mhurhangee/ep-ind-claims huggingface dataset:
A watch-type terminal, comprising: a touch screen configured to display screen information; a bezel portion surrounding a periphery of the touch screen and configured to receive a touch input; and a controller which is configured to display an image object indicating a status associated with a displayed screen information in one region of the touch screen in response to a first touch input received at a first part of the bezel portion, wherein the controller is further configured to apply a first function to the displayed screen information in response to a second touch input received at a second part of the bezel portion while the first touch input is maintained at the first part of the bezel portion, and display first and second icons (213a, 213b) for executing a second function different from the first function associated with the displayed screen information in response to a touch area corresponding to the first touch input being changed; apply the second function to the screen information in response to a third touch input applied to the second icon. a touch screen configured to display screen information; a bezel portion surrounding a periphery of the touch screen and configured to receive a touch input; and a controller which is configured to display an image object indicating a status associated with a displayed screen information in one region of the touch screen in response to a first touch input received at a first part of the bezel portion, wherein the controller is further configured to apply a first function to the displayed screen information in response to a second touch input received at a second part of the bezel portion while the first touch input is maintained at the first part of the bezel portion, and display first and second icons (213a, 213b) for executing a second function different from the first function associated with the displayed screen information in response to a touch area corresponding to the first touch input being changed; apply the second function to the screen information in response to a third touch input applied to the second icon.
A method for controlling a system of a vehicle seat, in which - the pressure distribution on the surface of the vehicle seat is measured by means of pressure sensors, - the measurement data are forwarded to a microcontroller, - the microcontroller determines the sitting posture (P 1,P 2,P 3,P 4) on the basis of the measured data and learned knowledge using neural network module - and controls via valves an actuator element according the sitting posture (P 1,P 2,P 3,P 4), - characterized in that the learned knowledge is based on a record which is processed by means of a recurrent neural network and the sitting posture (P 1,P 2,P 3,P 4) is determined by means of the Softmax-function, - wherein the data input of the recurrent neural network is encoded by a convolutional neural network. - the pressure distribution on the surface of the vehicle seat is measured by means of pressure sensors, - the measurement data are forwarded to a microcontroller, - the microcontroller determines the sitting posture (P 1,P 2,P 3,P 4) on the basis of the measured data and learned knowledge using neural network module - and controls via valves an actuator element according the sitting posture (P 1,P 2,P 3,P 4), - characterized in that the learned knowledge is based on a record which is processed by means of a recurrent neural network and the sitting posture (P 1,P 2,P 3,P 4) is determined by means of the Softmax-function, - wherein the data input of the recurrent neural network is encoded by a convolutional neural network. - characterized in that the learned knowledge is based on a record which is processed by means of a recurrent neural network and the sitting posture (P 1,P 2,P 3,P 4) is determined by means of the Softmax-function, - wherein the data input of the recurrent neural network is encoded by a convolutional neural network.
A method for imaging a region of interest, the method comprising: (a) stimulating the region of interest with light from a light source to produce a first set of ultrasound waves through a photo acoustic effect; (b) stimulating the region of interest with ultrasound radiation from an ultrasound source to produce a second set of ultrasound waves reflected from the region of interest; the method being characterised that is also comprises: (c) focusing the first and second sets of waves through an acoustic lens to produce focused waves; (d) detecting the focused waves in a two-dimensional transducer array while applying a time gate to produce time-gated photo acoustic signals, the time-gated photo acoustic signals providing at least one photo acoustic C-scan at any given period of time, step (d) being repeated multiple times to provide real-time imaging; (e) detecting the focused waves in the two-dimensional transducer array while applying a time gate to produce time-gated ultrasound signals, the time-gated ultrasound signals providing at least one ultrasound C-scan at any given period of time, step (e) being repeated multiple times to provide said real-time imaging; and (f) imaging the region of interest from the at least one photo acoustic C-scan and the at least one ultrasound C-scan provided in steps (d) and (e). (a) stimulating the region of interest with light from a light source to produce a first set of ultrasound waves through a photo acoustic effect; (b) stimulating the region of interest with ultrasound radiation from an ultrasound source to produce a second set of ultrasound waves reflected from the region of interest; the method being characterised that is also comprises: (c) focusing the first and second sets of waves through an acoustic lens to produce focused waves; (d) detecting the focused waves in a two-dimensional transducer array while applying a time gate to produce time-gated photo acoustic signals, the time-gated photo acoustic signals providing at least one photo acoustic C-scan at any given period of time, step (d) being repeated multiple times to provide real-time imaging; (e) detecting the focused waves in the two-dimensional transducer array while applying a time gate to produce time-gated ultrasound signals, the time-gated ultrasound signals providing at least one ultrasound C-scan at any given period of time, step (e) being repeated multiple times to provide said real-time imaging; and (f) imaging the region of interest from the at least one photo acoustic C-scan and the at least one ultrasound C-scan provided in steps (d) and (e).
A communications device, wherein the communications device comprises a sending unit and a processing unit, wherein the sending unit is configured to transmit a data packet to a receiving node by using an unlicensed spectrum resource and by using a hybrid automatic repeat request, HARQ, process; and the processing unit is configured to: determine that the unlicensed spectrum resource used by the sending unit is unavailable, determine that an unsuccessfully-sent data packet exists in the HARQ process, and actively trigger automatic repeat request, ARQ, retransmission for the unsuccessfully-sent data packet without passively waiting for an acknowledgment message or a status report sent by the receiving node.
Flat product made of a metal material, more particularly a steel material, having a deterministic surface texture, the surface texture having a plurality of depressions which have a depth in the range of from 2 to 14 μm, characterised in that the depressions are designed to be I-shaped, H-shaped, cross-shaped, C-shaped or X-shaped, the surface texture having a peak count RPc in the range of from 45 to 180 1/cm, an arithmetic mean roughness Ra in the range of from 0.3 to 3.6 μm and an arithmetic mean waviness Wsa in the range of from 0.05 to 0.65 μm.
A wireless power feeder for feeding power by wireless from a feeding coil to a receiving coil at the resonance frequency of the feeding coil and receiving coil, comprising: a power transmission control circuit that feeds AC power to the feeding coil at the resonance frequency; and a feeding coil circuit that includes the feeding coil and a capacitor and resonates at the resonance frequency; a control signal generation circuit that generates a control signal in a control voltage range and having a control frequency lower than the resonance frequency; and a comparison circuit that generates an enable signal when a predetermined magnitude relationship is established between the level of the control signal and that of a reference signal, wherein the power transmission control circuit feeds the AC power to the feeding coil only while the enable signal is being generated, characterized by a reference signal adjustment circuit for adjusting the level of the reference signal, in a reference voltage range, the control signal is an AC signal in which a voltage value is gradually increased or decreased within a predetermined time period, and wherein the reference voltage range encompasses the control voltage range. a power transmission control circuit that feeds AC power to the feeding coil at the resonance frequency; and a feeding coil circuit that includes the feeding coil and a capacitor and resonates at the resonance frequency; a control signal generation circuit that generates a control signal in a control voltage range and having a control frequency lower than the resonance frequency; and a comparison circuit that generates an enable signal when a predetermined magnitude relationship is established between the level of the control signal and that of a reference signal, wherein the power transmission control circuit feeds the AC power to the feeding coil only while the enable signal is being generated, characterized by a reference signal adjustment circuit for adjusting the level of the reference signal, in a reference voltage range, the control signal is an AC signal in which a voltage value is gradually increased or decreased within a predetermined time period, and wherein the reference voltage range encompasses the control voltage range.
A method of calibrating a vibrating gyroscope comprising: exciting a vibration along an excitation axis of a resonant structure wherein the excitation axis is positioned at a first angular position; sensing the vibration of the resonant structure on a first sensing axis of the resonant structure whilst the excitation axis is positioned at the first angular position; generating a first sensing signal which is indicative of the sensed vibration of the resonant structure on the first sensing axis; rotating the excitation axis in a continuous manner around the resonant structure to a second angular position; sensing the vibration of the resonant structure on a second sensing axis of the resonant structure whilst the excitation axis is positioned at the second angular position; generating a second sensing signal which is indicative of the sensed vibration of the resonant structure on the second sensing axis; adding the first sensing signal to the second sensing signal in order to derive a bias of the gyroscope; and, determining a scale factor of the gyroscope, wherein the determined scale factor is used to determine the bias of the gyroscope, wherein the method further comprises determining a rotation rate of the gyroscope whilst the excitation axis is rotated. exciting a vibration along an excitation axis of a resonant structure wherein the excitation axis is positioned at a first angular position; sensing the vibration of the resonant structure on a first sensing axis of the resonant structure whilst the excitation axis is positioned at the first angular position; generating a first sensing signal which is indicative of the sensed vibration of the resonant structure on the first sensing axis; rotating the excitation axis in a continuous manner around the resonant structure to a second angular position; sensing the vibration of the resonant structure on a second sensing axis of the resonant structure whilst the excitation axis is positioned at the second angular position; generating a second sensing signal which is indicative of the sensed vibration of the resonant structure on the second sensing axis; adding the first sensing signal to the second sensing signal in order to derive a bias of the gyroscope; and, determining a scale factor of the gyroscope, wherein the determined scale factor is used to determine the bias of the gyroscope, wherein the method further comprises determining a rotation rate of the gyroscope whilst the excitation axis is rotated.
A mechanical joint for joining two components, the joint having a male part on one component and a corresponding female part on the other component, the male and female parts having respective castellations (7, 21) which intercalate on insertion of the male part into the female part along a direction of insertion, and respective abutment surfaces which are formed on the projections of the castellations, the joint characterised by the castellations being configured such that, after the insertion of the male part into the female part, the male and female parts can be rotated relative to each other around the direction of insertion to bring: (i) the abutment surfaces into facing alignment and thereby prevent the parts from being pulled apart, and (ii) the indentations of the castellations into facing alignment, the joint further having one or more locking members which are removably insertable into the aligned indentations to prevent further relative rotation of the male and female parts.
Bicycle having a bicycle frame, an electric auxiliary drive and a gearshift comprising a stepped transmission which is embodied as a hub gear system or derailleur system, and an electromechanical actuator for triggering a gear change of the transmission, wherein the electromechanical actuator has a shift control unit which can be connected or is connected via a data line to a drive control unit of the electric auxiliary drive and is designed to activate the actuator as a function of at least one state variable transmitted to the shift control unit by the drive control unit, or an information item derived therefrom, characterized in that the electromechanical actuator is a linear actuator which is embodied as a planetary roller screw drive or as a ball screw drive or as a sliding spindle drive, wherein the electromechanical actuator is arranged in a frame component or frame tube of the bicycle frame, and wherein the gearshift or the electromechanical actuator has an inclination sensor which is designed to sense an inclination in the pitching direction and in the rolling direction wherein the shift control unit is designed to take into account the sensed inclination when defining a time for a gear change.
A method for controlling wind turbine thrust, the method comprising: measuring a tilt angle of a wind turbine in a loaded position using a measuring device, the wind turbine comprising a tower, a nacelle mounted on the tower, a rotor coupled to the nacelle, and a plurality of rotor blades coupled to the rotor whereby the measuring device comprises an accelerometer; characterized by: comparing the tilt angle to a predetermined tilt angle for the wind turbine; and if the tilt angle exceeds the predetermined tilt angle, adjusting a pitch of at least one of the plurality of rotor blades such that the tilt angle is less than or equal to the predetermined tilt angle. measuring a tilt angle of a wind turbine in a loaded position using a measuring device, the wind turbine comprising a tower, a nacelle mounted on the tower, a rotor coupled to the nacelle, and a plurality of rotor blades coupled to the rotor whereby the measuring device comprises an accelerometer; characterized by: comparing the tilt angle to a predetermined tilt angle for the wind turbine; and if the tilt angle exceeds the predetermined tilt angle, adjusting a pitch of at least one of the plurality of rotor blades such that the tilt angle is less than or equal to the predetermined tilt angle. comparing the tilt angle to a predetermined tilt angle for the wind turbine; and if the tilt angle exceeds the predetermined tilt angle, adjusting a pitch of at least one of the plurality of rotor blades such that the tilt angle is less than or equal to the predetermined tilt angle.
A thrombolytic agent for use in the treatment of thromboembolism, wherein the treatment comprises administering the thrombolytic agent directly to the thromboembolism in the presence of ultrasound, wherein the total dose of the thrombolytic agent is between 0.1 and 12 mg and is administered as one or more small bolus doses of between 0.1 and 0.9 mg, and the time over which the total dose is delivered is 6 hours or less.
An apparatus comprising: a transceiver; and a processor to: instruct the transceiver to transmit a first wake up message (116, 202, 304) to a client device (112, 302) at a first transmission rate via a wireless network connection; and the apparatus characterised in that the processor is further to: in response to receiving a sleep message (118, 204, 306) from the client device (112, 302) via the transceiver, instruct the transceiver to transmit a second wake up message (120, 206, 308) to the client device (112, 302) at a second transmission rate that is greater than the first transmission rate, wherein the sleep message (118, 204, 306) indicates a transition from an active mode to a power save mode of the client device (112, 302) and an absence of the sleep message is indicative of the client device staying in the active mode. a transceiver; and a processor to: instruct the transceiver to transmit a first wake up message (116, 202, 304) to a client device (112, 302) at a first transmission rate via a wireless network connection; and
An operating system hot-switching method, wherein the method is applied to a mobile terminal running multiple operating systems, the multiple operating systems comprise one foreground operating system and at least one background operating system, each operating system is corresponding to a resource management namespace, each resource management namespace comprises running status information of an operating system corresponding to the resource management namespace, the running status information is used to indicate whether the operating system is a foreground operating system or a background operating system, and is used to indicate that use of hardware in the mobile terminal by a foreground operating system is enabled or that use of hardware in the mobile terminal by a background operating system is shielded_, the hardware is hardware used for external interaction, a current foreground operating system is a first operating system, the at least one background operating system comprises a second operating system, and the method comprises: obtaining an operating system switching instruction, wherein the operating system switching instruction comprises an identifier of the second operating system and a switching identifier, and the identifier of the second operating system is used to instruct to switch the second operating system to the foreground operating system; releasing, according to the switching identifier, a hardware resource occupied by the first operating system, wherein the hardware resource is a hardware resource that is in the mobile terminal and that is used for external interaction; and modifying running status information in a resource management namespace of the first operating system to a background state, modifying running status information in a resource management namespace of the second operating system to a foreground state, for completing switching of the foreground operating system from the first operating system to the second operating system. obtaining an operating system switching instruction, wherein the operating system switching instruction comprises an identifier of the second operating system and a switching identifier, and the identifier of the second operating system is used to instruct to switch the second operating system to the foreground operating system; releasing, according to the switching identifier, a hardware resource occupied by the first operating system, wherein the hardware resource is a hardware resource that is in the mobile terminal and that is used for external interaction; and modifying running status information in a resource management namespace of the first operating system to a background state, modifying running status information in a resource management namespace of the second operating system to a foreground state, for completing switching of the foreground operating system from the first operating system to the second operating system.
Module rear wall for a switchgear assembly module, in particular a withdrawable module, having a measuring device, wherein the measuring device is arranged such that it is integrated in the module rear wall, and the module rear wall forms an integral part of the switchgear assembly module and a rear wall element in the form of a trough and having a trough base and four side walls is provided, wherein the outer side of the trough base forms the rear side of the module rear wall, and in this case the through base has a virtually rectangular to square cross-sectional area and a plurality of sockets with cutouts for accommodating and passing through outgoing contacts and/or input contacts of the measuring device and means are provided on the side walls which allow for the module rear wall to be connected to a remainder of the module housing.
A system for removing undesired tissue from a tissue site of a patient, the system comprising; a treatment head (108, 208); a working gas supply source for supplying a working gas to the treatment head; a CO 2 source for supplying solid CO 2 particles which have a diameter between 10 microns and 1000 microns to the treatment head; a supply conduit fluidly coupled to the working gas supply source and the CO 2 source for receiving the working gas and solid CO 2 particles; the treatment head formed with a treatment cavity (118, 218) for placing proximate to the undesired tissue, wherein the treatment head is fluidly coupled to the supply conduit for receiving the working gas and solid CO 2 particles and delivering the working gas and solid CO 2 particles to the tissue site at a desired location; the treatment head is formed with a delivery aperture that opens into the treatment cavity and a removal aperture that opens into the treatment cavity. an extraction conduit fluidly coupled to the treatment head; wherein, the treatment head is adapted to cause the solid CO 2 particles to impinge upon at least a portion of the undesired tissue within the treatment cavity so as to remove the undesired tissue; and wherein, the treatment head and the extraction conduit are adapted to carry away the undesired tissue; characterised in that the delivery aperture and removal aperture are substantially aligned with each other such that movement of the working gas and solid CO 2 particles through the treatment cavity between the delivery aperture and the removal aperture creates a low pressure area operable to move the undesired tissue towards the treatment cavity.