mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing logical channel prioritization, LCP, by a wireless device, the method comprising: determining a set of logical channels, each logical channel associated with a respective transmission profile ; and based on the transmission profiles, determining at least one logical channel of the set of logical channels to serve ; wherein each transmission profile comprises a logical channel identifier, each of the logical channel identifiers uniquely identifying a particular one of the set of logical channels; and determining the at least one logical channel of the set of logical channels to serve based on the transmission profiles comprises: determining that a logical channel identifier associated with the at least one logical channel is included in the transmission profiles. determining a set of logical channels, each logical channel associated with a respective transmission profile ; and based on the transmission profiles, determining at least one logical channel of the set of logical channels to serve ; wherein each transmission profile comprises a logical channel identifier, each of the logical channel identifiers uniquely identifying a particular one of the set of logical channels; and determining the at least one logical channel of the set of logical channels to serve based on the transmission profiles comprises: determining that a logical channel identifier associated with the at least one logical channel is included in the transmission profiles.
A synthetic crystalline material having, in its as-calcined form, an X-ray diffraction pattern including the following peaks: d-spacing (Å) Relative Intensity (I/Io x 100) 19.85±0.30 W 11.20±0.30 VS 9.97±0.20 W 8.80±0.10 M 6.86±0.10 W 6.49±0.10 VW 5.85±0.10 VW 5.70±0.10 VW 5.61±0.10 VW 5.12±0.10 VW 4.60±0.05 VW 4.45±0.05 VW 4.33±0.05 M-S 4.25±0.05 VW-W 4.15±0.05 VW-W 4.06±0.05 VW 3.98±0.05 VW 3.88±0.05 VW 3.76±0.05 VW-W 3.73±0.05 VW-W 3.68±0.05 W 3.53±0.05 W 3.43±0.05 W 3.28±0.05 W-M 3.19±0.05 VW 3.16±0.05 VW 3.11±0.05 VW 3.07±0.05 VW 2.94±0.025 VW 2.79±0.025 VW 2.60±0.025 VW 2.53±0.025 VW 2.50±0.025 VW 2.46±0.025 VW 2.41±0.025 VW 2.34±0.025 VW wherein the material optionally has a composition comprising the molar relationship (n)X 2 O 3 :YO 2 , wherein n is a number less than 0.05, X is a trivalent element, and Y is a tetravalent element; optionally wherein X includes one or more of B, Al, Fe, and Ga, in particular including at least Al; optionally wherein Y includes one or more of Si, Ge, Sn, Ti, and Zr, in particular including at least Si and/or Ge.
A servovalve for regulating the flow or pressure of a fluid, comprising: - a control stage comprising at least one permanent magnet , at least one coil and an armature configured to be able to be driven in rotation about a direction, called the axial direction , if at least one coil is supplied with an electric current, said angular displacement of said armature being proportional to said supply current, - a power stage comprising a filler plate and a drum mounted rotatably in said filler plate and each comprising fluid circulation channels arranged so as to be able to be placed in fluid communication according to the position of the drum with respect to the filler plate to deliver a fluid to connection ports at a flow rate or pressure depending in particular on the rotation of said drum relative to the filler plate, - a slender mechanical transmission shaft extending along said axial direction and having a first end connected to said armature and an opposite end connected to said drum so as to be able to mechanically transmit a control torque delivered by said armature to said drum along a torque transmission axis, characterized in that said control stage further comprises a slender torsionally flexible tube extending along the axial direction around said slender transmission shaft and having a first end secured with said armature , shrunk onto said first end of said transmission shaft , and an opposite end clamped by a tube support extending as far as said filler plate , so as to form a flexible mobile assembly that limits the frictional forces between said drum and said filler plate of the servovalve. - a control stage comprising at least one permanent magnet , at least one coil and an armature configured to be able to be driven in rotation about a direction, called the axial direction , if at least one coil is supplied with an electric current, said angular displacement of said armature being proportional to said supply current, - a power stage comprising a filler plate and a drum mounted rotatably in said filler plate and each comprising fluid circulation channels arranged so as to be able to be placed in fluid communication according to the position of the drum with respect to the filler plate to deliver a fluid to connection ports at a flow rate or pressure depending in particular on the rotation of said drum relative to the filler plate, - a slender mechanical transmission shaft extending along said axial direction and having a first end connected to said armature and an opposite end connected to said drum so as to be able to mechanically transmit a control torque delivered by said armature to said drum along a torque transmission axis,
Method for warning road users about wrong-way travel by a vehicle , comprising the following steps: - reading in navigation data of the vehicle into a vehicle-external server via a vehicle-server interface between a communication device associated with the vehicle , as a client, and the vehicle-external server ; - matching the navigation data of the vehicle in the vehicle-external server against at least one piece of server-based navigation information in order to evaluate the read-in navigation data of the vehicle in respect of wrong-way travel by the vehicle ; - providing a wrong-way driver warning about the wrong-way travel by the vehicle to at least one further vehicle-server interface between at least one communication device associated with a further vehicle and the vehicle-external server if actual wrong-way travel has been detected in the matching step on the basis of the navigation data of the vehicle ; characterized in that the matching step involves an analysis of whether the vehicle is located in a wrong-way travel hazard area of the road network, wherein, if so, - the vehicle-external server instructs the communication device of the vehicle that the communication device should transmit the navigation data at a higher transmission rate than outside the wrong-way travel hazard area , in order to trigger a contrastingly higher-frequency data transfer. - reading in navigation data of the vehicle into a vehicle-external server via a vehicle-server interface between a communication device associated with the vehicle , as a client, and the vehicle-external server ; - matching the navigation data of the vehicle in the vehicle-external server against at least one piece of server-based navigation information in order to evaluate the read-in navigation data of the vehicle in respect of wrong-way travel by the vehicle ; - providing a wrong-way driver warning about the wrong-way travel by the vehicle to at least one further vehicle-server interface between at least one communication device associated with a further vehicle and the vehicle-external server if actual wrong-way travel has been detected in the matching step on the basis of the navigation data of the vehicle ; - the vehicle-external server instructs the communication device of the vehicle that the communication device should transmit the navigation data at a higher transmission rate than outside the wrong-way travel hazard area , in order to trigger a contrastingly higher-frequency data transfer.
An aerosol generation device for use with a consumable comprising a heat transfer element for heating an aerosol generation substrate and being attachable to the aerosol generation device, the aerosol generation device comprising: a heating element for heating the heat transfer element of the consumable when the consumable is attached to the aerosol generation device, characterised in that the heating element is moveable relative to the heat transfer element when the consumable is attached to the aerosol generation device, and configured to be moved when its temperature is above a threshold temperature, whereby an area of a contact, which exists between the heating element and the heat transfer element when the consumable is attached to the aerosol generation device and the temperature of the heating element is below the threshold temperature, can be reduced, or the contact can be eliminated. a heating element for heating the heat transfer element of the consumable when the consumable is attached to the aerosol generation device, characterised in that the heating element is moveable relative to the heat transfer element when the consumable is attached to the aerosol generation device, and configured to be moved when its temperature is above a threshold temperature, whereby an area of a contact, which exists between the heating element and the heat transfer element when the consumable is attached to the aerosol generation device and the temperature of the heating element is below the threshold temperature, can be reduced, or the contact can be eliminated.
A drive module for a motor vehicle, in particular a hybrid module for a motor vehicle for coupling an internal combustion engine, comprising: - an electric machine with a rotor for generating drive torque, - a rotor support which is connected to the rotor in an essentially rotationally fixed manner and which is mounted so that it can rotate at least radially, and - an angle resolver for measuring the angular position of the rotor support , wherein the angle resolver is arranged in such a way that it can be used to detect the angular position of the rotor support or a component of the drive module which is essentially rotationally fixed to the rotor support in relation to a support wall fixed to the housing, which is used for radial support of the rotary bearing of the rotor support , wherein the angle resolver has a transmitter element and a detection element , wherein the detection element is arranged on the support wall and the transmitter element is arranged on or at the intermediate shaft or the rotor support , characterised in that the rotor support is rotatably mounted by means of a rotor support bearing having a plurality of individual bearings, and the transmitter element and the detection element are arranged between bearings of the rotor support bearing . - an electric machine with a rotor for generating drive torque, - a rotor support which is connected to the rotor in an essentially rotationally fixed manner and which is mounted so that it can rotate at least radially, and - an angle resolver for measuring the angular position of the rotor support ,
A method for wireless communication performed by a first base station, BS, the first BS operating in a millimeter-wave, mmWave, ' spectrum, the method comprising: communicating , in a first time interval, with at least a first user equipment, UE, ', via directional transmissions using a first set of frequency resources; and participating in at least one of an access or management procedure, during the first time interval, via directional transmissions using a second set of frequency resources different from the first set of frequency resources, wherein the first BS is participating in the at least one of an access or management procedure with a second UE using the second set of resources; and wherein at least part of the resources and configurations for participating in the at least one of an access or management procedure with the first BS are those assigned to the second UE by a second BS. communicating , in a first time interval, with at least a first user equipment, UE, ', via directional transmissions using a first set of frequency resources; and participating in at least one of an access or management procedure, during the first time interval, via directional transmissions using a second set of frequency resources different from the first set of frequency resources, wherein the first BS is participating in the at least one of an access or management procedure with a second UE using the second set of resources; and wherein at least part of the resources and configurations for participating in the at least one of an access or management procedure with the first BS are those assigned to the second UE by a second BS.
A tubing attachment system for use in a medical apparatus having a handpiece and a tube to be connected proximally to the handpiece, the tubing attachment system comprising: a tubing attachment component having a proximal end, a distal end and an external surface, the tubing attachment component _ comprising a proximal end portion configured to attach to the tube, a distal end portion configured to attach to the handpiece, a throughbore extending from the distal end to the proximal end, and a circumferential groove on the external surface between the proximal end portion and the distal end portion; and a capture component including a channel to allow a tube, cable or accessory to be retained, the said capture component also comprising a frame having an internal frame surface , an external frame surface , and a frame opening for receiving the tubing attachment component , the frame comprising at least one locking protrusion extending inward from the internal frame surface ; wherein the frame and the at least one locking protrusion are configured to fit in the circumferential groove and be rotatable in the circumferential groove about the tubing attachment component when an external torque is applied, sufficient to overcome the friction of the locking protrusion or protrusions gripping the said tubing attachment component , and to frictionally lock the capture component in a desired rotational position in the absence of such external force. a tubing attachment component having a proximal end, a distal end and an external surface, the tubing attachment component _ comprising a proximal end portion configured to attach to the tube, a distal end portion configured to attach to the handpiece, a throughbore extending from the distal end to the proximal end, and a circumferential groove on the external surface between the proximal end portion and the distal end portion; and a capture component including a channel to allow a tube, cable or accessory to be retained, the said capture component also comprising a frame having an internal frame surface , an external frame surface , and a frame opening for receiving the tubing attachment component , the frame comprising at least one locking protrusion extending inward from the internal frame surface ; wherein the frame and the at least one locking protrusion are configured to fit in the circumferential groove and be rotatable in the circumferential groove about the tubing attachment component when an external torque is applied, sufficient to overcome the friction of the locking protrusion or protrusions gripping the said tubing attachment component , and to frictionally lock the capture component in a desired rotational position in the absence of such external force.
An imaging device comprising: an imaging element that generates an analog image signal and outputs the analog image signal in a nondestructive manner; an image processor that performs predetermined processing on a digital image signal, obtained by converting the analog image signal, to generate digital image data; and a controller that controls the image processor, characterized by wherein, under control of the controller, the image processor reads out digital image signals from the imaging element a plurality of times within one exposure period, calculates for the digital image signal a target gain value based on a target level and an added signal, and multiplies the added signal by the target gain value to generate the digital image data, the target level being calculated based on a signal level of a last readout digital image signal in the one exposure period, the added signal being obtained by adding up digital image signals read out the plurality of times. an imaging element that generates an analog image signal and outputs the analog image signal in a nondestructive manner; an image processor that performs predetermined processing on a digital image signal, obtained by converting the analog image signal, to generate digital image data; and a controller that controls the image processor, characterized by wherein, under control of the controller, the image processor reads out digital image signals from the imaging element a plurality of times within one exposure period, calculates for the digital image signal a target gain value based on a target level and an added signal, and multiplies the added signal by the target gain value to generate the digital image data, the target level being calculated based on a signal level of a last readout digital image signal in the one exposure period, the added signal being obtained by adding up digital image signals read out the plurality of times.
A method comprising: determining, by a controller device that manages a plurality of network devices, whether one or more stateful intents used to manage the plurality of network devices and represented by a graph model are modified; in response to determining that the one or more stateful intents are modified, associating, by the controller device, the one or more stateful intents with one or more resources for the stateful intents, the one or more resources being indicated by vertices of the graph model corresponding to the one or more stateful intents; determining, by the controller device, whether the associating of the one or more stateful intents with the one or more resources was successful; and configuring, by the controller device, at least one network device of the plurality of network devices using device-level configuration data representative of at least one of the one or more stateful intents that was successful for the at least one network device of the plurality of network devices. determining, by a controller device that manages a plurality of network devices, whether one or more stateful intents used to manage the plurality of network devices and represented by a graph model are modified; in response to determining that the one or more stateful intents are modified, associating, by the controller device, the one or more stateful intents with one or more resources for the stateful intents, the one or more resources being indicated by vertices of the graph model corresponding to the one or more stateful intents; determining, by the controller device, whether the associating of the one or more stateful intents with the one or more resources was successful; and configuring, by the controller device, at least one network device of the plurality of network devices using device-level configuration data representative of at least one of the one or more stateful intents that was successful for the at least one network device of the plurality of network devices.
A holographic projector comprising: an image processing engine arranged to: receive a source image for projection, wherein the source image comprises a first colour component and a second colour component; form a first colour secondary image from the first colour component by nulling alternate pixel values of the first colour component in accordance with a first checkerboard pattern and form a second colour secondary image from the second colour component by nulling alternate pixel values of the second colour component in accordance with a second checkerboard pattern, wherein the first checkerboard pattern is complementary to the second checkerboard pattern; a hologram engine arranged to determine a first colour hologram corresponding to the first colour secondary image and a second colour hologram corresponding to the second colour secondary image; and a display engine comprising at least one pixelated spatial light modulator arranged to receive coherent light from a light source and form a first colour holographic reconstruction from the first colour hologram and a second colour holographic reconstruction from the second colour hologram. an image processing engine arranged to: receive a source image for projection, wherein the source image comprises a first colour component and a second colour component; form a first colour secondary image from the first colour component by nulling alternate pixel values of the first colour component in accordance with a first checkerboard pattern and form a second colour secondary image from the second colour component by nulling alternate pixel values of the second colour component in accordance with a second checkerboard pattern, wherein the first checkerboard pattern is complementary to the second checkerboard pattern; receive a source image for projection, wherein the source image comprises a first colour component and a second colour component; form a first colour secondary image from the first colour component by nulling alternate pixel values of the first colour component in accordance with a first checkerboard pattern and form a second colour secondary image from the second colour component by nulling alternate pixel values of the second colour component in accordance with a second checkerboard pattern, wherein the first checkerboard pattern is complementary to the second checkerboard pattern; a hologram engine arranged to determine a first colour hologram corresponding to the first colour secondary image and a second colour hologram corresponding to the second colour secondary image; and a display engine comprising at least one pixelated spatial light modulator arranged to receive coherent light from a light source and form a first colour holographic reconstruction from the first colour hologram and a second colour holographic reconstruction from the second colour hologram.
A method for processing video data to derive an optimized transform for use in video compression, the method comprising: performing (S1610) a clustering on the video data; generating (S1620) a plurality of N data clusters as a result of the clustering; generating (S1630) a plurality of N graph laplacian matrices corresponding to the N data clusters from graph information representing pixel relationship information of the data clusters; performing (S1640) a transform optimization based on the graph laplacian matrices; and generating (S1650) an optimized transform matrix according to a result of the transform optimization, wherein the transform optimization is performed based on a specified metric, and the specified metric minimizes a squared sum of off-diagonal elements, wherein the optimized transform matrix is obtained by: T ∗ = argmin T | TT t = I ∑ i = 1 N ‖ ddiag TL i T t − TL i T t ‖ F 2 Wherein L i denotes the graph laplacian matrices with i = 1, 2, ... , N, the operator ddiag( TL i T t ) generates a diagonal matrix from the diagonal components of the matrix TL i T t the matrix I represents the identity matrix, and ∥·∥ F represents the Frobenius norm. performing (S1610) a clustering on the video data; generating (S1620) a plurality of N data clusters as a result of the clustering; generating (S1630) a plurality of N graph laplacian matrices corresponding to the N data clusters from graph information representing pixel relationship information of the data clusters; performing (S1640) a transform optimization based on the graph laplacian matrices; and generating (S1650) an optimized transform matrix according to a result of the transform optimization, wherein the transform optimization is performed based on a specified metric, and the specified metric minimizes a squared sum of off-diagonal elements, wherein the optimized transform matrix is obtained by: T ∗ = argmin T | TT t = I ∑ i = 1 N ‖ ddiag TL i T t − TL i T t ‖ F 2 Wherein L i denotes the graph laplacian matrices with i = 1, 2, ... , N, the operator ddiag( TL i T t ) generates a diagonal matrix from the diagonal components of the matrix TL i T t the matrix I represents the identity matrix, and ∥·∥ F represents the Frobenius norm.