mhurhangee/patent-ind-claim-en huggingface dataset:
A signal reporting method, comprising: sending (S310), by a network device, first configuration information to a terminal device, wherein the first configuration information is used to configure the terminal device to measure a first signal and a second signal; and receiving (S320), by the network device, a reporting result sent by the terminal device, characterized in that the reporting result comprises information about: a signal determined based on a processed measurement result, and K signals in N first signals and M second signals; wherein N≥1, M≥1, 1≤K≤N+M, the processed measurement result is obtained by performing joint processing on a measurement result of at least one first signal and a measurement result of at least one second signal by the terminal device, and the K signals in the N first signals and the M second signals is determined by the terminal device based on a measurement result of the N first signals and a measurement result of the M second signals; wherein the first signals are channel state information-reference signals, CSI-RSs, and the second signals are some of signals in a synchronization signal, SS, block. sending (S310), by a network device, first configuration information to a terminal device, wherein the first configuration information is used to configure the terminal device to measure a first signal and a second signal; and receiving (S320), by the network device, a reporting result sent by the terminal device, characterized in that the reporting result comprises information about: a signal determined based on a processed measurement result, and K signals in N first signals and M second signals; wherein N≥1, M≥1, 1≤K≤N+M, the processed measurement result is obtained by performing joint processing on a measurement result of at least one first signal and a measurement result of at least one second signal by the terminal device, and the K signals in the N first signals and the M second signals is determined by the terminal device based on a measurement result of the N first signals and a measurement result of the M second signals; wherein the first signals are channel state information-reference signals, CSI-RSs, and the second signals are some of signals in a synchronization signal, SS, block. a signal determined based on a processed measurement result, and K signals in N first signals and M second signals; wherein N≥1, M≥1, 1≤K≤N+M, the processed measurement result is obtained by performing joint processing on a measurement result of at least one first signal and a measurement result of at least one second signal by the terminal device, and the K signals in the N first signals and the M second signals is determined by the terminal device based on a measurement result of the N first signals and a measurement result of the M second signals; wherein the first signals are channel state information-reference signals, CSI-RSs, and the second signals are some of signals in a synchronization signal, SS, block.
An electromagnetic flowmeter configured to apply a magnetic field, which is generated by excitation current, to a fluid to be measured flowing in a measurement tube , and to measure a flow rate of the fluid to be measured on the basis of a detection signal to be generated from an electrode provided in the measurement tube , the electromagnetic flowmeter comprising: an excitation circuit configured to generate the excitation current having a positive excitation period, a negative excitation period and a non-excitation period; and a diagnosis unit configured to detect an abnormality based on characteristics of the fluid to be measured, on the basis of a level of the detection signal in a non-excitation stable period, which is a period in which a differential noise of detection signal to be generated in the non-excitation period converges, wherein the diagnosis unit is configured to determine that the abnormality which causes a variation of a potential of the electrode has occurred, when the level of the detection signal is equal to or greater than a predetermined reference value. an excitation circuit configured to generate the excitation current having a positive excitation period, a negative excitation period and a non-excitation period; and a diagnosis unit configured to detect an abnormality based on characteristics of the fluid to be measured, on the basis of a level of the detection signal in a non-excitation stable period, which is a period in which a differential noise of detection signal to be generated in the non-excitation period converges, wherein the diagnosis unit is configured to determine that the abnormality which causes a variation of a potential of the electrode has occurred, when the level of the detection signal is equal to or greater than a predetermined reference value.
An electromagnetic-wave absorbing sheet comprising: an electromagnetic-wave absorbing layer that includes a particulate electromagnetic-wave absorbing material and a rubber binder ; and a dielectric layer that contains a dielectric and is arranged on a back surface of the electromagnetic-wave absorbing layer , characterized in that the electromagnetic-wave absorbing material is a magnetic iron oxide that magnetically resonates in a frequency band in or above a millimeter-wave band, and the dielectric layer contains no conductive powder, is non-magnetic and has flexibility, a real part of a complex relative permittivity of the dielectric layer is 2 or more and 6 or less, and the dielectric layer has a thickness of 10 μm or more and 100 μm or less. an electromagnetic-wave absorbing layer that includes a particulate electromagnetic-wave absorbing material and a rubber binder ; and a dielectric layer that contains a dielectric and is arranged on a back surface of the electromagnetic-wave absorbing layer , characterized in that the electromagnetic-wave absorbing material is a magnetic iron oxide that magnetically resonates in a frequency band in or above a millimeter-wave band, and the dielectric layer contains no conductive powder, is non-magnetic and has flexibility, a real part of a complex relative permittivity of the dielectric layer is 2 or more and 6 or less, and the dielectric layer has a thickness of 10 μm or more and 100 μm or less.
A system for generating a detail-enhanced video signal , the system comprising: a filter that receives an input video signal , the filter being configured to: generate a first signal that is a linear transformation of the input video signal, wherein the linear transformation includes determining average mean values and average variance values for a plurality of windows that cover a pixel of the input video signal, and generate a detail signal by determining a difference between the input video signal and the first signal; a noise reducer configured to generate a filtered detail signal by removing noise from the detail signal, wherein parameters of the linear transformation are utilized to control the noise; a multiplier configured to multiply the filtered detail signal by a gain function to generate a second signal , the gain function being based on an amount of variance in the input video signal, such that (i) the gain function peaks near a mid value of variance, (ii) from the mid value the gain function decreases with increasing variance, and (iii) from the mid value the gain function decreases with decreasing variance; and an adder configured to combine the input video signal and the second signal to generate the detail-enhanced video signal. a filter that receives an input video signal , the filter being configured to: generate a first signal that is a linear transformation of the input video signal, wherein the linear transformation includes determining average mean values and average variance values for a plurality of windows that cover a pixel of the input video signal, and generate a detail signal by determining a difference between the input video signal and the first signal; generate a first signal that is a linear transformation of the input video signal, wherein the linear transformation includes determining average mean values and average variance values for a plurality of windows that cover a pixel of the input video signal, and generate a detail signal by determining a difference between the input video signal and the first signal; a noise reducer configured to generate a filtered detail signal by removing noise from the detail signal, wherein parameters of the linear transformation are utilized to control the noise; a multiplier configured to multiply the filtered detail signal by a gain function to generate a second signal , the gain function being based on an amount of variance in the input video signal, such that (i) the gain function peaks near a mid value of variance, (ii) from the mid value the gain function decreases with increasing variance, and (iii) from the mid value the gain function decreases with decreasing variance; and an adder configured to combine the input video signal and the second signal to generate the detail-enhanced video signal.
A method for relocating a foundation , said method comprising at least the following steps of: - placing an elongated lifting element of a lifting device at least partially in an elongated lifting element mating part provided fixedly in the foundation , - propping a lifting cylinder of the lifting device on a support surface , - moving the lifting element , and the foundation carried thereby, in vertical direction by means of the lifting cylinder , - placing the elongated lifting element of the lifting device in the lifting element mating part from outside the foundation by way of an aperture provided in an outer edge of the foundation - providing a sliding device between the lifting cylinder and the support surface , - securing the sliding device in an essentially immovable manner to the lifting cylinder , characterised in that the method further comprises - moving the sliding device and the lifting cylinder with respect to the support surface by sliding, - providing underneath the sliding device a mounting substantially immovable with respect to the support surface , - sliding the sliding device and the lifting cylinder on top of the substantially immovable mounting. - placing an elongated lifting element of a lifting device at least partially in an elongated lifting element mating part provided fixedly in the foundation , - propping a lifting cylinder of the lifting device on a support surface , - moving the lifting element , and the foundation carried thereby, in vertical direction by means of the lifting cylinder , - placing the elongated lifting element of the lifting device in the lifting element mating part from outside the foundation by way of an aperture provided in an outer edge of the foundation - providing a sliding device between the lifting cylinder and the support surface , - securing the sliding device in an essentially immovable manner to the lifting cylinder , characterised in that the method further comprises - moving the sliding device and the lifting cylinder with respect to the support surface by sliding, - providing underneath the sliding device a mounting substantially immovable with respect to the support surface , - sliding the sliding device and the lifting cylinder on top of the substantially immovable mounting.
A motor and pump assembly comprising: a base including an upper base portion having a first end and a second end, a lower base portion having a first end and a second end, and a hinge pivotably connecting the upper base portion and the lower base portion ; a motor having an attachment plate mounted to said first end of the upper base portion , said motor having a shaft rotatable about a rotation axis; a pump mounted to said first end of said lower base portion , said pump having a piston rotatable about a rotation axis and linearly translatable along the rotation axis, said pump piston being coupled to said motor shaft ; a linear actuator mounted to the attachment plate ; and wherein actuation of said linear actuator pivots said upper base portion with respect to said lower base portion about said hinge thereby changing an angle between said rotation axis of said motor shaft and said rotation axis of said pump piston , characterized in that a flexible member having a proximal end is attached to said linear actuator and a distal end opposite said proximal end is connected to a bracket attached to the lower base portion , and wherein said linear actuator drives said flexible member in a curved path. a base including an upper base portion having a first end and a second end, a lower base portion having a first end and a second end, and a hinge pivotably connecting the upper base portion and the lower base portion ; a motor having an attachment plate mounted to said first end of the upper base portion , said motor having a shaft rotatable about a rotation axis; a pump mounted to said first end of said lower base portion , said pump having a piston rotatable about a rotation axis and linearly translatable along the rotation axis, said pump piston being coupled to said motor shaft ; a linear actuator mounted to the attachment plate ; and wherein actuation of said linear actuator pivots said upper base portion with respect to said lower base portion about said hinge thereby changing an angle between said rotation axis of said motor shaft and said rotation axis of said pump piston , characterized in that a flexible member having a proximal end is attached to said linear actuator and a distal end opposite said proximal end is connected to a bracket attached to the lower base portion , and wherein said linear actuator drives said flexible member in a curved path.
An eyeglass frame shape measurement device configured to measure a shape of an eyeglass frame (F), comprising: a light projecting optical system having a light source and configured to emit measurement light from the light source toward a groove of a rim of an eyeglass frame (F); a light receiving optical system having a detector and configured to cause the detector to receive reflected light of the measurement light emitted toward the groove of the rim of the eyeglass frame (F) by the light projecting optical system and reflected by the groove of the rim of the eyeglass frame (F); acquisition means configured to acquire a cross-sectional shape of the groove of the rim of the eyeglass frame (F) based on the reflected light received by the detector ; luminance control means configured to control a luminance level of the reflected light to be received by the detector ; characterized by an eyeglass frame type information acquisition means configured to acquire eyeglass frame type information, wherein the luminance control means is configured to control the luminance level based on the eyeglass frame type information acquired by the eyeglass frame type information acquisition means . a light projecting optical system having a light source and configured to emit measurement light from the light source toward a groove of a rim of an eyeglass frame (F); a light receiving optical system having a detector and configured to cause the detector to receive reflected light of the measurement light emitted toward the groove of the rim of the eyeglass frame (F) by the light projecting optical system and reflected by the groove of the rim of the eyeglass frame (F); acquisition means configured to acquire a cross-sectional shape of the groove of the rim of the eyeglass frame (F) based on the reflected light received by the detector ; luminance control means configured to control a luminance level of the reflected light to be received by the detector ; characterized by an eyeglass frame type information acquisition means configured to acquire eyeglass frame type information, wherein the luminance control means is configured to control the luminance level based on the eyeglass frame type information acquired by the eyeglass frame type information acquisition means .
A heat exchange system including an outdoor unit and an air conditioner indoor unit , comprising: an outdoor unit heat exchange assembly comprising a coolant heat radiation module and fins ; a first circulation pipeline comprising an output pipe , a connecting pipe and a return pipe , wherein the output pipe communicates with an air conditioner indoor unit and the coolant heat radiation module , the connecting pipe communicates with the coolant heat radiation module and the fins , and the return pipe communicates with the fins and the air conditioner indoor unit ; a control valve assembly connected with the output pipe and controlling an opened-closed state of the first circulation pipeline ; a heating pipeline communicating with the output pipe and the fins , and further connected with the control valve assembly , wherein the control valve assembly controls an opened-closed state of the heating pipeline ; and a heating assembly connected with the heating pipeline and configured to heat a coolant in the heating pipeline before entering the fins , wherein in the heating process, the first circulation pipeline is opened through, and in the defrosting process, the first circulation pipeline and the heating pipeline are both opened through, and the heating assembly is started. an outdoor unit heat exchange assembly comprising a coolant heat radiation module and fins ; a first circulation pipeline comprising an output pipe , a connecting pipe and a return pipe , wherein the output pipe communicates with an air conditioner indoor unit and the coolant heat radiation module , the connecting pipe communicates with the coolant heat radiation module and the fins , and the return pipe communicates with the fins and the air conditioner indoor unit ; a control valve assembly connected with the output pipe and controlling an opened-closed state of the first circulation pipeline ; a heating pipeline communicating with the output pipe and the fins , and further connected with the control valve assembly , wherein the control valve assembly controls an opened-closed state of the heating pipeline ; and a heating assembly connected with the heating pipeline and configured to heat a coolant in the heating pipeline before entering the fins , wherein in the heating process, the first circulation pipeline is opened through, and in the defrosting process, the first circulation pipeline and the heating pipeline are both opened through, and the heating assembly is started.
Mechanical movement for a chronograph watch, comprising: - a regulating member with an axis and a balance-spring mounted on said axis , said regulating member allowing to regulate the running of the chronograph, - a launcher being arranged to give an impulse to start said regulating member when the user starts the chronograph; characterized in that - the regulating member has an oscillation frequency equal to or greater than 500 Hz; - said movement also comprises a hub made of a material with a voluminal mass lower than that of said axis , said hub serving to provide a support surface for the launcher , and being mounted on said axis; and in that - said launcher is arranged to give said impulse directly to said hub mounted on said axis. - a regulating member with an axis and a balance-spring mounted on said axis , said regulating member allowing to regulate the running of the chronograph, - a launcher being arranged to give an impulse to start said regulating member when the user starts the chronograph; - the regulating member has an oscillation frequency equal to or greater than 500 Hz; - said movement also comprises a hub made of a material with a voluminal mass lower than that of said axis , said hub serving to provide a support surface for the launcher , and being mounted on said axis; - said launcher is arranged to give said impulse directly to said hub mounted on said axis.
A method of repairing an acoustic core cell of an acoustic sandwich panel , the method comprising: inserting a core repair splice adjacent to a number of damaged walls of the acoustic core cell of the acoustic sandwich panel ; nesting the core repair splice onto the number of damaged walls ; and bonding the core repair splice to the number of damaged walls and thereby to repair the acoustic core cell of the acoustic sandwich panel . inserting a core repair splice adjacent to a number of damaged walls of the acoustic core cell of the acoustic sandwich panel ; nesting the core repair splice onto the number of damaged walls ; and bonding the core repair splice to the number of damaged walls and thereby to repair the acoustic core cell of the acoustic sandwich panel .
A method for cleaning an ink circuit of an ink-jet printer, comprising at least one tank , referred to as the main tank, at least one removable ink cartridge , a pump for pumping the ink from the cartridge and means (32-35, 320, 340, 341, 343, 344) for fluid connection between the ink cartridge and the tank, and means for controlling the printer, this method comprising at least: - a) a step of sending solvent, at a pressure P1, to the cartridge , by at least a part of the means for fluid connection between the ink cartridge and the tank , the solvent flowing in the reverse direction (II) to the flowing direction (I) of the ink, when the latter is sent from the ink cartridge towards the tank ; - b) a step of pumping at least a portion of the solvent, sent in step a), towards the main tank . - a) a step of sending solvent, at a pressure P1, to the cartridge , by at least a part of the means for fluid connection between the ink cartridge and the tank , the solvent flowing in the reverse direction (II) to the flowing direction (I) of the ink, when the latter is sent from the ink cartridge towards the tank ; - b) a step of pumping at least a portion of the solvent, sent in step a), towards the main tank .
A method for configuring a hearing system specifically for a user, wherein the hearing system comprises a receiving unit for receiving sound events, a converter unit for the frequency-dependent variable adaption of the received sound events, and a reproduction unit for the reproduction of the adapted sound events to the hearing organ of the user, wherein the following steps are performed: a) reproduction of a first sound event with a first frequency and a predetermined loudness via at least one sound generator; b) immediately thereafter, reproduction of a second sound event with a second frequency and, for a normal hearing person, the same loudness as the first sound event via the sound generator, wherein the frequencies of the first and of the second sound event are adjacent to one another; c) in the next step, successively changing at least one adaptation parameter of the converter unit of the hearing system if a loudness difference between the first and second sound event is detected by the user, so that the loudness of the first sound event is perceived by the user of the auditory system as equal to the loudness of the second sound event. a) reproduction of a first sound event with a first frequency and a predetermined loudness via at least one sound generator; b) immediately thereafter, reproduction of a second sound event with a second frequency and, for a normal hearing person, the same loudness as the first sound event via the sound generator, wherein the frequencies of the first and of the second sound event are adjacent to one another; c) in the next step, successively changing at least one adaptation parameter of the converter unit of the hearing system if a loudness difference between the first and second sound event is detected by the user, so that the loudness of the first sound event is perceived by the user of the auditory system as equal to the loudness of the second sound event.