mhurhangee/patent-ind-claim-en huggingface dataset:
An optical wireless communication device comprising: at least one of a transmitter and a receiver , wherein the transmitter is configured to transmit light comprising a first optical wireless communication signal representing data and the receiver is configured to receive light comprising a second optical wireless communication signal representing data; at least one adjustable shutter element associated with the at least one of a transmitter and a receiver , wherein the at least one adjustable shutter element and the associated at least one of the transmitter and the receiver are adjustable between a first configuration and a second configuration by physical movement of the shutter element such that in the first configuration the at least one adjustable shutter element is configured to at least partially block or partially redirect light having a first selected wavelength and at least partially allow light having a second selected wavelength to pass through unaffected such that transmission of the first optical wireless communication signal by the transmitter and/or reception of the second optical wireless communication signal by the receiver is substantially altered, wherein the at least one shutter element further comprises a mechanism for moving the at least one adjustable shutter element having a wavelength-dependent transparency into or out of a field of view of the transmitter and/or the receiver to adjust between the first configuration when into the field of view and the second configuration when out of the field of view. at least one of a transmitter and a receiver , wherein the transmitter is configured to transmit light comprising a first optical wireless communication signal representing data and the receiver is configured to receive light comprising a second optical wireless communication signal representing data; at least one adjustable shutter element associated with the at least one of a transmitter and a receiver , wherein the at least one adjustable shutter element and the associated at least one of the transmitter and the receiver are adjustable between a first configuration and a second configuration by physical movement of the shutter element such that in the first configuration the at least one adjustable shutter element is configured to at least partially block or partially redirect light having a first selected wavelength and at least partially allow light having a second selected wavelength to pass through unaffected such that transmission of the first optical wireless communication signal by the transmitter and/or reception of the second optical wireless communication signal by the receiver is substantially altered, wherein the at least one shutter element further comprises a mechanism for moving the at least one adjustable shutter element having a wavelength-dependent transparency into or out of a field of view of the transmitter and/or the receiver to adjust between the first configuration when into the field of view and the second configuration when out of the field of view.
Vertical shading with a shading element and a fabric shaft rotationally mounted in a housing , from which fabric shaft the shading element can be unwound, wherein the front end of the shading element is fastened to an extension profile which can be extended downwards, wherein the extension profile has at least one additional weight, wherein the extension profile is designed in several parts and is able to be opened, wherein the interior of the extension profile is accessible by opening the extension profile designed in several parts, characterised in that at least one additional weight is inlaid in a form-fitting manner in the extension profile .
A semiconductor device comprising: a system bus; a plurality of CPU cores (91 to 94) each connected to the system bus, each comprising a scan chain, and being assigned one or more tasks and configured to perform one of the tasks in a normal operation state; and a diagnostic test circuit connected to the system bus and capable of communicating with the plurality of the CPU cores (91 to 94), and configured to perform a scan test for the plurality of the CPU cores (91 to 94) by using the scan chain, characterized in that at least one but not all of the CPU cores (91 to 94) outputs a test start instruction signal to the diagnostic test circuit when switching to a diagnostic test operation by the scan test from the normal operation state, when the test start instruction signal is output from the at least one but not all of the CPU cores (91 to 94), the diagnostic test circuit performs the scan test for the at least one but not all of the CPU cores (91 to 94) which have output the test start instruction signal in accordance with the test start instruction signal, during an execution time period of the scan test for the at least one but not all of the CPU cores (91 to 94), the rest of the plurality of CPU cores (91 to 94) perform normal operation, and the scan test for the plurality of CPU cores (91 to 94) is repeated periodically until the diagnostic test circuit determines that there is a failure in the plurality of CPU cores (91 to 94). a system bus; a plurality of CPU cores (91 to 94) each connected to the system bus, each comprising a scan chain, and being assigned one or more tasks and configured to perform one of the tasks in a normal operation state; and a diagnostic test circuit connected to the system bus and capable of communicating with the plurality of the CPU cores (91 to 94), and configured to perform a scan test for the plurality of the CPU cores (91 to 94) by using the scan chain, characterized in that at least one but not all of the CPU cores (91 to 94) outputs a test start instruction signal to the diagnostic test circuit when switching to a diagnostic test operation by the scan test from the normal operation state, when the test start instruction signal is output from the at least one but not all of the CPU cores (91 to 94), the diagnostic test circuit performs the scan test for the at least one but not all of the CPU cores (91 to 94) which have output the test start instruction signal in accordance with the test start instruction signal, during an execution time period of the scan test for the at least one but not all of the CPU cores (91 to 94), the rest of the plurality of CPU cores (91 to 94) perform normal operation, and the scan test for the plurality of CPU cores (91 to 94) is repeated periodically until the diagnostic test circuit determines that there is a failure in the plurality of CPU cores (91 to 94).
A buried utility locator , comprising: an antenna array for receiving magnetic field signals from a buried utility in two or more orthogonal directions, the antenna array having a bandwidth including a plurality of predefined signal frequencies in a plurality of predefined frequency suites , each of the frequency suites including a combination of active and/or passive fundamental frequencies and associated harmonics; a receiver operatively coupled to the antenna array for generating a receiver output signal including amplitude and/or phase information of two or more signal components in two or more simultaneously received magnetic field signals in a frequency suite; a processing element operatively coupled to the receiver for receiving the receiver output signal and generating a first set of data associated with the two or more signal components based on the active and/or passive fundamental frequencies and associated harmonics in the frequency suite , a non-transitory memory for storing the first set of data; and a display to render a visual output corresponding to the determined first set of data. an antenna array for receiving magnetic field signals from a buried utility in two or more orthogonal directions, the antenna array having a bandwidth including a plurality of predefined signal frequencies in a plurality of predefined frequency suites , each of the frequency suites including a combination of active and/or passive fundamental frequencies and associated harmonics; a receiver operatively coupled to the antenna array for generating a receiver output signal including amplitude and/or phase information of two or more signal components in two or more simultaneously received magnetic field signals in a frequency suite; a processing element operatively coupled to the receiver for receiving the receiver output signal and generating a first set of data associated with the two or more signal components based on the active and/or passive fundamental frequencies and associated harmonics in the frequency suite , a non-transitory memory for storing the first set of data; and a display to render a visual output corresponding to the determined first set of data.
Offshore installation comprising an underwater foundation structure, a construction placed on the foundation structure, a landing device for a boat, and a device for cathodic corrosion protection for the underwater foundation structure, the installation comprising at least two anodes arranged at a distance from one another, which anodes are each attached to an arm or a bracket of the foundation structure, the offshore installation being characterized in that - the arms or the brackets are each directly connected to the foundation structure below the water line, - the underwater foundation structure is designed as a monopile foundation and the arms or the brackets are attached directly to the outer wall of the monopile ; and - at least two anodes , in relation to the circumference of the monopile , extend at an angular distance greater than or equal to 90° from one another. - the arms or the brackets are each directly connected to the foundation structure below the water line, - the underwater foundation structure is designed as a monopile foundation and the arms or the brackets are attached directly to the outer wall of the monopile ; and - at least two anodes , in relation to the circumference of the monopile , extend at an angular distance greater than or equal to 90° from one another.
A method of communication for a user equipment, the method comprising: obtaining , via a first beamformed wireless communication link with a first transmit receive point, first power control information for the first beamformed wireless communication link; generating a first power control signal based on the first power control information, wherein the first power control signal indicates a maximum transmit power for a first transmission from the user equipment via the first beamformed wireless communication link with the first transmit receive point; obtaining , via a second beamformed wireless communication link with a second transmit receive point, second power control information for the second beamformed wireless communication link, wherein the second power control information is independent of the first power control information and wherein the first power control information and the second power control information specify a total power constraint across the links; and generating a second power control signal based on the second power control information, wherein the second power control signal indicates a maximum transmit power for a second transmission from the user equipment via the second beamformed wireless communication link with the second transmit receive point. obtaining , via a first beamformed wireless communication link with a first transmit receive point, first power control information for the first beamformed wireless communication link; generating a first power control signal based on the first power control information, wherein the first power control signal indicates a maximum transmit power for a first transmission from the user equipment via the first beamformed wireless communication link with the first transmit receive point; obtaining , via a second beamformed wireless communication link with a second transmit receive point, second power control information for the second beamformed wireless communication link, wherein the second power control information is independent of the first power control information and wherein the first power control information and the second power control information specify a total power constraint across the links; and generating a second power control signal based on the second power control information, wherein the second power control signal indicates a maximum transmit power for a second transmission from the user equipment via the second beamformed wireless communication link with the second transmit receive point.
A hybrid mobile element adapted to communicate with a device for interfacing a plurality of mobile elements with a computer system, the device comprising a detection surface, said hybrid mobile element comprising a location module comprising the following means: - means adapted to emit an electromagnetic signal for the device to compute the position of said location module when the latter is within the range of the detection surface; and - means adapted to receive an activation signal from the device and, according to at least an item of information from said activation signal, to activate said means for emitting an electromagnetic signal; said hybrid mobile element being characterized in that it further comprises: - an inertial measurement unit integral with said location module; and - means for communicating with said device and adapted for transmitting data relating to a movement of the inertial measurement unit, said data being for computing the position of the location module when the location module is out of range of the detection surface, thus preventing the position from being computed from the electromagnetic signal. - means adapted to emit an electromagnetic signal for the device to compute the position of said location module when the latter is within the range of the detection surface; and - means adapted to receive an activation signal from the device and, according to at least an item of information from said activation signal, to activate said means for emitting an electromagnetic signal; - an inertial measurement unit integral with said location module; and - means for communicating with said device and adapted for transmitting data relating to a movement of the inertial measurement unit, said data being for computing the position of the location module when the location module is out of range of the detection surface, thus preventing the position from being computed from the electromagnetic signal.
An article comprising a fiber, a yarn, a textile, or leather, and a coating, wherein the coating comprises: silk fibroin based proteins or fragments thereof having an average weight average molecular weight range selected from the group consisting of about 5 to about 10 kDa, about 6 kDa to about 16 kDa, about 17 kDa to about 38 kDa, about 39 kDa to about 80 kDa, about 60 to about 100 kDa, and about 80 kDa to about 144 kDa, and a polydispersity ranging from about 1.5 to about 3.0, wherein the molecular weight is determined following complete dissolution of the silk fibroin based proteins or fragments thereof using a High Pressure Liquid Chromatography (HPLC) method.
An optical coherence tomography, OCT, endoscopic scanning and imaging system, comprising a balloon , a balloon catheter, an OCT microprobe, and an automatic inflation/deflation device, wherein the automatic inflation/deflation device comprises: a control and display module for setting and controlling an inflation/deflation status of the balloon , an air pump that is connected to the control and display module and is controlled by the control and display module for activation and stop; an inflation pipeline connected between the air pump and the balloon , wherein the air pump is communicated to the balloon via the inflation pipeline so as to perform inflation/deflation on the balloon ; an inflation solenoid valve that is provided in the inflation pipeline for starting/stopping an inflation process, wherein the inflation solenoid valve is further connected to the control and display module so as to be opened/closed by the control and display module; a deflation solenoid valve that is provided in a bypath of the inflation pipeline for starting/stopping a deflation process, wherein the deflation solenoid valve is further connected to the control and display module so as to be opened/closed by the control and display module; and a pressure sensor that is communicated with the inflation pipeline for collecting pressure data of the balloon , wherein the pressure sensor is connected to the control and display module such that the collected data may be transmitted to the control and display module. a control and display module for setting and controlling an inflation/deflation status of the balloon , an air pump that is connected to the control and display module and is controlled by the control and display module for activation and stop; an inflation pipeline connected between the air pump and the balloon , wherein the air pump is communicated to the balloon via the inflation pipeline so as to perform inflation/deflation on the balloon ; an inflation solenoid valve that is provided in the inflation pipeline for starting/stopping an inflation process, wherein the inflation solenoid valve is further connected to the control and display module so as to be opened/closed by the control and display module; a deflation solenoid valve that is provided in a bypath of the inflation pipeline for starting/stopping a deflation process, wherein the deflation solenoid valve is further connected to the control and display module so as to be opened/closed by the control and display module; and a pressure sensor that is communicated with the inflation pipeline for collecting pressure data of the balloon , wherein the pressure sensor is connected to the control and display module such that the collected data may be transmitted to the control and display module.
A double wall joint reinforcement (D1, D2) comprising at least one stirrup having two stirrup legs , , the stirrup legs , being connected to a transverse rod , the transverse rod having two ends , , the two ends , engaging into mutually opposite rod-shaped components running perpendicularly to the transverse rod , the stirrup legs , being fixed in a rotationally fixed manner at the transverse rod and the at least one stirrup being held, by means of a spring force, in a rest position at right angles or parallel to the rod-shaped components , characterized in that the spring force is exerted by at least one spring (4, 5; F; 410, 420, 430), which is in operative connection with the transverse rod , wherein the at least one stirrup can be rotated from the rest position by up to 80 degrees in the clockwise direction or the anticlockwise direction by means of the at least one spring (4, 5; F; 410, 420, 430).
A high-Mn steel plate having a component composition containing, in mass%, C: 0.20 to 0.70%, Si: 0.05 to 1.0%, Mn: 15 to 30%, P: 0.028% or less, S: 0.02% or less, Al: 0.01 to 0.1%, Cr: 0.5 to 7.0%, Ni: 0.03 to 0.30%, N: 0.0010 to 0.0200%, and one or two or more of Nb: 0.003 to 0.030%, V: 0.03 to 0.10%, Ti: 0.003 to 0.040%, and optionally an element in at least one group selected from the following group A or B: Group A: one or two, in mass%, selected from Mo: 0.05 to 2.0% and W: 0.05 to 2.0% Group B: one or two or more, in mass%, selected from Ca: 0.0005 to 0.0050%, Mg: 0.0005 to 0.0050%, and REM: 0.0010 to 0.0200% with the balance being Fe and incidental impurities, wherein: a microstructure 0.5 mm under a surface of the steel plate includes austenite as a base phase; and 25% or more of the austenite, in area ratio, has an equivalent circle diameter of 10 μm or more and an aspect ratio of a major axis to a minor axis of 3 or more. Group A: one or two, in mass%, selected from Mo: 0.05 to 2.0% and W: 0.05 to 2.0% Group B: one or two or more, in mass%, selected from Ca: 0.0005 to 0.0050%, Mg: 0.0005 to 0.0050%, and REM: 0.0010 to 0.0200% with the balance being Fe and incidental impurities, a microstructure 0.5 mm under a surface of the steel plate includes austenite as a base phase; and 25% or more of the austenite, in area ratio, has an equivalent circle diameter of 10 μm or more and an aspect ratio of a major axis to a minor axis of 3 or more.
A Three-Dimensional, 3D, printing data generation method, characterized in that , the method is performed by smart glasses, and the method comprises: acquiring (S21) an object in a preset display area of a display area of the smart glasses; determining (S22) the object in the preset display area as the object to be scanned; scanning the object to be scanned by adopting at least one of sensors in the smart glasses so that the smart glasses have a 3D scanning function; acquiring (S41) characteristic information of the object to be scanned, wherein the characteristic information comprises a size; determining (S42) a scanning mode for the object to be scanned according to the size of the object to be scanned, wherein for a small-sized object, scanning is automatically performed, and for a large-sized object, a user is guided to move around the object to be scanned to comprehensively and accurately acquire 3D printing data of the object to be scanned, wherein a small-sized object is an object with a size small enough such that the user does not need to move for scanning, wherein a large-sized object is an object not small enough such that the user does not need to move for scanning; scanning (S43) the object to be scanned by adopting the scanning mode; obtaining a scanning result; generating (S13) 3D printing data according to the scanning result; and sending (S14), according to a selected operation item, the 3D printing data to an operating device corresponding to the operation item. acquiring (S21) an object in a preset display area of a display area of the smart glasses; determining (S22) the object in the preset display area as the object to be scanned; scanning the object to be scanned by adopting at least one of sensors in the smart glasses so that the smart glasses have a 3D scanning function; acquiring (S41) characteristic information of the object to be scanned, wherein the characteristic information comprises a size; determining (S42) a scanning mode for the object to be scanned according to the size of the object to be scanned, wherein for a small-sized object, scanning is automatically performed, and for a large-sized object, a user is guided to move around the object to be scanned to comprehensively and accurately acquire 3D printing data of the object to be scanned, wherein a small-sized object is an object with a size small enough such that the user does not need to move for scanning, wherein a large-sized object is an object not small enough such that the user does not need to move for scanning; scanning (S43) the object to be scanned by adopting the scanning mode; obtaining a scanning result; generating (S13) 3D printing data according to the scanning result; and sending (S14), according to a selected operation item, the 3D printing data to an operating device corresponding to the operation item.