mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method of processing seismic data obtained in the form of seismic traces from a reflection seismic survey of subsurface portions of the earth for analysis of subsurface features of interest, the computer implemented method comprising the computer implemented processing steps of: forming a wavelet from the seismic survey data using the Markov Chain Monte Carlo (MCMC) method; resolving a time of occurrence of maximum energy in the wavelet from the seismic survey data with a Metropolis-Hastings (M-H) sampling procedure; forming a normalized amplitude of energy for the wavelet from traces in the seismic survey data; forming a composite trace at the resolved time of occurrence and normalized amplitude from an ensemble of the traces in the seismic survey data; applying a time filter to the wavelet based on the composite trace to form a resultant deconvolution wavelet having a main frequency in the seismic frequency band; and performing a deconvolution operation on the seismic traces by applying the resultant deconvolution wavelet to the seismic data for analysis of subsurface features of interest. forming a wavelet from the seismic survey data using the Markov Chain Monte Carlo (MCMC) method; resolving a time of occurrence of maximum energy in the wavelet from the seismic survey data with a Metropolis-Hastings (M-H) sampling procedure; forming a normalized amplitude of energy for the wavelet from traces in the seismic survey data; forming a composite trace at the resolved time of occurrence and normalized amplitude from an ensemble of the traces in the seismic survey data; applying a time filter to the wavelet based on the composite trace to form a resultant deconvolution wavelet having a main frequency in the seismic frequency band; and performing a deconvolution operation on the seismic traces by applying the resultant deconvolution wavelet to the seismic data for analysis of subsurface features of interest.
An electrolyte for a lithium secondary battery, comprising: a lithium salt; an additive containing a compound represented by Formula 1 below; and an organic solvent: wherein, in Formula 1, R is hydrogen or a substituted or unsubstituted alkyl group having 1 to 10 carbon atoms, m is an integer of 0 to 2, and wherein A is a substituted or unsubstituted hetero ring having 4 to 6 carbon atoms and containing a hetero element selected from the group consisting of nitrogen, oxygen, and sulfur); wherein the lithium salt comprises one or more selected from the group consisting of LiPF 6 , LiBF 4 , lithium bis(fluorosulfonyl imide) (LiN(SO 2 F) 2 ), lithium bis(trifluoromethanesulfonyl imide) (LiN(SO 2 CF 3 ) 2 ), and lithium bis(oxalate) borate (LiB(C 2 O 4 ) 2 . a lithium salt; an additive containing a compound represented by Formula 1 below; and an organic solvent: wherein, in Formula 1, R is hydrogen or a substituted or unsubstituted alkyl group having 1 to 10 carbon atoms, m is an integer of 0 to 2, and wherein A is a substituted or unsubstituted hetero ring having 4 to 6 carbon atoms and containing a hetero element selected from the group consisting of nitrogen, oxygen, and sulfur); wherein the lithium salt comprises one or more selected from the group consisting of LiPF 6 , LiBF 4 , lithium bis(fluorosulfonyl imide) (LiN(SO 2 F) 2 ), lithium bis(trifluoromethanesulfonyl imide) (LiN(SO 2 CF 3 ) 2 ), and lithium bis(oxalate) borate (LiB(C 2 O 4 ) 2 .
A radio resource control, RRC, connection method, wherein the method comprises: generating (401; 501), by a first terminal, a first RRC message; and sending (402; 502), by the first terminal, a first indication and first data to a second terminal through a first path, wherein the first path is a wireless communications interface between the first terminal and the second terminal; and the first data comprises the first RRC message, and the first indication is used to indicate the second terminal to send the first RRC message to a radio access network device; characterized in that the first indication is comprised in sidelink control information, SCI, and the SCI is sent to the second terminal before the first terminal sends the first data to the second terminal, and the first indication is transmitted on a physical sidelink control channel, PSCCH, and the first data is transmitted on a physical sidelink shared channel, PSSCH; and a time domain resource occupied by the PSCCH is different from a time domain resource occupied by the PSSCH, or a frequency domain resource occupied by the PSCCH is different from a frequency domain resource occupied by the PSSCH, or a frequency domain resource occupied by the PSCCH is different from a frequency domain resource occupied by the PSSCH and a time domain resource occupied by the PSCCH is different from a frequency domain resource occupied by the PSSCH. generating (401; 501), by a first terminal, a first RRC message; and sending (402; 502), by the first terminal, a first indication and first data to a second terminal through a first path, wherein the first path is a wireless communications interface between the first terminal and the second terminal; and the first data comprises the first RRC message, and the first indication is used to indicate the second terminal to send the first RRC message to a radio access network device; characterized in that the first indication is comprised in sidelink control information, SCI, and the SCI is sent to the second terminal before the first terminal sends the first data to the second terminal, and the first indication is transmitted on a physical sidelink control channel, PSCCH, and the first data is transmitted on a physical sidelink shared channel, PSSCH; and a time domain resource occupied by the PSCCH is different from a time domain resource occupied by the PSSCH, or a frequency domain resource occupied by the PSCCH is different from a frequency domain resource occupied by the PSSCH, or a frequency domain resource occupied by the PSCCH is different from a frequency domain resource occupied by the PSSCH and a time domain resource occupied by the PSCCH is different from a frequency domain resource occupied by the PSSCH.
A screening method for identifying a test agent as a skin tone agent, comprising: a. suspending melanocytes in a first medium at a concentration of between about 1,000 cells/mL and about 2,000,000 cells/mL to provide a test suspension; b. placing at least some of the test suspension in a container; c. contacting at least some of the suspended cells in the container with HMGB1 followed by a test agent to make a test sample; d. determining dendricity and/or cell body size of the melanocytes in the test sample; e. comparing the dendricity and/or cell body size of the melanocytes of (d) to a control; f. identifying the test agent as a skin tone agent when the measured dendricity and/or cell body size does not correspond to at least one of an increase in dendricity and cell body size. a. suspending melanocytes in a first medium at a concentration of between about 1,000 cells/mL and about 2,000,000 cells/mL to provide a test suspension; b. placing at least some of the test suspension in a container; c. contacting at least some of the suspended cells in the container with HMGB1 followed by a test agent to make a test sample; d. determining dendricity and/or cell body size of the melanocytes in the test sample; e. comparing the dendricity and/or cell body size of the melanocytes of (d) to a control; f. identifying the test agent as a skin tone agent when the measured dendricity and/or cell body size does not correspond to at least one of an increase in dendricity and cell body size.
An electron microscope comprising: an electron source for emitting an electron beam (EB); an illumination lens for focusing the emitted electron beam (EB); an aberration corrector for correcting aberrations; an illumination deflector assembly operating to deflect the electron beam (EB) and to vary its tilt relative to a sample (S); the illumination deflector assembly is disposed closer to the electron source than the aberration corrector so that the geometric aberrations in the objective lens caused by the tilt of the electron beam can be cancelled out by the geometric aberrations in the aberration corrector produced by the tilt of the beam; a scanning deflector for scanning the sample (S) with the electron beam (EB); an objective lens ; a detector for detecting electrons transmitted through the sample (S) and producing an image signal; a control section for controlling the illumination deflector assembly ; and an image generating section for receiving the image signal and generating a differential phase contrast, DPC, image; wherein said tilt of the electron beam (EB) is varied by the illumination deflector assembly such that the image generating section generates a plurality of DPC images with plural different tilts of the electron beam (EB) and creates a final image based on the plurality of DPC images. an electron source for emitting an electron beam (EB); an illumination lens for focusing the emitted electron beam (EB); an aberration corrector for correcting aberrations; an illumination deflector assembly operating to deflect the electron beam (EB) and to vary its tilt relative to a sample (S); the illumination deflector assembly is disposed closer to the electron source than the aberration corrector so that the geometric aberrations in the objective lens caused by the tilt of the electron beam can be cancelled out by the geometric aberrations in the aberration corrector produced by the tilt of the beam; a scanning deflector for scanning the sample (S) with the electron beam (EB); an objective lens ; a detector for detecting electrons transmitted through the sample (S) and producing an image signal; a control section for controlling the illumination deflector assembly ; and an image generating section for receiving the image signal and generating a differential phase contrast, DPC, image; wherein said tilt of the electron beam (EB) is varied by the illumination deflector assembly such that the image generating section generates a plurality of DPC images with plural different tilts of the electron beam (EB) and creates a final image based on the plurality of DPC images.
A working vehicle comprising: a running vehicle body which comprises running devices and to which a working machine can be replaceably connected; an engine (E) mounted on the running vehicle body and serving as a drive source for the running devices and the working machine ; a bonnet (B) covering the engine (E); a headlamp attached to a front portion of the bonnet (B); and a muffler (M) arranged below the headlamp in an internal space of the bonnet (B), characterized by a headlamp stay for connecting the headlamp to the bonnet (B); a mounting plate for mounting the headlamp stay onto the bonnet (B); and a heat shield member arranged between the headlamp and the muffler (M). a running vehicle body which comprises running devices and to which a working machine can be replaceably connected; an engine (E) mounted on the running vehicle body and serving as a drive source for the running devices and the working machine ; a bonnet (B) covering the engine (E); a headlamp attached to a front portion of the bonnet (B); and a muffler (M) arranged below the headlamp in an internal space of the bonnet (B), characterized by a headlamp stay for connecting the headlamp to the bonnet (B); a mounting plate for mounting the headlamp stay onto the bonnet (B); and a heat shield member arranged between the headlamp and the muffler (M).
A power supply system with automatic switchover voltage for vehicle control unit at least comprising: a charging station including a supply communication module and a communication device, wherein said supply communication module is configured to communicate with a vehicle control unit of a mobile vehicle, said supply communication module comprising a power supply module to provide power for said vehicle control unit of said mobile vehicle; wherein said supply communication module provides a first direct voltage and communicates with said vehicle control unit of said mobile vehicle before supplying power, and if said supply communication module does not receive any message from said vehicle control unit of said mobile vehicle within a first time interval, said supply communication module automatically switches to a second direct voltage from said first direct voltage or automatically increases said first direct voltage within a second time interval, and supplies power to said vehicle control unit; and wherein said second direct voltage is greater than said first direct voltage, characterized in that said power supply system further comprises a charging money setting module; wherein said charging money setting module is coupled to said supply communication module to set a charging money to provide said power for said vehicle control unit of said mobile vehicle by said power supply module, and further characterised in that said communication device is coupled to said supply communication module for showing power supply status.
Apparatus, comprising identifying means adapted to identify, based on a request message sent by a policy and charging rules function upon an IP-CAN session establishment or modification and received from said policy and charging rules function via an interface between said apparatus and said policy and charging rules function, a policy controlled counter related to a user of a network where policy control is applied, wherein said request message includes a user ID of said user and a counter ID of said policy controlled counter; and pair providing means adapted to provide, in a response message to the policy and charging rules function via said interface, a plurality of status-time pairs of the policy controlled counter, wherein each status-time pair of the plurality of status-time pairs comprises a respective status of the policy controlled counter and a corresponding time when the respective status is to be applied. identifying means adapted to identify, based on a request message sent by a policy and charging rules function upon an IP-CAN session establishment or modification and received from said policy and charging rules function via an interface between said apparatus and said policy and charging rules function, a policy controlled counter related to a user of a network where policy control is applied, wherein said request message includes a user ID of said user and a counter ID of said policy controlled counter; and pair providing means adapted to provide, in a response message to the policy and charging rules function via said interface, a plurality of status-time pairs of the policy controlled counter, wherein each status-time pair of the plurality of status-time pairs comprises a respective status of the policy controlled counter and a corresponding time when the respective status is to be applied.
Filling machine for filling open-mouth bags with bulk material, wherein the open-mouth bag is at least temporarily received in a container and wherein a cleaning apparatus is comprised for cleaning a tubular inner wall of the container e.g. of particles of bulk material, for cleaning the tubular inner wall after or during discharge and/or prior to or during inserting an open-mouth bag, characterized in that the cleaning apparatus comprises a cleaning device that is movable in the container along the longitudinal direction , and that the cleaning device comprises a laminate of a multitude of layers (204-208), and wherein the laminate comprises two end faces , one end face configured as a top surface and one end face, as a bottom surface , and wherein the laminate is configured with a plurality of outwardly oriented fluid outlet ports for directing a fluid flow toward the tubular inner wall of the container .
A network device , configured to: allocate network resources in a communication network according to a current state , wherein the current state is represented by a state variable vector, wherein the state variable vector comprises at least one of: a plurality of key performance indicator, KPI, values representing a service level agreement, SLA, in a plurality of services; number of service requests for each service in the plurality of services; and number of resources allocated to each service in the plurality of services; determine a plurality of permissible actions from the current state, wherein each action in the plurality of permissible actions comprises a change to the current state; simulate a plurality of state paths for each action in the plurality of permissible actions, wherein each state path in the plurality of state paths comprises a plurality of consecutive actions , each of the consecutive actions causing a state change; calculate a cost value for each action in the plurality of permissible actions based on the corresponding plurality of state paths; choose an action from the plurality of permissible actions based on the cost value of each action in the plurality of permissible actions; transition to a new state by performing the chosen action; and allocate the network resources in the communication network according to the new state. a plurality of key performance indicator, KPI, values representing a service level agreement, SLA, in a plurality of services; number of service requests for each service in the plurality of services; and number of resources allocated to each service in the plurality of services; determine a plurality of permissible actions from the current state, wherein each action in the plurality of permissible actions comprises a change to the current state; simulate a plurality of state paths for each action in the plurality of permissible actions, wherein each state path in the plurality of state paths comprises a plurality of consecutive actions , each of the consecutive actions causing a state change; calculate a cost value for each action in the plurality of permissible actions based on the corresponding plurality of state paths; choose an action from the plurality of permissible actions based on the cost value of each action in the plurality of permissible actions; transition to a new state by performing the chosen action; and allocate the network resources in the communication network according to the new state.
A method for sending uplink control information, comprising: receiving (S101) a first physical downlink control channel, PDCCH, and a second PDCCH that are sent by a network device, wherein the first PDCCH and the second PDCCH are transmitted in a same time unit, the first PDCCH indicates a first physical uplink control channel, PUCCH, resource and is used to schedule a first downlink transport block, TB, and the second PDCCH indicates a second PUCCH resource and is used to schedule a second downlink TB; and sending (S102), on the first PUCCH resource, response information of the first downlink TB and response information of the second downlink TB to the network device, wherein the method further comprises: sending, on the second PUCCH resource, the response information of the first downlink TB and/or the response information of the second downlink TB, wherein the response information of the TBs on the first PUCCH resource and the second PUCCH resource is sent by using two different beams. receiving (S101) a first physical downlink control channel, PDCCH, and a second PDCCH that are sent by a network device, wherein the first PDCCH and the second PDCCH are transmitted in a same time unit, the first PDCCH indicates a first physical uplink control channel, PUCCH, resource and is used to schedule a first downlink transport block, TB, and the second PDCCH indicates a second PUCCH resource and is used to schedule a second downlink TB; and sending (S102), on the first PUCCH resource, response information of the first downlink TB and response information of the second downlink TB to the network device, wherein the method further comprises: sending, on the second PUCCH resource, the response information of the first downlink TB and/or the response information of the second downlink TB, wherein the response information of the TBs on the first PUCCH resource and the second PUCCH resource is sent by using two different beams.
A computer program comprising computer program code means which is adapted, when said computer program is run on a computer, to cause an ultrasound imaging system to implement the following steps acquiring a plurality of 2D ultrasound images by way of an ultrasound transducer, wherein at least one of the plurality of 2D ultrasound images comprises a part of the tool; generating a 3D ultrasound image based on the plurality of 2D ultrasound images; identifying a first location of the tool within the 3D ultrasound image; acquiring an additional 2D ultrasound image and location information relating to the location of the ultrasound transducer during capture of the additional 2D ultrasound image; updating the 3D ultrasound image based on the additional 2D ultrasound image and the location information; and identifying a location of the tool with respect to the additional 2D ultrasound image within the updated 3D ultrasound image based only on imaging data of the updated 3D ultrasound image. acquiring a plurality of 2D ultrasound images by way of an ultrasound transducer, wherein at least one of the plurality of 2D ultrasound images comprises a part of the tool; generating a 3D ultrasound image based on the plurality of 2D ultrasound images; identifying a first location of the tool within the 3D ultrasound image; acquiring an additional 2D ultrasound image and location information relating to the location of the ultrasound transducer during capture of the additional 2D ultrasound image; updating the 3D ultrasound image based on the additional 2D ultrasound image and the location information; and identifying a location of the tool with respect to the additional 2D ultrasound image within the updated 3D ultrasound image based only on imaging data of the updated 3D ultrasound image.
A method comprising: capturing an image of a scene by an image capturing unit of a device that includes at least one inertial sensor to measure orientation of the device ; determining relative device orientation of the device based, at least in part, on determined location of at least one vanishing point in the captured image of the scene; and performing one or more calibration operations for the at least one inertial sensor based, at least in part, on the relative device orientation determined based, at least in part, on the determined location of the at least one vanishing point in the captured image of the scene. capturing an image of a scene by an image capturing unit of a device that includes at least one inertial sensor to measure orientation of the device ; determining relative device orientation of the device based, at least in part, on determined location of at least one vanishing point in the captured image of the scene; and performing one or more calibration operations for the at least one inertial sensor based, at least in part, on the relative device orientation determined based, at least in part, on the determined location of the at least one vanishing point in the captured image of the scene.