mhurhangee/patent-ind-claim-en huggingface dataset:
A flexible display apparatus, comprising: a display panel ; a cover plate layer located on a display side of the display panel ; a touch layer , located between the display panel and the cover plate layer , and a polarizer sheet , located between the touch layer and the cover plate layer , wherein, the cover plate layer includes a first cover plate layer and a second cover plate layer stacked; the second cover plate layer is located on a side of the first cover plate layer that is closer to the display panel ; the first cover plate layer includes a first flexible cover plate layer and a hardened layer located on a side of the first flexible cover plate layer that is away from the display panel ; and the second cover plate layer includes a second flexible cover plate layer ; a material of the second flexible cover plate layer includes glass; and the touch layer is in direct contact with the display panel , characterized in that a thickness of the second flexible cover plate layer is 30 microns to 100 microns, the first flexible cover plate layer is a flexible polymer layer and a thickness of the first flexible cover plate layer is 30 microns to 100 microns, a material of the hardened layer includes acrylic or siloxane-based polymers, and a thickness of the hardened layer is 5 microns to 20 microns, the thickness of the first flexible cover plate layer and the thickness of the second flexible cover plate layer are both greater than the thickness of the hardened layer . a display panel ; a cover plate layer located on a display side of the display panel ; a touch layer , located between the display panel and the cover plate layer , and a polarizer sheet , located between the touch layer and the cover plate layer , wherein, the cover plate layer includes a first cover plate layer and a second cover plate layer stacked; the second cover plate layer is located on a side of the first cover plate layer that is closer to the display panel ; the first cover plate layer includes a first flexible cover plate layer and a hardened layer located on a side of the first flexible cover plate layer that is away from the display panel ; and the second cover plate layer includes a second flexible cover plate layer ; a material of the second flexible cover plate layer includes glass; and the touch layer is in direct contact with the display panel , characterized in that a thickness of the second flexible cover plate layer is 30 microns to 100 microns, the first flexible cover plate layer is a flexible polymer layer and a thickness of the first flexible cover plate layer is 30 microns to 100 microns, a material of the hardened layer includes acrylic or siloxane-based polymers, and a thickness of the hardened layer is 5 microns to 20 microns, the thickness of the first flexible cover plate layer and the thickness of the second flexible cover plate layer are both greater than the thickness of the hardened layer .
An apparatus , comprising: a controllable signal source configured to apply an Alternating Current (AC) signal to multiple electrodes of a multi-electrode catheter immersed in an aquatic solution ; a respective switch connected in series with each electrode; and a processor , configured to: responsively to the applied AC signal, estimate a respective surface impedance or a respective electrical noise level of each of the electrodes; and disconnect each electrode, independently of other electrodes, from the controllable signal source when the estimated surface impedance or electrical noise level of the electrode drops below a preset value , wherein the processor is configured to disconnect each electrode by controlling the respective switch. a controllable signal source configured to apply an Alternating Current (AC) signal to multiple electrodes of a multi-electrode catheter immersed in an aquatic solution ; a respective switch connected in series with each electrode; and a processor , configured to: responsively to the applied AC signal, estimate a respective surface impedance or a respective electrical noise level of each of the electrodes; and disconnect each electrode, independently of other electrodes, from the controllable signal source when the estimated surface impedance or electrical noise level of the electrode drops below a preset value , wherein the processor is configured to disconnect each electrode by controlling the respective switch. responsively to the applied AC signal, estimate a respective surface impedance or a respective electrical noise level of each of the electrodes; and disconnect each electrode, independently of other electrodes, from the controllable signal source when the estimated surface impedance or electrical noise level of the electrode drops below a preset value , wherein the processor is configured to disconnect each electrode by controlling the respective switch.
Hip joint endoprosthesis system , comprising a medical instrument for extracting an implanted prosthesis stem of a hip joint endoprosthesis from a femur bone of a patient, which medical instrument has a coupling body with a coupling recess for accommodating a coupling cone protruding from the prosthesis stem , wherein the coupling body comprises a coupling base body and a coupling insert which is accommodated in a coupling insert receptacle of the coupling base body and defines the coupling recess , wherein the medical instrument comprises a connecting device for connecting the coupling insert and the coupling base body in a connecting position in a force- and/or positive-locking manner, characterized in that the connecting device is configured in the form of a latching or snapping connecting device .
A method for bonding a film to a lens, wherein the method for bonding a film comprises: fastening the lens to a first jig; fastening the film to a second jig, wherein the second jig is a deformable flexible jig; obtaining boundary information of a full aperture of the lens, to align the lens with the first jig; obtaining boundary information of a full aperture of the film, to align the film with the second jig; and controlling the first jig and the second jig to move relative to each other, to gradually bond a middle position to an edge position on the lens to the film. fastening the lens to a first jig; fastening the film to a second jig, wherein the second jig is a deformable flexible jig; obtaining boundary information of a full aperture of the lens, to align the lens with the first jig; obtaining boundary information of a full aperture of the film, to align the film with the second jig; and controlling the first jig and the second jig to move relative to each other, to gradually bond a middle position to an edge position on the lens to the film.
A system for generating ozonated water comprising, an ozone generating cell having an anode and a cathode separated by a polymer membrane , the anode and cathode each have an array of holes to allow water to flow over the membrane ; a housing having a cathode housing portion and an anode housing portion separated by the membrane ;, the cathode housing portion enclosing the cathode and configured to allow water to flow across the cathode , and the anode housing portion enclosing the anode and configured to allow water to flow across the anode , the anode housing portion configured to direct a portion of the water flow through a cuvette of an integrated spectrophotometer integrated within the housing which generates a signal representation of ozone concentration in the water flow from the anode ; and; a hydrogen water reservoir for receiving water from the cathode ; an ozone water reservoir for receiving generated ozonated water flow from the anode ; control circuitry to control the ozone generating cell utilizing the spectrophotometer signal in a closed loop to provide a selected ozone concentration in the ozonated water flow from the anode ; a pump system under control of the control circuitry for pumping water through the cathode and anode , and for pumping at least a portion of the ozonated water from the anode through the spectrophotometer to the ozone water reservoir ; and output port coupled to the ozone water reservoir to allow ozonated water to flow out of the system for external use. an ozone generating cell having an anode and a cathode separated by a polymer membrane , the anode and cathode each have an array of holes to allow water to flow over the membrane ; a housing having a cathode housing portion and an anode housing portion separated by the membrane ;, the cathode housing portion enclosing the cathode and configured to allow water to flow across the cathode , and the anode housing portion enclosing the anode and configured to allow water to flow across the anode , the anode housing portion configured to direct a portion of the water flow through a cuvette of an integrated spectrophotometer integrated within the housing which generates a signal representation of ozone concentration in the water flow from the anode ; and; a hydrogen water reservoir for receiving water from the cathode ; an ozone water reservoir for receiving generated ozonated water flow from the anode ; control circuitry to control the ozone generating cell utilizing the spectrophotometer signal in a closed loop to provide a selected ozone concentration in the ozonated water flow from the anode ; a pump system under control of the control circuitry for pumping water through the cathode and anode , and for pumping at least a portion of the ozonated water from the anode through the spectrophotometer to the ozone water reservoir ; and output port coupled to the ozone water reservoir to allow ozonated water to flow out of the system for external use.
A multileaf collimator, comprising: a plurality of beam-blocking leaves of a first type, each of the beam-blocking leaves of the first type having a trapezoidal geometry viewed in a longitudinal moving direction with a first lateral side, a second lateral side, a wider end and a narrower end, the wider end being arrangeable proximal to a source; a plurality of beam-blocking leaves of a second type, each of the beam-blocking leaves of the second type having a trapezoidal geometry viewed in the longitudinal moving direction with a first lateral side, a second lateral side, a wider end and a narrower end, the wider end being arrangeable distal to the source; and the beam-blocking leaves of the first type being alternatingly arranged with the beam-blocking leaves of the second type side by side. a plurality of beam-blocking leaves of a first type, each of the beam-blocking leaves of the first type having a trapezoidal geometry viewed in a longitudinal moving direction with a first lateral side, a second lateral side, a wider end and a narrower end, the wider end being arrangeable proximal to a source; a plurality of beam-blocking leaves of a second type, each of the beam-blocking leaves of the second type having a trapezoidal geometry viewed in the longitudinal moving direction with a first lateral side, a second lateral side, a wider end and a narrower end, the wider end being arrangeable distal to the source; and the beam-blocking leaves of the first type being alternatingly arranged with the beam-blocking leaves of the second type side by side.
A method for data transmission, comprising: detecting , by a terminal device, Downlink Control Information, DCI, transmitted by a network device and configured to schedule data; determining , by the terminal device, a numerology configured to transmit the data according to the detected DCI; and by the terminal device, detecting the data transmitted by the network device or transmitting the data to the network device, according to the numerology and the DCI, wherein determining, by the terminal device, the numerology configured to transmit the data according to the detected DCI comprises: determining, by the terminal device, the numerology configured to transmit the data from multiple predefined basic numerologies according to a Cyclic Redundancy Check, CRC, code of the detected DCI, wherein the numerology comprises at least one of the following parameters: a number of Orthogonal Frequency Division Multiplexing, OFDM, symbols in a Transmission Time Interval, TTI, a subcarrier spacing, a number of subcarriers under a specific bandwidth, a number of subcarriers in a Physical Resource Block, PRB, an OFDM symbol length, a number of points of Fourier transform or inverse Fourier transform configured to generate an OFDM signal, a number of TTIs in a specific time length, and a length of a signal prefix. detecting , by a terminal device, Downlink Control Information, DCI, transmitted by a network device and configured to schedule data; determining , by the terminal device, a numerology configured to transmit the data according to the detected DCI; and by the terminal device, detecting the data transmitted by the network device or transmitting the data to the network device, according to the numerology and the DCI, wherein determining, by the terminal device, the numerology configured to transmit the data according to the detected DCI comprises: determining, by the terminal device, the numerology configured to transmit the data from multiple predefined basic numerologies according to a Cyclic Redundancy Check, CRC, code of the detected DCI, wherein the numerology comprises at least one of the following parameters: a number of Orthogonal Frequency Division Multiplexing, OFDM, symbols in a Transmission Time Interval, TTI, a subcarrier spacing, a number of subcarriers under a specific bandwidth, a number of subcarriers in a Physical Resource Block, PRB, an OFDM symbol length, a number of points of Fourier transform or inverse Fourier transform configured to generate an OFDM signal, a number of TTIs in a specific time length, and a length of a signal prefix. a number of Orthogonal Frequency Division Multiplexing, OFDM, symbols in a Transmission Time Interval, TTI, a subcarrier spacing, a number of subcarriers under a specific bandwidth, a number of subcarriers in a Physical Resource Block, PRB, an OFDM symbol length, a number of points of Fourier transform or inverse Fourier transform configured to generate an OFDM signal, a number of TTIs in a specific time length, and a length of a signal prefix.
A communication device for handling communications in a dual connectivity, comprising: a storage device ; and a processing circuit , coupled to the storage device , wherein the storage device stores, and the processing circuit is configured to execute, instructions of: establishing a first signaling radio bearer, SRB, with a master base station, MBS, ; establishing a second SRB with a secondary base station, SBS, in a RRC connection reconfiguration procedure; transmitting a first radio resource control, RRC, response message of the RRC connection reconfiguration procedure on the first SRB in response to a first RRC message of the RRC connection reconfiguration procedure, when receiving the first RRC message on the first SRB; and transmitting a second RRC response message on the second SRB in response to a second RRC message, when receiving the second RRC message on the second SRB, wherein the first RRC message configures the second SRB to the communication device . a storage device ; and a processing circuit , coupled to the storage device , wherein the storage device stores, and the processing circuit is configured to execute, instructions of: establishing a first signaling radio bearer, SRB, with a master base station, MBS, ; establishing a second SRB with a secondary base station, SBS, in a RRC connection reconfiguration procedure; transmitting a first radio resource control, RRC, response message of the RRC connection reconfiguration procedure on the first SRB in response to a first RRC message of the RRC connection reconfiguration procedure, when receiving the first RRC message on the first SRB; and transmitting a second RRC response message on the second SRB in response to a second RRC message, when receiving the second RRC message on the second SRB, establishing a first signaling radio bearer, SRB, with a master base station, MBS, ; establishing a second SRB with a secondary base station, SBS, in a RRC connection reconfiguration procedure; transmitting a first radio resource control, RRC, response message of the RRC connection reconfiguration procedure on the first SRB in response to a first RRC message of the RRC connection reconfiguration procedure, when receiving the first RRC message on the first SRB; and transmitting a second RRC response message on the second SRB in response to a second RRC message, when receiving the second RRC message on the second SRB, wherein the first RRC message configures the second SRB to the communication device .
A tensioning device for a crossbow or the like, such as e.g. a harpoon, a line throwing device, a toy crossbow, a pistol crossbow, a spear thrower or ballista, with a shaft and limbs connected thereto, wherein a connection element is provided which is designed for connection to the shaft of the crossbow and which comprises securing devices for rotatably or pivotally connecting the limbs , characterised in that the connection element is connected to at least one drive device , which can be connected to the limbs and by means of which drive device the limbs can be rotatably or pivotally moved from a first position (P1), in which the limbs form a first angle (α1) together with the shaft , into a second position (P2), in which the limbs form a second angle (α2) together with the shaft , wherein the second angle (α2) is larger than the first angle (α1) in order to move the limbs and a bowstring connected thereto from a non-tensioned position (P1) into a shoot-ready tensioned position (P2).
Apparatus for detecting an occupancy state of a parking area of a parking lot , comprising: - a luminaire for one or more illuminants, - a parking occupancy detection unit integrated in the luminaire for detecting an occupancy state of a parking area of the parking lot , - a motion detector integrated in the luminaire for monitoring an environment of the parking area , and a control device integrated in the luminaire for controlling an operating state of the parking occupancy detection unit depending on the monitoring by means of the motion detector , - wherein the parking occupancy detection unit comprises at least one environment sensor for monitoring the parking area , wherein the control device is designed to switch off the environment sensor or to drive it into a standby mode if the monitoring by means of the motion detector has revealed an absence of an object, in particular a moving object, in the environment, wherein the control device is designed to switch on the environment sensor or to wake it up from a standby mode if the monitoring by means of the motion detector has revealed a presence of an object, in particular a moving object, in the environment. - a luminaire for one or more illuminants, - a parking occupancy detection unit integrated in the luminaire for detecting an occupancy state of a parking area of the parking lot , - a motion detector integrated in the luminaire for monitoring an environment of the parking area , and a control device integrated in the luminaire for controlling an operating state of the parking occupancy detection unit depending on the monitoring by means of the motion detector , - wherein the parking occupancy detection unit comprises at least one environment sensor for monitoring the parking area , wherein the control device is designed to switch off the environment sensor or to drive it into a standby mode if the monitoring by means of the motion detector has revealed an absence of an object, in particular a moving object, in the environment, wherein the control device is designed to switch on the environment sensor or to wake it up from a standby mode if the monitoring by means of the motion detector has revealed a presence of an object, in particular a moving object, in the environment.
A heat-insulation device (100; 100'), being of a closed hollow structure, and comprising a first cover body (1; 1') and a second cover body (2; 2') arranged opposite to each other; wherein: a vacuum cavity (3; 3') is formed in the heat-insulation device (100; 100'); the first cover body (1; 1') is made of a heat-conducting material; characterized in that a heat-conducting element (40; 41; 42) is provided in the vacuum cavity (3; 3'), and a first end of the heat-conducting element (40; 41; 42) is in contact with an inner wall surface of the first cover body (1; 1'); the heat-conducting element (40; 41; 42) is movably arranged in the vacuum cavity (3; 3'). a vacuum cavity (3; 3') is formed in the heat-insulation device (100; 100'); the first cover body (1; 1') is made of a heat-conducting material; characterized in that a heat-conducting element (40; 41; 42) is provided in the vacuum cavity (3; 3'), and a first end of the heat-conducting element (40; 41; 42) is in contact with an inner wall surface of the first cover body (1; 1'); the heat-conducting element (40; 41; 42) is movably arranged in the vacuum cavity (3; 3').
A medium of detecting and distinguishing Citrobacter from other enterobacteria, comprising: ∘ a substrate for a metabolic activity specific for a group of enterobacteria; ∘ a chromogenic beta-glucosidase or cellobiosidase substrate; ∘ a beta-glucosidase or cellobiosidase inducer, said inducer being a carbohydrate constituted of a carbohydrate linked in the β-position to glucose, or a carbohydrate with a β-glucoside subunit, preferably selected from cellobiose, cellulose, starch, cellotriose and trehalose. ∘ a substrate for a metabolic activity specific for a group of enterobacteria; ∘ a chromogenic beta-glucosidase or cellobiosidase substrate; ∘ a beta-glucosidase or cellobiosidase inducer, said inducer being a carbohydrate constituted of a carbohydrate linked in the β-position to glucose, or a carbohydrate with a β-glucoside subunit, preferably selected from cellobiose, cellulose, starch, cellotriose and trehalose.