mhurhangee/patent-ind-claim-en huggingface dataset:
A method, implemented by one or more processors, for identifying a group of voxels associated with tissue affected by a disease, the method comprising: receiving imaging data corresponding to three-dimensional scans of organ tissue, the imaging data based on a comparison between one or more contrast medium enhanced scans of a patient and one or more non-contrast medium enhanced scans of the patient; processing voxels of the imaging data to identify one or more modes from the imaging data, wherein the one or more modes are identified from one or more distributions of enhancement values of the voxels over ranges of the enhancement values, wherein a mode is a value or a range of values that are most common within a range of the enhancement values; generating a region of interest for a mode voxel corresponding to the determined one or more modes, wherein the region of interest identifies a volume of data, being a portion of the imaging data, corresponding to a region surrounding the mode voxel; generating a tissue threshold value for the enhancement values based on standard deviations of the enhancement values for voxels within the region of interest; and identifying a group of voxels corresponding to threshold enhancement values that satisfy the tissue threshold value. receiving imaging data corresponding to three-dimensional scans of organ tissue, the imaging data based on a comparison between one or more contrast medium enhanced scans of a patient and one or more non-contrast medium enhanced scans of the patient; processing voxels of the imaging data to identify one or more modes from the imaging data, wherein the one or more modes are identified from one or more distributions of enhancement values of the voxels over ranges of the enhancement values, wherein a mode is a value or a range of values that are most common within a range of the enhancement values; generating a region of interest for a mode voxel corresponding to the determined one or more modes, wherein the region of interest identifies a volume of data, being a portion of the imaging data, corresponding to a region surrounding the mode voxel; generating a tissue threshold value for the enhancement values based on standard deviations of the enhancement values for voxels within the region of interest; and identifying a group of voxels corresponding to threshold enhancement values that satisfy the tissue threshold value.
Aerosol separator for separating aerosol particles from gas, wherein the aerosol separator features a housing having a housing opening and a cover designed for closing the housing opening, wherein at least one coalescence filter element is insertable into the housing and extractable from the housing through the housing opening, wherein the aerosol separator features a contact surface for the coalescence filter element and wherein the coalescence filter element is tensioned in a slip-resistant manner in the housing in a position of use of the aerosol separator and disposed loosely in the housing in a maintenance position of the aerosol separator in such a way that the coalescence filter element is extractable from the housing , characterized in that - the contact surface is associated with a drawer element , - the aerosol separator features at least one movement means designed to movably support the drawer element in the housing , - the aerosol separator features at least one guiding element for guiding the movement of the drawer element and - the moving means and the guiding element cooperate in such a way that the coalescence filter element is movable through the movement of the drawer element from the maintenance position to the position of use, sealingly tensionable in the housing , and movable from the position of use to the maintenance position, - wherein the guiding element is designed to guide the drawer element both in at least one horizontal direction (X) disposed perpendicularly to the housing axis and simultaneously in at least one axial direction (Y) disposed parallel to the housing axis; and characterized in that the cover is a door pivotally mounted on the housing ; and in that the drawer element cooperates with the door in such a way that by opening the door the contact surface is movable into the maintenance position and by closing the door the contact surface is movable into the position of use. - the contact surface is associated with a drawer element , - the aerosol separator features at least one movement means designed to movably support the drawer element in the housing , - the aerosol separator features at least one guiding element for guiding the movement of the drawer element and - the moving means and the guiding element cooperate in such a way that the coalescence filter element is movable through the movement of the drawer element from the maintenance position to the position of use, sealingly tensionable in the housing , and movable from the position of use to the maintenance position, - wherein the guiding element is designed to guide the drawer element both in at least one horizontal direction (X) disposed perpendicularly to the housing axis and simultaneously in at least one axial direction (Y) disposed parallel to the housing axis; and
A refrigerator comprising: a cabinet having a storage compartment therein; an illumination device for illuminating an interior of the storage compartment; a door hinged to the cabinet for opening and closing the storage compartment, the door having an opening formed therein and a panel assembly having a front panel provided at a front thereof, characterized by a knock sensor module comprising a microphone module having a first microphone for sensing a sound wave generated by a knock vibration applied to the door, a module microcomputer for determining whether the knock vibration is a predetermined knock based on the sensed sound wave, and a noise sensor provided separately from the first microphone for sensing external noise in order to prevent incorrect sensing due to external noise or abnormal vibration, wherein the noise sensor comprises a second microphone; a controller provided separately from the module microcomputer for receiving a knock-on signal from the module microcomputer and operating the illumination device such that light is transmitted through the panel assembly to enable a user to see the interior of the storage compartment from outside the door. a cabinet having a storage compartment therein; an illumination device for illuminating an interior of the storage compartment; a door hinged to the cabinet for opening and closing the storage compartment, the door having an opening formed therein and a panel assembly having a front panel provided at a front thereof, characterized by a knock sensor module comprising a microphone module having a first microphone for sensing a sound wave generated by a knock vibration applied to the door, a module microcomputer for determining whether the knock vibration is a predetermined knock based on the sensed sound wave, and a noise sensor provided separately from the first microphone for sensing external noise in order to prevent incorrect sensing due to external noise or abnormal vibration, wherein the noise sensor comprises a second microphone; a controller provided separately from the module microcomputer for receiving a knock-on signal from the module microcomputer and operating the illumination device such that light is transmitted through the panel assembly to enable a user to see the interior of the storage compartment from outside the door.
A system, comprising: at least one memory that stores computer-executable instructions; and at least one processor configured to access the at least one memory , wherein the at least one processor is configured to execute the computer-executable instructions to: receive vehicle information based at least in part on at least one electric vehicle ; receive other information based at least in part on a charging station for the at least one vehicle ; and transmit the vehicle information and the other information to a data receiving device; wherein the vehicle information comprises a time when the at least one vehicle was charging, a length of time the at least one vehicle was charging, and/or a distance the at least one vehicle travelled during a predefined time period, characterized in that the vehicle information and the other information are utilized for planning power allocation on a grid and/or predicting power usage on the grid, and planning at least one upgrade to the grid based at least in part on the received vehicle information and the received other information. at least one memory that stores computer-executable instructions; and at least one processor configured to access the at least one memory , wherein the at least one processor is configured to execute the computer-executable instructions to: receive vehicle information based at least in part on at least one electric vehicle ; receive other information based at least in part on a charging station for the at least one vehicle ; and transmit the vehicle information and the other information to a data receiving device; wherein the vehicle information comprises a time when the at least one vehicle was charging, a length of time the at least one vehicle was charging, and/or a distance the at least one vehicle travelled during a predefined time period, characterized in that the vehicle information and the other information are utilized for planning power allocation on a grid and/or predicting power usage on the grid, and planning at least one upgrade to the grid based at least in part on the received vehicle information and the received other information. receive vehicle information based at least in part on at least one electric vehicle ; receive other information based at least in part on a charging station for the at least one vehicle ; and transmit the vehicle information and the other information to a data receiving device; wherein the vehicle information comprises a time when the at least one vehicle was charging, a length of time the at least one vehicle was charging, and/or a distance the at least one vehicle travelled during a predefined time period, characterized in that the vehicle information and the other information are utilized for planning power allocation on a grid and/or predicting power usage on the grid, and planning at least one upgrade to the grid based at least in part on the received vehicle information and the received other information.
A bispecific EGFR/c-Met binding FN3 domain containing molecule comprising a first FN3 domain that comprises the amino acid sequence of SEQ ID NO: 108 or SEQ ID NO: 135, and a second FN3 domain that comprises the amino acid sequence of SEQ ID NO: 111.
A pilot transmission method, comprising: receiving, by a terminal device, Radio Resource Control, RRC, signaling sent by a network device, wherein the RRC signaling comprises information used to indicate a correspondence between a first pilot and a second pilot group; determining, by the first terminal device, a target first pilot; determining, by the first terminal device based on the correspondence, a target second pilot group corresponding to the target first pilot, wherein the target first pilot is used by the network device to perform terminal device detection, and the target second pilot group comprises at least two second pilots; and sending, by the first terminal device, the target first pilot and the target second pilot group to the network device in a time unit, wherein each second pilot in the target second pilot group is repeatedly sent on at least two symbols of the time unit, and the target second pilot group is used by the network device to perform frequency offset estimation. receiving, by a terminal device, Radio Resource Control, RRC, signaling sent by a network device, wherein the RRC signaling comprises information used to indicate a correspondence between a first pilot and a second pilot group; determining, by the first terminal device, a target first pilot; determining, by the first terminal device based on the correspondence, a target second pilot group corresponding to the target first pilot, wherein the target first pilot is used by the network device to perform terminal device detection, and the target second pilot group comprises at least two second pilots; and sending, by the first terminal device, the target first pilot and the target second pilot group to the network device in a time unit, wherein each second pilot in the target second pilot group is repeatedly sent on at least two symbols of the time unit, and the target second pilot group is used by the network device to perform frequency offset estimation.
Agricultural working machine, in particular a tractor, combine harvester or forage harvester, having a power consumer arrangement comprising at least one working member and/or at least one mounted implement as power consumer , having a power supply arrangement comprising at least one fluid pump and/or at least one generator which is configured to the respective power consumer and is configured to pressurise or supply power to the same, and with a drive arrangement comprising a drive and a transfer gear which is connected downstream of the drive in terms of drive technology and transmits at least part of the drive power generated by the drive to the at least one fluid pump and/or the at least one generator, characterised in that the transfer case has toothed belts for transmitting power, a plurality of power consumers being provided and the transfer case transmitting at least some of the drive power generated by the drive via at least two different of the toothed belts to at least one of the fluid pumps and/or one of the generators in each case.
A method for wireless communication at a user equipment, UE , comprising: identifying a physical uplink shared channel, PUSCH, to transmit in an uplink pilot time slot, UpPTS, of a subframe; determining a timing for transmitting the PUSCH in the UpPTS based at least in part on a latency reduction capability of the UE ; determining whether to transmit uplink control information, UCI, on the PUSCH in the UpPTS based at least in part on the determined timing; and transmitting the PUSCH in the UpPTS based at least in part on the determining whether to transmit the UCI. identifying a physical uplink shared channel, PUSCH, to transmit in an uplink pilot time slot, UpPTS, of a subframe; determining a timing for transmitting the PUSCH in the UpPTS based at least in part on a latency reduction capability of the UE ; determining whether to transmit uplink control information, UCI, on the PUSCH in the UpPTS based at least in part on the determined timing; and transmitting the PUSCH in the UpPTS based at least in part on the determining whether to transmit the UCI.
A thickness measurement method for measuring a thickness of a measurement object , comprising the steps of: heating a surface of the measurement object by a heating device ; generating (S12, S22, S33), during the heating, thermal image data corresponding to a temperature of the surface of the measurement object by photographing the heated surface of the measurement object at a predetermined time interval by a photographing device ; obtaining (S150, S260) a temperature curve showing a temporal change in temperature of the surface of the measurement object based on the thermal image data generated, during the heating, by the photographing device ; fitting (S151, S261) a theoretical equation derived from a heat conduction equation and including parameters which are unknown quantities to the temperature curve to obtain a theoretical curve showing a temporal change in temperature of the surface of the measurement object ; and obtaining (S152, S262) the thickness of the measurement object from the values of the parameters included in the fitted theoretical equation, wherein the parameters are ones related to the thickness of the measurement object . heating a surface of the measurement object by a heating device ; generating (S12, S22, S33), during the heating, thermal image data corresponding to a temperature of the surface of the measurement object by photographing the heated surface of the measurement object at a predetermined time interval by a photographing device ; obtaining (S150, S260) a temperature curve showing a temporal change in temperature of the surface of the measurement object based on the thermal image data generated, during the heating, by the photographing device ; fitting (S151, S261) a theoretical equation derived from a heat conduction equation and including parameters which are unknown quantities to the temperature curve to obtain a theoretical curve showing a temporal change in temperature of the surface of the measurement object ; and obtaining (S152, S262) the thickness of the measurement object from the values of the parameters included in the fitted theoretical equation, wherein the parameters are ones related to the thickness of the measurement object .
A dual mode notch filter circuit for use in a multi-band millimeter wave, mmW, transmitter, comprising: a transmit filter circuit and two amplifiers, the transmit filter circuit disposed between the two amplifiers , the transmit filter circuit formed by at least one switch , at least one capacitor , and a double-tuned transformer , the transmit filter circuit having at least two modes configured to selectively filter a spurious signal in at least a first communication band, wherein the transmit filter is configured to selectively implement a notch response at a frequency of the spurious signal, wherein the at least one switch is configured to selectively couple the at least one capacitor across a winding of the double-tuned transformer. a transmit filter circuit and two amplifiers, the transmit filter circuit disposed between the two amplifiers , the transmit filter circuit formed by at least one switch , at least one capacitor , and a double-tuned transformer , the transmit filter circuit having at least two modes configured to selectively filter a spurious signal in at least a first communication band, wherein the transmit filter is configured to selectively implement a notch response at a frequency of the spurious signal, wherein the at least one switch is configured to selectively couple the at least one capacitor across a winding of the double-tuned transformer.
Arrangement for producing a corrugated cardboard web laminated on one side, comprising a) a corrugating apparatus (24, 26; 87) for generating a corrugated web , which has a corrugation, from a first material web , b) a glue-applying apparatus for applying glue to tips of the corrugation of the corrugated web , c) a pressing apparatus for pressing a top web onto the tips, provided with glue, of the corrugated web , d) a corrugating apparatus changeover apparatus for changing the corrugating apparatus (24, 26; 87), and e) a severing apparatus which is arranged upstream of the corrugating apparatus (24, 26; 87) and which serves for at least regionally severing the first material web in the transverse direction thereof, wherein severing the first material web takes place upon a displacement of the hitherto inactive corrugating apparatus and/or hitherto active corrugating apparatus , characterized in that f) severing takes place with the help of a stationary cutting device of the severing apparatus , wherein the first material web is guided over the cutting device during the displacement. a) a corrugating apparatus (24, 26; 87) for generating a corrugated web , which has a corrugation, from a first material web , b) a glue-applying apparatus for applying glue to tips of the corrugation of the corrugated web , c) a pressing apparatus for pressing a top web onto the tips, provided with glue, of the corrugated web , d) a corrugating apparatus changeover apparatus for changing the corrugating apparatus (24, 26; 87), and e) a severing apparatus which is arranged upstream of the corrugating apparatus (24, 26; 87) and which serves for at least regionally severing the first material web in the transverse direction thereof, wherein severing the first material web takes place upon a displacement of the hitherto inactive corrugating apparatus and/or hitherto active corrugating apparatus , characterized in that f) severing takes place with the help of a stationary cutting device of the severing apparatus , wherein the first material web is guided over the cutting device during the displacement.
Irradiation device for an apparatus for additively manufacturing three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy source, which Irradiation device comprises at least one irradiation unit (6 - 8), preferably an optical unit, arranged in a housing of the Irradiation device , wherein a stream generating device that is adapted to guide a gas stream that is adapted to be charged with residues present inside the housing through the housing of the irradiation device along a streaming path in which the gas stream at least partially streams alongside or through the at least one irradiation unit (6 - 8) for removing residues from the housing , characterized in that the stream generating device is adapted to adjust a position and/or an orientation, in particular a streaming direction, of at least one part of the streaming path dependent on a residue travel direction or a position and/or an orientation, in particular a streaming direction, of at least one part of the streaming path is defined dependent on a residue travel direction.
An oscillating circuit for determining a resonant frequency of an electro-mechanical oscillating device and for driving the electro-mechanical oscillating device at the determined resonant frequency, the oscillating circuit comprising: a driving circuit configured to receive at least one reference signal and further configured to provide a driving signal related to the at least one reference signal to the electro-mechanical oscillating device; and a start-up, impetus injection circuit operably coupled to the electro-mechanical oscillating device, wherein the start-up, impetus injection circuit is configured to selectively provide a start-up excitation signal to the electro-mechanical oscillation device, and wherein the start-up, impetus injection circuit is configured to be activated upon start-up of the oscillating circuit to drive the electro-mechanical oscillation device, wherein the driving circuit is configured to determine a resonant frequency by measuring a parameter related to the resonant frequency of the electro-mechanical oscillating device, wherein the oscillating circuit further includes: an excitation signal generating circuit, and is characterised by a start-up switch configured to selectively couple the excitation signal generating circuit to the electro-mechanical oscillating device. a driving circuit configured to receive at least one reference signal and further configured to provide a driving signal related to the at least one reference signal to the electro-mechanical oscillating device; and a start-up, impetus injection circuit operably coupled to the electro-mechanical oscillating device, wherein the start-up, impetus injection circuit is configured to selectively provide a start-up excitation signal to the electro-mechanical oscillation device, and wherein the start-up, impetus injection circuit is configured to be activated upon start-up of the oscillating circuit to drive the electro-mechanical oscillation device, wherein the driving circuit is configured to determine a resonant frequency by measuring a parameter related to the resonant frequency of the electro-mechanical oscillating device, wherein the oscillating circuit further includes: an excitation signal generating circuit, and is characterised by a start-up switch configured to selectively couple the excitation signal generating circuit to the electro-mechanical oscillating device. an excitation signal generating circuit, and is characterised by a start-up switch configured to selectively couple the excitation signal generating circuit to the electro-mechanical oscillating device.