 symbols l i in the subframe and comprises a set of ┌ M 2 / M 1 ┐ integer values; and a transmitting circuit configured to transmit the synchronisation signals of the first type in the determined M 1 symbols l i of the subframe and the synchronisation signals of the second type in the calculated M 2 symbols k j of the subframe, wherein the M 1 symbols l i are determined to be contiguously located in subsequent symbols l i, such that: l i +1 = l i + 1.
A method for reducing a peak to average power ratio of a signal in a wireless communication system, the method comprising: modulating a data stream into a plurality of symbols; dividing the plurality of symbols into symbol groups; applying a Fourier transform, IFFT or IDFT, to each of the symbol groups; applying a delay to at least one of the transformed symbol groups; calculating a peak to average power ratio of the symbol groups; determining whether the peak to average power ratio of the symbol groups is below a predetermined value; reapplying a delay to at least one of the transformed symbol groups if the peak to average power ratio of the symbol groups is not below the predetermined value; recombining all symbol groups; and recalculating the peak to average power ratio of the recombined symbol groups, wherein the determining, reapplying, recombining and recalculating steps are repeated until the peak to average power ratio of the recombined symbol groups is below the predetermined value or a minimum possible peak to average power ratio value is obtained. modulating a data stream into a plurality of symbols; dividing the plurality of symbols into symbol groups; applying a Fourier transform, IFFT or IDFT, to each of the symbol groups; applying a delay to at least one of the transformed symbol groups; calculating a peak to average power ratio of the symbol groups; determining whether the peak to average power ratio of the symbol groups is below a predetermined value; reapplying a delay to at least one of the transformed symbol groups if the peak to average power ratio of the symbol groups is not below the predetermined value; recombining all symbol groups; and recalculating the peak to average power ratio of the recombined symbol groups, wherein the determining, reapplying, recombining and recalculating steps are repeated until the peak to average power ratio of the recombined symbol groups is below the predetermined value or a minimum possible peak to average power ratio value is obtained.
An asymmetric hollow fiber membrane comprising: a porous substrate having a plurality of pores, wherein the porous substrate comprises at least one semi-crystalline thermoplastic polyolefin (co)polymer; and a skin layer overlaying the porous substrate, wherein the skin layer comprises at least one polydiorganosiloxane polyoxamide copolymer comprising at least two repeat units of Formula I: wherein: each R 1 is independently an alkyl, haloalkyl, aralkyl, alkenyl, aryl, or aryl substituted with an alkyl, alkoxy, or halo; each Y is independently an alkylene, aralkylene, or a combination thereof; G is a divalent residue equal to a diamine of formula R 3 HN-G-NHR 3 minus the two -NHR 3 groups; R 3 is hydrogen or alkyl or R 3 taken together with G and to the nitrogen to which they are both attached form a heterocyclic group; n is independently an integer of 0 to 1500; p is an integer of 1 to 10; and q is an integer of 1 or greater, optionally wherein n, p and q are selected so that the polydiorganosiloxane block comprises at least 50 mass percent of the polydiorganosiloxane polyoxamide copolymer. a porous substrate having a plurality of pores, wherein the porous substrate comprises at least one semi-crystalline thermoplastic polyolefin (co)polymer; and a skin layer overlaying the porous substrate, wherein the skin layer comprises at least one polydiorganosiloxane polyoxamide copolymer comprising at least two repeat units of Formula I: wherein: each R 1 is independently an alkyl, haloalkyl, aralkyl, alkenyl, aryl, or aryl substituted with an alkyl, alkoxy, or halo; each Y is independently an alkylene, aralkylene, or a combination thereof; G is a divalent residue equal to a diamine of formula R 3 HN-G-NHR 3 minus the two -NHR 3 groups; R 3 is hydrogen or alkyl or R 3 taken together with G and to the nitrogen to which they are both attached form a heterocyclic group; n is independently an integer of 0 to 1500; p is an integer of 1 to 10; and q is an integer of 1 or greater, optionally wherein n, p and q are selected so that the polydiorganosiloxane block comprises at least 50 mass percent of the polydiorganosiloxane polyoxamide copolymer. each R 1 is independently an alkyl, haloalkyl, aralkyl, alkenyl, aryl, or aryl substituted with an alkyl, alkoxy, or halo; each Y is independently an alkylene, aralkylene, or a combination thereof; G is a divalent residue equal to a diamine of formula R 3 HN-G-NHR 3 minus the two -NHR 3 groups; R 3 is hydrogen or alkyl or R 3 taken together with G and to the nitrogen to which they are both attached form a heterocyclic group; n is independently an integer of 0 to 1500; p is an integer of 1 to 10; and q is an integer of 1 or greater, optionally wherein n, p and q are selected so that the polydiorganosiloxane block comprises at least 50 mass percent of the polydiorganosiloxane polyoxamide copolymer.
An epoxy resin composition comprising: (a) a glycidylglycoluril represented by the general formula (Bf): wherein R 1 and R 2 each independently represents a hydrogen atom, a lower alkyl or a phenyl group; or (b) an epoxy resin, wherein at least one component of the epoxy resin is a glycidylglycoluril represented by the general formula (Bf): wherein R 1 and R 2 each independently represents a hydrogen atom, a lower alkyl or a phenyl group. (a) a glycidylglycoluril represented by the general formula (Bf): wherein R 1 and R 2 each independently represents a hydrogen atom, a lower alkyl or a phenyl group; or (b) an epoxy resin, wherein at least one component of the epoxy resin is a glycidylglycoluril represented by the general formula (Bf): wherein R 1 and R 2 each independently represents a hydrogen atom, a lower alkyl or a phenyl group.
Refrigerator, comprising at least one cavity, which is surrounded by a housing with at least one outer wall formed from housing parts, wherein at least one outer wall of the housing is covered at least partially by a cover plate and wherein the cover plate is part of the structure of the housing part, by the cover plate being connected to the housing part by means of adhesion to inner insulation material of the housing part, characterised in that the cover plate is made of ceramic.
A plate heat exchanger in sealed design, having: - a stacked assembly comprising: - front and back end plates (22, 23), of which at least one end plate is designed as a connection plate, - heat exchanger plates, which are received and stacked between the front and back end plates (22, 23) in such a way that cavities for receiving a plurality of heat exchanger media are formed between said heat exchanger plates, and - sealing elements, which are arranged sealing the cavities, and - a clamping device (28, 29, 30), which is configured to exert an external clamping pressure on the stacked assembly to be clamped, wherein the clamping device is formed to enclose the stacked assembly in an interlocking manner, at least in sections, specifically at least in a corner region of the stacked assembly, characterized in that the clamping device is formed with a plurality of closed profile elements which each enclose the stacked assembly, and that the clamping device is formed with adjustable biasing elements (29, 30), which are formed with screw elements and which are arranged on the plurality of profile elements and which are configured to apply the external clamping pressure to the stacked assembly in such a way that the biasing elements (29, 30) press against the back end plate in order to generate a bias. - a stacked assembly comprising: - front and back end plates (22, 23), of which at least one end plate is designed as a connection plate, - heat exchanger plates, which are received and stacked between the front and back end plates (22, 23) in such a way that cavities for receiving a plurality of heat exchanger media are formed between said heat exchanger plates, and - sealing elements, which are arranged sealing the cavities, and - front and back end plates (22, 23), of which at least one end plate is designed as a connection plate, - heat exchanger plates, which are received and stacked between the front and back end plates (22, 23) in such a way that cavities for receiving a plurality of heat exchanger media are formed between said heat exchanger plates, and - sealing elements, which are arranged sealing the cavities, and - a clamping device (28, 29, 30), which is configured to exert an external clamping pressure on the stacked assembly to be clamped,
Battery arrangement for a motor vehicle comprising a plurality of battery modules, wherein each of the battery modules - comprises a plurality of battery cells, each of which is coupled to a measuring cable, - is coupled to a respective control unit, by means of which a value for a cell voltage can be determined at each of the measuring cables of the battery cells, and - can be electrically coupled respectively to an adjacent battery module wherein - at least one first measuring cable of one of the battery cells is coupled in a first battery module to a control unit of an adjacent second battery module, wherein by means of the control unit of the adjacent second battery module a value for the cell voltage can be determined at the first measuring cable, characterised in that - a low-voltage cable is provided for supplying the control units of the first and the adjacent second battery module with electric power, wherein the low-voltage cable comprises an electric line element, by means of which the first measuring cable is coupled to the control unit of the adjacent second battery module. - comprises a plurality of battery cells, each of which is coupled to a measuring cable, - is coupled to a respective control unit, by means of which a value for a cell voltage can be determined at each of the measuring cables of the battery cells, and - can be electrically coupled respectively to an adjacent battery module wherein - at least one first measuring cable of one of the battery cells is coupled in a first battery module to a control unit of an adjacent second battery module, wherein by means of the control unit of the adjacent second battery module a value for the cell voltage can be determined at the first measuring cable, - a low-voltage cable is provided for supplying the control units of the first and the adjacent second battery module with electric power, wherein the low-voltage cable comprises an electric line element, by means of which the first measuring cable is coupled to the control unit of the adjacent second battery module.
A light emitting structure, comprising: a light emitting device comprising: a light emitting element having a light emitting surface, a reflector having a reflective surface opposite the light emitting surface, and a spacer element that separates the reflective surface from the light emitting surface, wherein the spacer element provides a separation distance between the reflective surface and the light emitting surface such that at least half of the light emitted from the device is emitted at an angle greater than 90 degrees from a normal to the light emitting surface toward the reflector, wherein the substrate upon which the light emitting element is grown, or a substrate upon which the light emitting element is bonded forms the spacer element, and a reflective substrate (410, 510, 610, 710, 810, 1110) upon which the light emitting device is situated, characterized in that the reflective substrate (410, 510, 610, 710, 810, 1110) is at least five times larger than the light emitting device. a light emitting device comprising: a light emitting element having a light emitting surface, a reflector having a reflective surface opposite the light emitting surface, and a spacer element that separates the reflective surface from the light emitting surface, wherein the spacer element provides a separation distance between the reflective surface and the light emitting surface such that at least half of the light emitted from the device is emitted at an angle greater than 90 degrees from a normal to the light emitting surface toward the reflector, wherein the substrate upon which the light emitting element is grown, or a substrate upon which the light emitting element is bonded forms the spacer element, and a reflective substrate (410, 510, 610, 710, 810, 1110) upon which the light emitting device is situated, characterized in that the reflective substrate (410, 510, 610, 710, 810, 1110) is at least five times larger than the light emitting device. a light emitting element having a light emitting surface, a reflector having a reflective surface opposite the light emitting surface, and a spacer element that separates the reflective surface from the light emitting surface, wherein the spacer element provides a separation distance between the reflective surface and the light emitting surface such that at least half of the light emitted from the device is emitted at an angle greater than 90 degrees from a normal to the light emitting surface toward the reflector, wherein the substrate upon which the light emitting element is grown, or a substrate upon which the light emitting element is bonded forms the spacer element, and a reflective substrate (410, 510, 610, 710, 810, 1110) upon which the light emitting device is situated, characterized in that the reflective substrate (410, 510, 610, 710, 810, 1110) is at least five times larger than the light emitting device.
A cap assembly for a secondary battery, coupled to an open end of a battery can receiving an electrode assembly in which a cathode plate and an anode plate are disposed with a separator being interposed between them, the cap assembly comprising: a top cap disposed on an uppermost portion in a protrusive form to form a cathode terminal; a safety element disposed below the top cap to contact the top cap; a safety vent disposed to contact the safety element; a current intercepting member having an upper portion welded to a lower end of the safety vent and a lower portion capable of connecting to the electrode assembly; a first gasket surrounding an outer circumference of the current intercepting member; and a second gasket surrounding the rims of the top cap, the safety element, and the safety vent and having a lower end portion extending to surround the lower portion of the current intercepting member, and characterized in that a space is formed in a horizontal direction between the first gasket and the second gasket. a top cap disposed on an uppermost portion in a protrusive form to form a cathode terminal; a safety element disposed below the top cap to contact the top cap; a safety vent disposed to contact the safety element; a current intercepting member having an upper portion welded to a lower end of the safety vent and a lower portion capable of connecting to the electrode assembly; a first gasket surrounding an outer circumference of the current intercepting member; and a second gasket surrounding the rims of the top cap, the safety element, and the safety vent and having a lower end portion extending to surround the lower portion of the current intercepting member, and characterized in that a space is formed in a horizontal direction between the first gasket and the second gasket.
A computer implemented method comprising: receiving a data model, comprising a plurality of tables, each table comprising rows; partitioning a first table of the plurality of tables in the data model into a first plurality of blocks of rows, wherein a last block of rows of the first plurality of blocks of rows can be of a size less than the remaining blocks of rows; and generating a first plurality of indexlets for the first table of the plurality of tables in the data model, wherein each indexlet of the first plurality of indexlets corresponds to one of the first plurality of blocks of rows, determining a portion of the data model that is to be loaded into memory to process a query associated with at least one attribute stored in the first table, wherein the first plurality of indexlets are logically associated with a global attribute list that comprises, for each of a plurality of attributes stored in the first table, a reference to an indexlet, of the first plurality of indexlets, associated with a block of rows, of the plurality of blocks of rows, comprising a respective attribute of the plurality of attributes; and wherein each indexlet of the first plurality of indexlets indicates, for each row of the block of rows of the first plurality of blocks of rows associated with the corresponding indexlet, which of the plurality of attributes is stored in that row. receiving a data model, comprising a plurality of tables, each table comprising rows; partitioning a first table of the plurality of tables in the data model into a first plurality of blocks of rows, wherein a last block of rows of the first plurality of blocks of rows can be of a size less than the remaining blocks of rows; and generating a first plurality of indexlets for the first table of the plurality of tables in the data model, wherein each indexlet of the first plurality of indexlets corresponds to one of the first plurality of blocks of rows, determining a portion of the data model that is to be loaded into memory to process a query associated with at least one attribute stored in the first table, wherein the first plurality of indexlets are logically associated with a global attribute list that comprises, for each of a plurality of attributes stored in the first table, a reference to an indexlet, of the first plurality of indexlets, associated with a block of rows, of the plurality of blocks of rows, comprising a respective attribute of the plurality of attributes; and wherein each indexlet of the first plurality of indexlets indicates, for each row of the block of rows of the first plurality of blocks of rows associated with the corresponding indexlet, which of the plurality of attributes is stored in that row.
A control method of a laundry machine, the laundry machine comprising a drum, a duct configured to communicate with the tub and/or the drum, and a heater, a nozzle to directly eject water to the heater and a blower which are arranged within the duct, wherein the method includes a steam supply process with the steps of: heating by the heater a predetermined space within the duct that communicates with a tub and/or the drum of the laundry machine to a higher temperature than a temperature of the other space within the duct, wherein actuation of the nozzle and/or the blower stops in the heating step or stopping actuation of the nozzle and/or the blower is maintained for a partial duration of the heating step; directly supplying water to the heated predetermined space to generate steam, wherein actuation of the blower stops in the directly supplying water step or stopping actuation of the blower is maintained for a partial duration of the directly supplying water step; and supplying air flow toward the heated predetermined space by rotating the blower so as to supply the generated steam to the laundry in the drum, characterized in that the directly supplying water step and the supplying air flow step include ejecting water to the heater from the nozzle installed in or to a blower housing surrounding the blower to be close to a discharge portion of the blower through which air having passed through the blower is discharged, and wherein the heater is located at one longitudinal side of the duct, and the blower is located at the other longitudinal side of the duct. heating by the heater a predetermined space within the duct that communicates with a tub and/or the drum of the laundry machine to a higher temperature than a temperature of the other space within the duct, wherein actuation of the nozzle and/or the blower stops in the heating step or stopping actuation of the nozzle and/or the blower is maintained for a partial duration of the heating step; directly supplying water to the heated predetermined space to generate steam, wherein actuation of the blower stops in the directly supplying water step or stopping actuation of the blower is maintained for a partial duration of the directly supplying water step; and supplying air flow toward the heated predetermined space by rotating the blower so as to supply the generated steam to the laundry in the drum, characterized in that the directly supplying water step and the supplying air flow step include ejecting water to the heater from the nozzle installed in or to a blower housing surrounding the blower to be close to a discharge portion of the blower through which air having passed through the blower is discharged, and wherein the heater is located at one longitudinal side of the duct, and the blower is located at the other longitudinal side of the duct.
A thermally shielding body with at least one temperature-resistant fastening point, comprising a thermally shielding plate made from aluminium, wherein the thermally shielding plate has a cut-out in the region of the at least one fastening point, wherein a metal-plate element with greater heat resistance is arranged in the cut-out, which is connected in a material-to-material manner with the thermally shielding plate at the edge of the cut-out or the metal-plate element, wherein the at least one temperature-resistant fastening point is arranged on the metal-plate element; characterized in that the metal-plate element with greater heat resistance extends like a frame along at least a part of the edge of the thermally shielding plate made from aluminium.