mhurhangee/patent-ind-claim-en huggingface dataset:
A printing apparatus comprising: a transport portion for transporting a recording medium (W) having a belt shape; a printing portion that is disposed so as to face, across a space, the recording medium being in a state of being transported by the transport portion and that includes a plurality of nozzles through which inks can be ejected for performing printing onto the recording medium; a detection portion that is disposed at a more upstream position than the plurality of nozzles in a transport direction (y) in which the recording medium is transported, and that is arranged to detect an upper face position (P) of the recording medium; and a determination portion for determining whether or not the transport of the recording medium is to be allowed, on the basis of the upper face position (P) of the recording medium and a distance (G) of the space, wherein the recording medium is arranged to be transported in a direction along a long side of the recording medium, wherein the detection portion is constituted by a first sensor that is arranged to detect a received light amount (Q) of light entering in a direction along a width of the recording medium, and characterized by a second sensor that is arranged to detect a received light amount of reflection light having been reflected at the recording medium, wherein the determination portion is arranged to correct the detected value of the upper face position of the recording medium obtained by the detection portion on the basis of a material of the recording medium. a transport portion for transporting a recording medium (W) having a belt shape; a printing portion that is disposed so as to face, across a space, the recording medium being in a state of being transported by the transport portion and that includes a plurality of nozzles through which inks can be ejected for performing printing onto the recording medium; a detection portion that is disposed at a more upstream position than the plurality of nozzles in a transport direction (y) in which the recording medium is transported, and that is arranged to detect an upper face position (P) of the recording medium; and a determination portion for determining whether or not the transport of the recording medium is to be allowed, on the basis of the upper face position (P) of the recording medium and a distance (G) of the space, wherein the recording medium is arranged to be transported in a direction along a long side of the recording medium, wherein the detection portion is constituted by a first sensor that is arranged to detect a received light amount (Q) of light entering in a direction along a width of the recording medium, and characterized by a second sensor that is arranged to detect a received light amount of reflection light having been reflected at the recording medium, wherein the determination portion is arranged to correct the detected value of the upper face position of the recording medium obtained by the detection portion on the basis of a material of the recording medium.
Continuous casting mould for the continuous casting of a metal strip, particularly a steel strip, with at least one mould wall , which is provided in an upper region of the mould with first cooling channels and in a lower region of the mould with second cooling channels , wherein the cooling channels (16; 22) are connected with a coolant supply, wherein the first cooling channels in the upper region of the mould and the second cooling channels in the lower region of the mould can be partitioned from one another by a partition element so that on the one hand the first cooling channels in the upper region of the mould and on the other hand the second cooling channels in the lower region of the mould each form an individual circuit for coolant, characterised in that the first cooling channels in the upper region in the mould have a variable spacing (Pi) from one another in the longitudinal direction of the mould wall , the second cooling channels provided in the lower region of the mould are each formed by grooves or pockets , which are formed in a mould wall of the mould and closed by at least one filler member with formation of a flow channel , wherein the first cooling channels provided in the upper region of the mould open from above into the grooves or pockets , and the filler member is insertable into the mould wall of the mould from the cold side thereof, which serves as a feed for the first cooling channels and as a return for the second cooling channels .
A data packet transmission method, comprising: performing channel coding (S101) on a to-be-sent data packet, and dividing the coded data packet into at least two data sub-packets; allocating a transmission resource (S102) to each data sub-packet; generating control information (S103) for each data sub-packet according to transmission resources of the at least two data sub-packets, wherein the control information of each data sub-packet is used to indicate the transmission resources of the at least two data sub-packets of the data packet to which the data sub-packet belongs; and sending each data sub-packet and the control information of the data sub-packet (S104) on a corresponding transmission resource; wherein the control information of each data sub-packet is specifically used to indicate a transmission resource of a first data sub-packet of the data packet to which the data sub-packet belongs, and the first data sub-packet is a data sub-packet that is sent first in the data packet. performing channel coding (S101) on a to-be-sent data packet, and dividing the coded data packet into at least two data sub-packets; allocating a transmission resource (S102) to each data sub-packet; generating control information (S103) for each data sub-packet according to transmission resources of the at least two data sub-packets, wherein the control information of each data sub-packet is used to indicate the transmission resources of the at least two data sub-packets of the data packet to which the data sub-packet belongs; and sending each data sub-packet and the control information of the data sub-packet (S104) on a corresponding transmission resource; wherein the control information of each data sub-packet is specifically used to indicate a transmission resource of a first data sub-packet of the data packet to which the data sub-packet belongs, and the first data sub-packet is a data sub-packet that is sent first in the data packet.
An antenna port configuration method, comprising: obtaining , by an access network device, M reference signal received power, RSRP, differences, wherein the M RSRP differences are differences between downlink RSRPs of two of the N radio remote units, RRUs,-or differences between a downlink RSRP of one of the N RRUs and an uplink RSRP of a terminal, and both M and N are positive integers greater than 1; determining , by the access network device based on the M RSRP differences, an order of traversing the N RRUs by a terminal moving in a coverage area of the N RRUs; and for any RRU of the N RRUs, configuring , by the access network device, same antenna ports for two RRUs in the traversal order that are adjacent to the RRU, and configuring different antenna ports for the RRU and the RRUs adjacent to the RRU. obtaining , by an access network device, M reference signal received power, RSRP, differences, wherein the M RSRP differences are differences between downlink RSRPs of two of the N radio remote units, RRUs,-or differences between a downlink RSRP of one of the N RRUs and an uplink RSRP of a terminal, and both M and N are positive integers greater than 1; determining , by the access network device based on the M RSRP differences, an order of traversing the N RRUs by a terminal moving in a coverage area of the N RRUs; and for any RRU of the N RRUs, configuring , by the access network device, same antenna ports for two RRUs in the traversal order that are adjacent to the RRU, and configuring different antenna ports for the RRU and the RRUs adjacent to the RRU.
A tire vulcanization mold comprising: a molding surface for molding a tire during vulcanization molding, wherein the molding surface includes a first region in which a plurality of recesses for forming a plurality of projections on a surface of the tire are provided, in the first region , at least two of the recesses are arranged per mm 2 , each of the recesses includes a side wall surface , a bottom surface , and a virtual recess central axis extending in a depth direction of the recess , and in a cross-sectional view of the recess including the virtual recess central axis , the bottom surface includes a bottom projection projecting outward in the depth direction, the side wall surface includes an arc-shaped surface smoothly connected to the bottom surface , and the bottom projection includes a peak portion located on an outermost side in the depth direction of the recess , and a bottom projection side wall surface extending from the peak portion inward in the depth direction of the recess , the peak portion being disposed on the virtual recess central axis . a molding surface for molding a tire during vulcanization molding, wherein the molding surface includes a first region in which a plurality of recesses for forming a plurality of projections on a surface of the tire are provided, in the first region , at least two of the recesses are arranged per mm 2 , each of the recesses includes a side wall surface , a bottom surface , and a virtual recess central axis extending in a depth direction of the recess , and in a cross-sectional view of the recess including the virtual recess central axis , the bottom surface includes a bottom projection projecting outward in the depth direction, the side wall surface includes an arc-shaped surface smoothly connected to the bottom surface , and the bottom projection includes a peak portion located on an outermost side in the depth direction of the recess , and a bottom projection side wall surface extending from the peak portion inward in the depth direction of the recess , the peak portion being disposed on the virtual recess central axis . the bottom surface includes a bottom projection projecting outward in the depth direction, the side wall surface includes an arc-shaped surface smoothly connected to the bottom surface , and the bottom projection includes a peak portion located on an outermost side in the depth direction of the recess , and a bottom projection side wall surface extending from the peak portion inward in the depth direction of the recess , the peak portion being disposed on the virtual recess central axis .
A manufacturing method for a bent member comprising: forming an opening at a position of a first metallic plate where the first metallic plate is to be bent; fitting a metallic reinforcing plate into the opening ; welding the reinforcing plate fitted into the opening to the first metallic plate ; and bending the reinforcing plate welded to the first metallic plate, characterised in that fitting a metallic reinforcing plate into the opening is done by: - deforming the reinforcing plate in such a manner that a gap is generated between the reinforcing plate and an inner circumferential surface of the first metallic plate defining the opening in a state in which the reinforcing plate is inserted into the opening , - inserting the reinforcing plate into the opening , and - pressing the reinforcing plate to return to a flat shape so as to come into contact with the inner circumferential surface. forming an opening at a position of a first metallic plate where the first metallic plate is to be bent; fitting a metallic reinforcing plate into the opening ; welding the reinforcing plate fitted into the opening to the first metallic plate ; and bending the reinforcing plate welded to the first metallic plate, characterised in that fitting a metallic reinforcing plate into the opening is done by: - deforming the reinforcing plate in such a manner that a gap is generated between the reinforcing plate and an inner circumferential surface of the first metallic plate defining the opening in a state in which the reinforcing plate is inserted into the opening , - inserting the reinforcing plate into the opening , and - pressing the reinforcing plate to return to a flat shape so as to come into contact with the inner circumferential surface. - deforming the reinforcing plate in such a manner that a gap is generated between the reinforcing plate and an inner circumferential surface of the first metallic plate defining the opening in a state in which the reinforcing plate is inserted into the opening , - inserting the reinforcing plate into the opening , and - pressing the reinforcing plate to return to a flat shape so as to come into contact with the inner circumferential surface.
A communication method, comprising: determining indication information based on a correspondence table, wherein the indication information is used to indicate at least one channel quality indicator, CQI index, the correspondence table comprises N CQI indexes, M modulation schemes, and K code rate parameters, at least one of the N CQI indexes corresponds to one type of modulation scheme, K of the N CQI indexes are in a one-to-one correspondence with the K code rate parameters, wherein Code Rate Parameter = Code Rate × 1024, N > M, N ≥ K, and N, K, and M are all positive integers; determining indication information based on the correspondence table, wherein a product of a code rate corresponding to a first CQI index of the N CQI indexes and a modulation order of a modulation scheme corresponding to the first CQI index is a value greater than 0 and less than 0.0781 in the correspondence table; wherein the N CQI indexes correspond to at least three types of modulation schemes, and a quantity of Quadrature Phase Shift Keying, QPSK modulation schemes of the at least three types of modulation schemes is greater than a quantity of modulation schemes of any other type of the at least three types of modulation schemes, and sending the indication information to a network device. determining indication information based on a correspondence table, wherein the indication information is used to indicate at least one channel quality indicator, CQI index, the correspondence table comprises N CQI indexes, M modulation schemes, and K code rate parameters, at least one of the N CQI indexes corresponds to one type of modulation scheme, K of the N CQI indexes are in a one-to-one correspondence with the K code rate parameters, wherein Code Rate Parameter = Code Rate × 1024, N > M, N ≥ K, and N, K, and M are all positive integers; determining indication information based on the correspondence table, wherein a product of a code rate corresponding to a first CQI index of the N CQI indexes and a modulation order of a modulation scheme corresponding to the first CQI index is a value greater than 0 and less than 0.0781 in the correspondence table; wherein the N CQI indexes correspond to at least three types of modulation schemes, and a quantity of Quadrature Phase Shift Keying, QPSK modulation schemes of the at least three types of modulation schemes is greater than a quantity of modulation schemes of any other type of the at least three types of modulation schemes, and sending the indication information to a network device.
A device for hyperthermic treatment of itching, comprising a) at least one treatment area and b) a control device for regulating the temperature of the treatment area , wherein the control device can regulate the treatment area , by heating at least one heating element in a heating phase, to a treatment temperature of between 42°C and 56°C, and the treatment temperature can be maintained within a treatment phase for a period of 2 sec to 12 sec, characterized in that an additional hardware-implemented temperature monitor reversibly limits the maximum temperature of the treatment area to a value of between 54°C and 58°C, preferably about 56°C, and a fuse switches off the device in the event of a short circuit or unregulated continued heating. a) at least one treatment area and b) a control device for regulating the temperature of the treatment area , wherein the control device can regulate the treatment area , by heating at least one heating element in a heating phase, to a treatment temperature of between 42°C and 56°C, and the treatment temperature can be maintained within a treatment phase for a period of 2 sec to 12 sec,
An interspinous process device comprising: a first plate comprising a through hole; a second plate comprising an aperture ; a transverse member disposed between the first plate and the second plate , wherein the transverse member is configured to fit through the aperture of the second plate and the second plate is adjustably securable to the transverse member ; a post disposed through the hole in the first plate and coupled to the transverse member ; and a spring mechanism disposed between the post and the first plate , characterized in that the spring mechanism is configured to provide a preloaded force to the first plate . a first plate comprising a through hole; a second plate comprising an aperture ; a transverse member disposed between the first plate and the second plate , wherein the transverse member is configured to fit through the aperture of the second plate and the second plate is adjustably securable to the transverse member ; a post disposed through the hole in the first plate and coupled to the transverse member ; and a spring mechanism disposed between the post and the first plate , characterized in that the spring mechanism is configured to provide a preloaded force to the first plate .
An operating method performed by a terminal in a wireless communication system, the method comprising: receiving , from a base station, BS, a configuration information for a height measurement including information on a threshold altitude and information on a threshold duration time; comparing a height of the terminal and the threshold altitude; transmitting , to the base station, a first height measurement report including information on an altitude state of the terminal in case that the height of the terminal is higher than the threshold altitude during the threshold duration time; transmitting , to the base station, a second height measurement report including information on the altitude state of the terminal in case that the height of the terminal is lower than the threshold altitude during the threshold duration time; receiving , from the base station, measurement configuration information on a handover event corresponding to the altitude state of the terminal; and transmitting a measurement report to the BS based on the measurement configuration information on the handover event, in case that a measurement condition associated with the handover event is fulfilled . receiving , from a base station, BS, a configuration information for a height measurement including information on a threshold altitude and information on a threshold duration time; comparing a height of the terminal and the threshold altitude; transmitting , to the base station, a first height measurement report including information on an altitude state of the terminal in case that the height of the terminal is higher than the threshold altitude during the threshold duration time; transmitting , to the base station, a second height measurement report including information on the altitude state of the terminal in case that the height of the terminal is lower than the threshold altitude during the threshold duration time; receiving , from the base station, measurement configuration information on a handover event corresponding to the altitude state of the terminal; and transmitting a measurement report to the BS based on the measurement configuration information on the handover event, in case that a measurement condition associated with the handover event is fulfilled .
Die casting cell at least comprising a casting chamber and a casting plunger axially displaceable along a longitudinal axis in the casting chamber, wherein at least one stirring element , that is rotatable about the longitudinal axis (z) of the casting plunger , is mounted to the casting plunger ; wherein the stirring element is linearly travelable relative to the casting plunger and in the extent progression of the longitudinal axis (z) between - a casting position in which the stirring element has been fully retracted behind a front face of the casting plunger ; and - a stirring position in which the stirring element is extended at least sectionally over the front face of the casting plunger and extends into the casting chamber , characterized in that the stirring element has a rod-like design and is mounted to the periphery of the casting plunger such that the stirring element contacts an inner wall of the casting chamber . the stirring element is linearly travelable relative to the casting plunger and in the extent progression of the longitudinal axis (z) between - a casting position in which the stirring element has been fully retracted behind a front face of the casting plunger ; and - a stirring position in which the stirring element is extended at least sectionally over the front face of the casting plunger and extends into the casting chamber , - a casting position in which the stirring element has been fully retracted behind a front face of the casting plunger ; and - a stirring position in which the stirring element is extended at least sectionally over the front face of the casting plunger and extends into the casting chamber , characterized in that the stirring element has a rod-like design and is mounted to the periphery of the casting plunger such that the stirring element contacts an inner wall of the casting chamber .
Electrochemical device which comprises a plurality of electrochemical cells and at least one line system for connecting a plurality of voltage tapping sites and/or temperature measuring sites of an electrochemical device to a monitoring unit of the electrochemical device , wherein the line system comprises a plurality of voltage tapping lines and/or temperature measuring lines and a stiffening structure in which and/or on which the plurality of voltage tapping lines and/or temperature measuring lines are at least partially arranged, wherein the stiffening structure comprises at least one receiving channel for the insertion of at least one voltage tapping line and/or at least one temperature measuring line wherein the electrochemical device comprises a cover which comprises a support element facing toward the electrochemical cells of the electrochemical device and a lid element facing away from the electrochemical cells of the electrochemical device , and wherein the line system is arranged between the support element and the lid element , characterized in that the stiffening structure is produced separately from the support element and is fixed to the support element . wherein the line system comprises a plurality of voltage tapping lines and/or temperature measuring lines and a stiffening structure in which and/or on which the plurality of voltage tapping lines and/or temperature measuring lines are at least partially arranged, wherein the stiffening structure comprises at least one receiving channel for the insertion of at least one voltage tapping line and/or at least one temperature measuring line wherein the electrochemical device comprises a cover which comprises a support element facing toward the electrochemical cells of the electrochemical device and a lid element facing away from the electrochemical cells of the electrochemical device , and wherein the line system is arranged between the support element and the lid element , characterized in that the stiffening structure is produced separately from the support element and is fixed to the support element .