mhurhangee/patent-ind-claim-en huggingface dataset:
A method for configuring a scheduling request, applied to a terminal device, the method comprising: receiving at least one bandwidth part, BWP, configured by a network side; receiving at least one scheduling request configuration configured by the network side for each of the at least one BWP, wherein the scheduling request configuration has a mapping relationship with a logical channel; receiving BWP activation information sent by the network side, wherein the BWP activation information is used to deactivate a first BWP currently used by the terminal device, and activate a second BWP in the at least one BWP configured for the terminal device, wherein the first BWP is different from the second BWP; after receiving the BWP activation information sent by the network side, determining the scheduling request configuration corresponding to the second BWP on the basis of the second BWP to be activated indicated in the BWP activation information and the at least one scheduling request configuration configured for each of the at least one BWP; and determining a logical channel mapped to the scheduling request configuration corresponding to the second BWP on the basis of the scheduling request configuration corresponding to the second BWP. receiving at least one bandwidth part, BWP, configured by a network side; receiving at least one scheduling request configuration configured by the network side for each of the at least one BWP, wherein the scheduling request configuration has a mapping relationship with a logical channel; receiving BWP activation information sent by the network side, wherein the BWP activation information is used to deactivate a first BWP currently used by the terminal device, and activate a second BWP in the at least one BWP configured for the terminal device, wherein the first BWP is different from the second BWP; after receiving the BWP activation information sent by the network side, determining the scheduling request configuration corresponding to the second BWP on the basis of the second BWP to be activated indicated in the BWP activation information and the at least one scheduling request configuration configured for each of the at least one BWP; and determining a logical channel mapped to the scheduling request configuration corresponding to the second BWP on the basis of the scheduling request configuration corresponding to the second BWP.
A bend restrictor comprising plural elements , each element comprising a first part and a second part which together provide a cavity for receipt of a flexible pipe , in use, the two parts being pivotably connected together at a first portion thereof and being releasably coupled or couplable together at a second portion thereof by a removable joining member , the first and second parts of two or more of the plural elements are pivotably connected along a common pivot axis characterised in that the removable joining member extends between two or more of the plural elements , thereby releasably coupling the parts of each element together.
A hollow barrier segment which is fillable with a ballasting material for use in assembling an array of hollow barrier segments attached end-to-end to form a barrier wall, the barrier segment comprising: a molded plastic container having outer walls defining an interior volume and having a first end and a second end; a plurality of connecting lugs disposed on each of said first and second ends, so that a plurality of barrier segments may be joined together end-to-end; the outer walls comprising side walls which extend beyond each of the first and second ends, to form a recess between the extended side walls on each of the first and second ends; the hollow barrier segment characterized in that there is a hand access opening disposed on a lower end of each extended side wall, for permitting access to a pin securing the connecting lugs , with the extended side walls of adjoining hollow barrier segments being in flush contact, wherein the connecting lugs each have a length, at least one-third of the length of each connecting lug being disposed between the extended side walls within the recess on either the first or the second end, so that no more than two-thirds of the length of each lug extends beyond the extended side walls of the barrier segment. a molded plastic container having outer walls defining an interior volume and having a first end and a second end; a plurality of connecting lugs disposed on each of said first and second ends, so that a plurality of barrier segments may be joined together end-to-end; the outer walls comprising side walls which extend beyond each of the first and second ends, to form a recess between the extended side walls on each of the first and second ends; the hollow barrier segment characterized in that there is a hand access opening disposed on a lower end of each extended side wall, for permitting access to a pin securing the connecting lugs , with the extended side walls of adjoining hollow barrier segments being in flush contact, wherein the connecting lugs each have a length, at least one-third of the length of each connecting lug being disposed between the extended side walls within the recess on either the first or the second end, so that no more than two-thirds of the length of each lug extends beyond the extended side walls of the barrier segment.
A computer implemented method of determining condition of at least one bearing in a system , the method comprising: receiving operation data associated with the system from one or more sensing units associated with the system ; determining an operation profile of the at least one bearing from the operation data, wherein the operation profile includes at least one of a vibration response and a thermal response associated with the at least one bearing ; determining an impact force profile during operation of the at least one bearing based on the operation profile and a virtual bearing model , wherein the impact force profile is associated with an impact between a rolling element of the at least one bearing and a physical defect of the bearing, wherein the virtual bearing model is trained on operation profiles and impact force profiles associated with a group of bearings comparable with the at least one bearing ; and determining the condition of the at least one bearing based on the impact force profile. receiving operation data associated with the system from one or more sensing units associated with the system ; determining an operation profile of the at least one bearing from the operation data, wherein the operation profile includes at least one of a vibration response and a thermal response associated with the at least one bearing ; determining an impact force profile during operation of the at least one bearing based on the operation profile and a virtual bearing model , wherein the impact force profile is associated with an impact between a rolling element of the at least one bearing and a physical defect of the bearing, wherein the virtual bearing model is trained on operation profiles and impact force profiles associated with a group of bearings comparable with the at least one bearing ; and determining the condition of the at least one bearing based on the impact force profile.
A wearable system comprising: an outer case defining an inner chamber and comprising an exhaust portion arranged on at least one side of the outer case away from a user when the wearable system is worn by the user and including a liquid resistant and breathable layer ; a computing device contained in the inner chamber ; an airflow generator configured to produce an airflow to cool the computing device and to direct a resulting heated airflow to flow through pores of the liquid resistant and breathable layer to an environment outside the outer case ; a strap configured to secure the outer case to the user ; and a thermally reflective layer arranged along a side of the outer case adjacent the user when the wearable apparatus is worn by the user , the thermally reflective layer being configured to reflect heat from the computing device away from the user . an outer case defining an inner chamber and comprising an exhaust portion arranged on at least one side of the outer case away from a user when the wearable system is worn by the user and including a liquid resistant and breathable layer ; a computing device contained in the inner chamber ; an airflow generator configured to produce an airflow to cool the computing device and to direct a resulting heated airflow to flow through pores of the liquid resistant and breathable layer to an environment outside the outer case ; a strap configured to secure the outer case to the user ; and a thermally reflective layer arranged along a side of the outer case adjacent the user when the wearable apparatus is worn by the user , the thermally reflective layer being configured to reflect heat from the computing device away from the user .
A data transmission method, comprising: encoding (S101) a data stream of a first receive end by using a first Multiple Input Multiple Output, MIMO, encoding mode, to obtain a first encoded data stream, wherein the first MIMO encoding mode is a MIMO precoding mode corresponding to a space frequency block coding, SFBC, transmission scheme used by the first receive end; encoding (S102) a data stream of a second receive end by using a second MIMO encoding mode, to obtain a second encoded data stream, wherein the second MIMO encoding mode is a MIMO precoding mode corresponding to a space time block coding, STBC, transmission scheme or a cyclic delay diversity, CDD, transmission scheme used by the second receive end; encoding (S103) the first encoded data stream and the second encoded data stream by using a third encoding mode, to obtain a to-be-sent data stream; and sending (S104) the to-be-sent data stream to the first receive end and the second receive end by using antennas; wherein the encoding (S103) the first encoded data stream and the second encoded data stream by using a third encoding mode, to obtain a to-be-sent data stream specifically comprises: multiplying the first encoded data stream by a first precode to obtain a first to-be-sent data stream, and multiplying the second encoded data stream by a second precode to obtain a second to-be-sent data stream, wherein the first precode and the second precode are determined by the third encoding mode, and the to-be-sent data stream is a sum of the first to-be-sent data stream and the second to-be-sent data stream. encoding (S101) a data stream of a first receive end by using a first Multiple Input Multiple Output, MIMO, encoding mode, to obtain a first encoded data stream, wherein the first MIMO encoding mode is a MIMO precoding mode corresponding to a space frequency block coding, SFBC, transmission scheme used by the first receive end; encoding (S102) a data stream of a second receive end by using a second MIMO encoding mode, to obtain a second encoded data stream, wherein the second MIMO encoding mode is a MIMO precoding mode corresponding to a space time block coding, STBC, transmission scheme or a cyclic delay diversity, CDD, transmission scheme used by the second receive end; encoding (S103) the first encoded data stream and the second encoded data stream by using a third encoding mode, to obtain a to-be-sent data stream; and sending (S104) the to-be-sent data stream to the first receive end and the second receive end by using antennas; wherein the encoding (S103) the first encoded data stream and the second encoded data stream by using a third encoding mode, to obtain a to-be-sent data stream specifically comprises: multiplying the first encoded data stream by a first precode to obtain a first to-be-sent data stream, and multiplying the second encoded data stream by a second precode to obtain a second to-be-sent data stream, wherein the first precode and the second precode are determined by the third encoding mode, and the to-be-sent data stream is a sum of the first to-be-sent data stream and the second to-be-sent data stream.
An integrated electrode/separator structure layer suitable for forming an electrochemical cell with integrated folded layers comprising: a separator layer; one or more protective layers comprising a multi-layered structure comprising a single-ion conductive layer and a polymer layer deposited_overlying the separator layer; an electrode active material deposited overlying the one or more protective layers, and a current collector layer overlaying the electrode active material, wherein the separator layer, the one or more protective layers and the electrode active material form an integrated structure, wherein the integrated structure includes one or more Z-folds to form adjacent sections of the separator layer; and wherein the integrated electrode/separator structure comprises folded flattened contact regions at least partially not coated with active material to form contact to the current collector. a separator layer; one or more protective layers comprising a multi-layered structure comprising a single-ion conductive layer and a polymer layer deposited_overlying the separator layer; an electrode active material deposited overlying the one or more protective layers, and a current collector layer overlaying the electrode active material, wherein the separator layer, the one or more protective layers and the electrode active material form an integrated structure, wherein the integrated structure includes one or more Z-folds to form adjacent sections of the separator layer; and wherein the integrated electrode/separator structure comprises folded flattened contact regions at least partially not coated with active material to form contact to the current collector.
Window (F) with a frame (R) and a window sash or a door with a frame and a door sash, "whereby the frame (R) in a gap between a reveal (L) of a wall opening and the window sash or the door frame in a gap between a reveal (L) of a wall opening and the door can be fixed in the masonry of the wall (W), whereby for aligning and sealing the door or the window (F), this has at least one sliding element (S) arranged on one side parallel to the reveal (L) with two sealing elements (D) arranged on its two opposite side walls and connected to it in a non-positive or positive manner for sealing between the two lateral surfaces of the frame (R) and the sliding element (S), which is approximately the same length as the respective frame part and to the reveal length on this side, whereby the frame (R) only has means (KS) mounted in the frame (R) for manually shifting the sliding element (S) to the reveal (L) and clamping the frame (R) in the reveal (L), wherein the frame (R) has, as a means (KS) for manual displacement of the sliding element (S), locking screws (KS) arranged at a distance from one another, which are set up in such a way during manual actuation on the side facing the reveal (L) to press the side facing away with the free end on the surface of the sliding element (S) and wherein the sliding element (S) on the side facing the reveal (L) has a construction glue(B).
A concentrator having a first surface on which a measuring device , configured to measure an amount of electric power consumption, can be arranged, the concentrator comprising: a housing comprising a first sidewall and a second sidewall which are opposed in a direction orthogonal to a direction of arrangement of the measuring device and the concentrator, the first sidewall and the second sidewall being connected to the first surface; a communication module provided in the housing for receiving amounts of electric power consumption from measuring devices including the measuring device ; a wireless communication module provided in the housing ; a control module configured to notify a data collection server of the received amounts of electric power consumption by using the wireless communication module ; a first antenna provided in proximity to the first sidewall , provided on a control board in which an electric circuit comprising the wireless communication module and the control module is located, and extending along the first sidewall , wherein the first antenna is connected to the wireless communication module ; and a second antenna provided in proximity to the second sidewall , provided between the second sidewall and a power supply circuit board in the housing , and extending along the second side wall , wherein the second antenna has a shape different from a shape of the first antenna and is connected to the wireless communication module . a housing comprising a first sidewall and a second sidewall which are opposed in a direction orthogonal to a direction of arrangement of the measuring device and the concentrator, the first sidewall and the second sidewall being connected to the first surface; a communication module provided in the housing for receiving amounts of electric power consumption from measuring devices including the measuring device ; a wireless communication module provided in the housing ; a control module configured to notify a data collection server of the received amounts of electric power consumption by using the wireless communication module ; a first antenna provided in proximity to the first sidewall , provided on a control board in which an electric circuit comprising the wireless communication module and the control module is located, and extending along the first sidewall , wherein the first antenna is connected to the wireless communication module ; and a second antenna provided in proximity to the second sidewall , provided between the second sidewall and a power supply circuit board in the housing , and extending along the second side wall , wherein the second antenna has a shape different from a shape of the first antenna and is connected to the wireless communication module .
A machine tool comprising a control apparatus , the control apparatus being provided in the machine tool that includes: a cutting tool configured to cut a workpiece (W); a spindle of a spindle stock , wherein this spindle is configured to rotate the cutting tool and the workpiece (W) relative to each other; feeding means configured to feed the cutting tool and the workpiece (W) in a predetermined feeding direction; and vibration means configured to allow relative reciprocating vibration between the cutting tool and the workpiece (W), the control apparatus comprising control means configured to allow the machine tool to machine the workpiece (W) by feeding the cutting tool with reciprocating vibration toward the workpiece (W), characterized in that the control means includes an imaginary spindle configured on a software to be imaginarily regarded as a spindle for rotating the workpiece (W), and the control means is configured to set the number of rotations of the imaginary spindle , wherein the number of rotations is defined as revolutions per minutes, r/min, and the number of vibrations (N) of the reciprocating vibration during one rotation of the imaginary spindle in accordance with the vibration frequency of the reciprocating vibration, wherein the vibration frequency of the reciprocating vibration is a frequency according to a cycle at which an operation instruction is issued by a control part included in the control apparatus , the workpiece (W) being machined, in a state where the rotation of the spindle of the spindle stock - which is not the imaginary spindle - is stopped, by vibrating the feeding means, when the cutting tool is fed in the feeding direction with reciprocating vibration toward the workpiece (W) at the set number of vibrations (N). the control apparatus comprising control means configured to allow the machine tool to machine the workpiece (W) by feeding the cutting tool with reciprocating vibration toward the workpiece (W), characterized in that the control means includes an imaginary spindle configured on a software to be imaginarily regarded as a spindle for rotating the workpiece (W), and the control means is configured to set the number of rotations of the imaginary spindle , wherein the number of rotations is defined as revolutions per minutes, r/min, and the number of vibrations (N) of the reciprocating vibration during one rotation of the imaginary spindle in accordance with the vibration frequency of the reciprocating vibration, wherein the vibration frequency of the reciprocating vibration is a frequency according to a cycle at which an operation instruction is issued by a control part included in the control apparatus , the workpiece (W) being machined, in a state where the rotation of the spindle of the spindle stock - which is not the imaginary spindle - is stopped, by vibrating the feeding means, when the cutting tool is fed in the feeding direction with reciprocating vibration toward the workpiece (W) at the set number of vibrations (N).
A method for producing an antifouling film including a polymer layer that includes on a surface thereof an uneven structure provided with multiple projections at a pitch not longer than a wavelength of visible light, the method comprising: Process of applying a resin to a surface of a substrate; Process of applying a second release agent to a surface of a die coated with a first release agent; Process of pushing the substrate to the surface of the die coated with the second release agent with the resin in between to form the uneven structure on a surface of the resin; and Process of curing the resin including the uneven structure on the surface thereof to form the polymer layer, the resin containing an antifouling agent that contains a compound containing a perfluoro(poly)ether group, the first release agent containing a compound that contains a perfluoro(poly)ether group, a hydrolyzable group, and a Si atom, the second release agent containing a compound represented by the following formula (F): R 111 -(R 112 O) m -R 113 (F) wherein R 111 and R 113 are each individually a fluorine atom or a -OH group; R 112 is a C1-C4 fluorinated alkylene group; and m is an integer of 2 or greater. Process of applying a resin to a surface of a substrate; Process of applying a second release agent to a surface of a die coated with a first release agent; Process of pushing the substrate to the surface of the die coated with the second release agent with the resin in between to form the uneven structure on a surface of the resin; and Process of curing the resin including the uneven structure on the surface thereof to form the polymer layer, the resin containing an antifouling agent that contains a compound containing a perfluoro(poly)ether group, the first release agent containing a compound that contains a perfluoro(poly)ether group, a hydrolyzable group, and a Si atom, the second release agent containing a compound represented by the following formula (F): R 111 -(R 112 O) m -R 113 (F)