mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a cylindrical member comprising: end bending of respective end portions of a plate material in a longitudinal direction; primary grooving of respective end surfaces of the plate material subjected to end bending, thereby adjusting the length of the plate material; and bending of the plate material to a ring shape; characterized by secondary grooving of respective end surfaces of the plate material subjected to bending in a ring shape, thereby adjusting the degree of parallelization of each end surface; and joining of respective end portions of the plate material by welding, wherein each end surface of the plate material subjected to end bending is removed by a predetermined length in primary grooving, a preliminary length is secured in each end portion side of the plate material in advance, and in the primary grooving, the plate material is cut by the predetermined length of the preliminary length while leaving extra length. end bending of respective end portions of a plate material in a longitudinal direction; primary grooving of respective end surfaces of the plate material subjected to end bending, thereby adjusting the length of the plate material; and bending of the plate material to a ring shape; characterized by secondary grooving of respective end surfaces of the plate material subjected to bending in a ring shape, thereby adjusting the degree of parallelization of each end surface; and joining of respective end portions of the plate material by welding, a preliminary length is secured in each end portion side of the plate material in advance, and in the primary grooving, the plate material is cut by the predetermined length of the preliminary length while leaving extra length.
A method for controlling navigation of a vehicle, the method comprising: transmitting a surface penetrating radar signal towards a surface from a SPR system on a vehicle; receiving a response signal at the SPR system, the response signal including a reflection of the SPR signal from a surface region associated with the surface and a reflection of the SPR signal from a subsurface region; measuring at least one of an intensity and a phase of the response signal; determining, based at least in part on the at least one of the intensity and the phase of the response signal, a surface characteristic of the surface and localization data for the vehicle; and controlling a navigation of the vehicle based on at least one of: the response signal, the measured intensity of the response signal, the measured phase of the response signal, the determined surface characteristic and the determined localization data, wherein the surface characteristic is at least one of snow, ice, water, mud, slush, sand, gravel, dirt, rock, debris and salt. transmitting a surface penetrating radar signal towards a surface from a SPR system on a vehicle; receiving a response signal at the SPR system, the response signal including a reflection of the SPR signal from a surface region associated with the surface and a reflection of the SPR signal from a subsurface region; measuring at least one of an intensity and a phase of the response signal; determining, based at least in part on the at least one of the intensity and the phase of the response signal, a surface characteristic of the surface and localization data for the vehicle; and controlling a navigation of the vehicle based on at least one of: the response signal, the measured intensity of the response signal, the measured phase of the response signal, the determined surface characteristic and the determined localization data, wherein the surface characteristic is at least one of snow, ice, water, mud, slush, sand, gravel, dirt, rock, debris and salt.
An integrated circuit adapted to control a process in a base station apparatus for using a plurality of Physical Resource Blocks, PRBs, into which a plurality of subcarriers consecutive in a frequency domain are divided, the process comprising: performing either first allocation in which Distributed Virtual Resource Blocks, DVRBs, with the same DVRB number are allocated to a mobile station apparatus, the DVRBs with the same DVRB number being mapped to two of the PRBs with a gap therebetween, or second allocation, in which PRBs are allocated to a mobile station apparatus in units of resource block groups, RBGs, into which the plurality of PRBs are grouped and each of which is a set of a number of consecutive PRBs; and transmit data using the PRBs, characterized in that the gap depends on both the number of consecutive PRBs and a system bandwidth, and the gap is an integer multiple of the number of consecutive PRBs. performing either first allocation in which Distributed Virtual Resource Blocks, DVRBs, with the same DVRB number are allocated to a mobile station apparatus, the DVRBs with the same DVRB number being mapped to two of the PRBs with a gap therebetween, or second allocation, in which PRBs are allocated to a mobile station apparatus in units of resource block groups, RBGs, into which the plurality of PRBs are grouped and each of which is a set of a number of consecutive PRBs; and transmit data using the PRBs, characterized in that the gap depends on both the number of consecutive PRBs and a system bandwidth, and the gap is an integer multiple of the number of consecutive PRBs.
A computer-implemented method for prosthesis manipulation in dental prosthesis design, comprising: presenting, via a computer-implemented interface, a virtual multi-tooth prosthesis, said virtual multi-tooth prosthesis comprising two or more 3D models of individual teeth (1270, 1271, 1272), said virtual multi-tooth prosthesis being presented relative to a 3D representation of a multi-tooth area of a patient's mouth that is to be reconstructed, said computer-implemented interface running on one or more computing devices; receiving a command to manipulate a subset of the teeth in the virtual multi-tooth prosthesis, from an operator, via the computer-implemented interface, wherein the command is received with respect to multiple models of prosthetic teeth (1270, 1271, 1272); modifying, using one or more computing devices, based on the manipulation command, and based on estimated occlusion with antagonists, one or more parameters for the shape of the virtual multi-tooth prosthesis, said one or more parameters being related to the subset of teeth, wherein said modifying comprises scaling in the subset of teeth a first and second tooth with respect to one another, wherein one of said first and second teeth is scaled to increase its size and the other is scaled to decrease its size; and generating production data related to the virtual multi-tooth prosthesis. presenting, via a computer-implemented interface, a virtual multi-tooth prosthesis, said virtual multi-tooth prosthesis comprising two or more 3D models of individual teeth (1270, 1271, 1272), said virtual multi-tooth prosthesis being presented relative to a 3D representation of a multi-tooth area of a patient's mouth that is to be reconstructed, said computer-implemented interface running on one or more computing devices; receiving a command to manipulate a subset of the teeth in the virtual multi-tooth prosthesis, from an operator, via the computer-implemented interface, wherein the command is received with respect to multiple models of prosthetic teeth (1270, 1271, 1272); modifying, using one or more computing devices, based on the manipulation command, and based on estimated occlusion with antagonists, one or more parameters for the shape of the virtual multi-tooth prosthesis, said one or more parameters being related to the subset of teeth, wherein said modifying comprises scaling in the subset of teeth a first and second tooth with respect to one another, wherein one of said first and second teeth is scaled to increase its size and the other is scaled to decrease its size; and generating production data related to the virtual multi-tooth prosthesis.
A first control node configured to select the first control node or a second control node to act as a server for managing a master representation of a distributed shared memory being accessible within an overlay network, wherein the first and second control nodes (110, 120) are configured to be comprised in the overlay network, which overlay network is configured to be overlaid onto a IP-network and further is configured to comprise a subscription managing node, which subscription managing node is configured to provide a communication channel of the overlay network between the first and second control nodes (110, 120), wherein the second control node acts as a further server for managing a further master representation of the distributed shared memory, wherein the first control node comprises: a processing circuit configured to obtain a first indication relating to a ranking of a suitability of the first control node to act as the server, and a receiver configured to receive, over the communication channel, a second indication, from the second control node via the subscription managing node, which second indication relates to a ranking of a suitability of the second control node to act as the server, wherein the processing circuit is further configured to select, based on the first and second indications, one of the first and second control nodes (110, 120) to act as the server, the processing circuit is further configured to merge the master representation and the further master representation, thereby providing a merged master representation, and the processing circuit is further configured to act as the server for the merged master representation. a processing circuit configured to obtain a first indication relating to a ranking of a suitability of the first control node to act as the server, and a receiver configured to receive, over the communication channel, a second indication, from the second control node via the subscription managing node, which second indication relates to a ranking of a suitability of the second control node to act as the server, wherein the processing circuit is further configured to select, based on the first and second indications, one of the first and second control nodes (110, 120) to act as the server, the processing circuit is further configured to merge the master representation and the further master representation, thereby providing a merged master representation, and the processing circuit is further configured to act as the server for the merged master representation.
A method comprising: by a user equipment, UE: multiplexing uplink control information, UCI, with uplink shared channel, UL-SCH, data for transmission over orthogonal frequency division multiplexing, OFDM symbols in the time domain and in physical resource blocks, PRBs, in the frequency domain, wherein the OFDM symbols and PRBs include a plurality of time-frequency resource elements, REs; divide channel state information, CSI, bits into multiple segments; mapping UCI including modulated hybrid automatic request repeat acknowledgement, HARQ-ACK, bits and modulated CSI bits to REs of OFDM symbols that do not contain demodulation reference signal, DMRS, REs, wherein said mapping includes mapping the modulated CSI bits of the multiple segments to REs first in the frequency domain and then in the time domain, and mapping UL-SCH data to REs of the PRB first in the frequency domain and then in the time domain after mapping the modulated CSI bits. multiplexing uplink control information, UCI, with uplink shared channel, UL-SCH, data for transmission over orthogonal frequency division multiplexing, OFDM symbols in the time domain and in physical resource blocks, PRBs, in the frequency domain, wherein the OFDM symbols and PRBs include a plurality of time-frequency resource elements, REs; divide channel state information, CSI, bits into multiple segments; mapping UCI including modulated hybrid automatic request repeat acknowledgement, HARQ-ACK, bits and modulated CSI bits to REs of OFDM symbols that do not contain demodulation reference signal, DMRS, REs, wherein said mapping includes mapping the modulated CSI bits of the multiple segments to REs first in the frequency domain and then in the time domain, and mapping UL-SCH data to REs of the PRB first in the frequency domain and then in the time domain after mapping the modulated CSI bits.
Wire spacer for spacing a first heat transfer plate and a second heat transfer plate in a plate type heat exchanger, wherein the wire spacer comprises a bent wire comprising: - first support segments for abutting the first heat transfer plate along a first support line; - second support segments for abutting the second heat transfer plate along a second support line; - spacing segments interconnecting the first support segments and the second support segments in an alternating manner, and spacing the second support segments at a spacing distance (Δy) from the first support line; characterised in that the first support segments are bent into wire paths that jointly define a support plane comprising the first support line. - first support segments for abutting the first heat transfer plate along a first support line; - second support segments for abutting the second heat transfer plate along a second support line; - spacing segments interconnecting the first support segments and the second support segments in an alternating manner, and spacing the second support segments at a spacing distance (Δy) from the first support line; characterised in that the first support segments are bent into wire paths that jointly define a support plane comprising the first support line.
A method for producing blocks of cheese from curd, wherein a curd mass is deposited in at least one cheese mold provided with a follower and in the at least one cheese mold is subjected to a vacuum treatment and pressing treatment, which pressing treatment is carried out while the at least one cheese mold is situated in a holder in which a vacuum prevails, characterized in that the vacuum treatment comprises at least a first and a second step, wherein in the first step in the holder with the aid of vacuum pump means a vacuum with a first vacuum pressure is created to draw air and whey entrained with the air from the curd mass, and during the second step the vacuum pressure in the holder is reduced further to a second vacuum pressure, which has at least a value at which the whey present in the curd mass starts to boil and residual air and free whey are pushed from the curd mass.
A distributed load balancing system, comprising a cloud management platform, an access node, and at least one service node, wherein the access node and the at least one service node are physical servers, a first virtual load balancer runs on the access node, and a detection module and at least one backend server runs on the service node, wherein the cloud management platform is configured to determine, according to an identifier of a service, multiple target backend servers providing the service, and a network address of each target backend server of the multiple target backend servers; determine an identifier of each target service node on which the multiple target backend servers are located; and send a check request message to each target service node, wherein each check request message carries a network address of a target backend server running on a target service node that receives the check request message, and the identifier of the service; each target service node is configured to receive the check request message, and send the network address of the target backend server running on the target service node to a detection module corresponding to the identifier of the service carried in the check request message; the detection module on each target service node is configured to send, according to the received network address, a detection message to the target backend server corresponding to the received network address to detect a status of the target backend server; and share the status of the target backend server to the first virtual load balancer on the access node by sending a notification packet; and the first virtual load balancer is configured to obtain a status of the target backend server on each target service node, update, according to the status of the target backend server on each target service node, a recorded status of the backend server providing the service, receive a first request that is for accessing the service and that is sent by a first client, and select for the first client according to the updated status of the backend server, a backend server providing the service; wherein the detection module on each target service node is deployed in a first namespace on the target service node, and the first virtual load balancer is deployed in a second namespace on the access node; wherein the namespaces corresponding to different services have different virtual local area network, VLAN, identifiers; wherein the detection module in the first namespace and the first virtual load balancer in the second namespace correspond a same service, and the first namespace and the second namespace have a same VLAN identifier and a same virtual Internet Protocol, IP, address; wherein the check request message is used to perform health check on the target backend server providing the service.
A method for the formation of multi-layer paint films in which an aqueous first colored base paint is coated on an electro-deposition paint cured paint film and a first colored base paint film is formed, then an aqueous second colored base paint is coated on the first colored base paint film without preliminary heating of the first colored base paint film and a second colored base paint film is formed, and then a clear paint is coated on the second colored base paint film after preliminary heating of the first colored base paint film and second colored base paint film and a clear paint film is formed and the three paint films which have been formed are heated and cured at the same time, characterized in that talc pigment is included in each of the aqueous colored first base paint and aqueous colored second base paint in an amount of from 1 to 5 mass% with respect to the total resin solid fraction of each of said aqueous colored first base paint and aqueous colored second base paint.
Bracelet formed of a plurality of links (3 to 6) assembled such that at least a first link of said plurality of links can be separated from the others, said first link being assembled with at least a second link by means of a transverse pin, which is associated with first means for locking its transverse position in said bracelet, said first locking means being arranged reversibly in order to release said pin and to separate said first and second links, said first locking means comprising a locking element which ensures said transverse position of the pin in a first angular position of said locking element and releases said pin in its longitudinal direction in a second angular position, said locking element being arranged in one of said first and second links to be capable of being rotated about its axis of rotation, said locking element having a non-cylindrical portion, relative to said axis of rotation, of which an external part (35, 36) at least partially penetrates a hollow arranged at the cylindrical surface of said pin when said locking element is in said first angular position, said non-cylindrical portion remaining opposite said pin without penetrating said hollow when said locking element is in said second angular position.
A method for screening for a TCR-binding peptide ligand/MHC molecule complex (pMHC), comprising the steps of: a) providing a suitably stabilized MHC I molecule, which is a HLA-A protein, wherein said MHC molecule comprises at least one artificially introduced covalent bridge: between two amino acids of the alpha1 domain of said stabilized MHC molecule by mutating an amino acid corresponding to position 22 of SEQ ID NO: 322 and an amino acid corresponding to position 71 of SEQ ID NO: 322, b) contacting said suitably stabilized MHC I molecule with a multitude of peptide ligands thereof, to form peptide ligand/MHC (pMHC) molecule complexes, and c) screening said pMHC molecule complexes for TCR-binding. a) providing a suitably stabilized MHC I molecule, which is a HLA-A protein, wherein said MHC molecule comprises at least one artificially introduced covalent bridge: between two amino acids of the alpha1 domain of said stabilized MHC molecule by mutating an amino acid corresponding to position 22 of SEQ ID NO: 322 and an amino acid corresponding to position 71 of SEQ ID NO: 322, b) contacting said suitably stabilized MHC I molecule with a multitude of peptide ligands thereof, to form peptide ligand/MHC (pMHC) molecule complexes, and c) screening said pMHC molecule complexes for TCR-binding.
A tail boom for a helicopter, comprising: a watertight compartment having a first end with a first perimeter, a second end with a second perimeter, and a watertight structural hull between the first and second ends (35, 36); and characterized in further comprising: a watertight bulkhead that closes the watertight compartment at the first end in a watertight manner and comprises: an attachment device that is attached to the watertight compartment along the first perimeter at the first end, a frame with an inner perimeter that is attached to the attachment device, and a watertight fabric that closes the inner perimeter of the frame in a watertight manner. an attachment device that is attached to the watertight compartment along the first perimeter at the first end, a frame with an inner perimeter that is attached to the attachment device, and a watertight fabric that closes the inner perimeter of the frame in a watertight manner.
A combiner comprising: N coaxial cables (50, 52) each configured to connect directly to a respective output terminal (38, 40) of N radio frequency power amplifiers (18, 20) at respective first ends (64, 66) of the N coaxial cables via a respective coaxial connector, where N is an integer greater than one, and wherein each of the N coaxial cables is configured to receive an amplified radio frequency signal from a respective one of the N radio frequency power amplifiers (18, 20); a capacitance board comprising a plurality of capacitive elements and configured to connect to each of the N coaxial cables at respective, second ends and combine the amplified radio frequency signals, wherein the N coaxial cables and the plurality of capacitive elements provide N inductance and capacitance combinations; and an output connector configured to connect an output of the capacitance board to a load, wherein the N coaxial cables connect to the capacitance board at second ends (68, 70) of the N coaxial cables (50, 52). N coaxial cables (50, 52) each configured to connect directly to a respective output terminal (38, 40) of N radio frequency power amplifiers (18, 20) at respective first ends (64, 66) of the N coaxial cables via a respective coaxial connector, where N is an integer greater than one, and wherein each of the N coaxial cables is configured to receive an amplified radio frequency signal from a respective one of the N radio frequency power amplifiers (18, 20); a capacitance board comprising a plurality of capacitive elements and configured to connect to each of the N coaxial cables at respective, second ends and combine the amplified radio frequency signals, wherein the N coaxial cables and the plurality of capacitive elements provide N inductance and capacitance combinations; and an output connector configured to connect an output of the capacitance board to a load, wherein the N coaxial cables connect to the capacitance board at second ends (68, 70) of the N coaxial cables (50, 52).