mhurhangee/patent-ind-claim-en huggingface dataset:
A user terminal characterized by comprising: a receiving section configured to receive information including a combination of a first identifier that relates to a synchronization signal and a second identifier that relates to a channel state measurement signal corresponding to the synchronization signal; and a control section configured to control to measure the channel state measurement signal identified by the second identifier of the combination based on the synchronization signal corresponding to the first identifier of the combination. a receiving section configured to receive information including a combination of a first identifier that relates to a synchronization signal and a second identifier that relates to a channel state measurement signal corresponding to the synchronization signal; and a control section configured to control to measure the channel state measurement signal identified by the second identifier of the combination based on the synchronization signal corresponding to the first identifier of the combination.
A system including one or more processors configured to implement a protocol for blocking decryption comprising: receiving an encryption derive request from a client device; generating a random string according to one or more predefined rules; characterized by further comprising: generating a digest parameter based on the random string and a masked secret key; generating a blinded partial derived key based on the digest parameter; and transmitting the blinded partial derived key to the client device, wherein the partial derived key is configured to used to generate a derived key for encrypting data. receiving an encryption derive request from a client device; generating a random string according to one or more predefined rules; characterized by further comprising: generating a digest parameter based on the random string and a masked secret key; generating a blinded partial derived key based on the digest parameter; and transmitting the blinded partial derived key to the client device, wherein the partial derived key is configured to used to generate a derived key for encrypting data. generating a digest parameter based on the random string and a masked secret key; generating a blinded partial derived key based on the digest parameter; and transmitting the blinded partial derived key to the client device, wherein the partial derived key is configured to used to generate a derived key for encrypting data.
Device for identifying a trajectory of each blade of a rotor , the rotor comprising a plurality of rotating blades , said device comprising an image sensor and a computer connected to the image sensor , said device comprising at least one target configured to be attached to a said blade and to be visible to the image sensor in a field of view of the image sensor , said target comprising at least one elongated coloured strip , said image sensor being configured to continuously acquire images over a measurement period according to a refresh rate of the image sensor and independently of a rotational frequency of the rotor , characterised in that the at least one target comprises at least two parallel said coloured strips .
Fuel or ignition aid comprising cellulosic and/or hemicellulosic material and oils and/or fats or derivatives thereof or constituents in the form of fatty acids, fatty alcohols or glycerol, characterized in that the oils, fats and derivatives thereof are processed substances originating from wastes and residues from secondary utilization or cascade utilization that prior to the processing cannot be used directly as fuels or constituents thereof, where the processing comprises a hydrogenating step.
A method of manufacturing an abutment for a dental implant, the method comprising: - obtaining data associated with the dentition of a patient by optically scanning a tooth to be replaced, that has already been extracted and is out of the mouth, to generate a 3D data set; - generating a model of the abutment through a computer-implemented process based on the data; - processing a material based on the model to generate the abutment , wherein the abutment is configured to match the analogue of the predetermined extracted tooth of the patient and wherein the abutment comprises: an apical end and a coronal end opposite the apical end; an insertion portion at the apical end , the insertion portion being configured to be received in an opening of the dental implant ; a transition portion coronal of the insertion portion ; and a connecting portion extending coronally of the transition portion, wherein the connecting portion is in the form of a post and is configured to be attached to a root canal of the extracted tooth of a patient; and - preparing a root part from the extracted tooth to be connected to the post to provide a final abutment. - obtaining data associated with the dentition of a patient by optically scanning a tooth to be replaced, that has already been extracted and is out of the mouth, to generate a 3D data set; - generating a model of the abutment through a computer-implemented process based on the data; - processing a material based on the model to generate the abutment , wherein the abutment is configured to match the analogue of the predetermined extracted tooth of the patient and wherein the abutment comprises: an apical end and a coronal end opposite the apical end; an insertion portion at the apical end , the insertion portion being configured to be received in an opening of the dental implant ; a transition portion coronal of the insertion portion ; and a connecting portion extending coronally of the transition portion, wherein the connecting portion is in the form of a post and is configured to be attached to a root canal of the extracted tooth of a patient; and an apical end and a coronal end opposite the apical end; an insertion portion at the apical end , the insertion portion being configured to be received in an opening of the dental implant ; a transition portion coronal of the insertion portion ; and a connecting portion extending coronally of the transition portion, wherein the connecting portion is in the form of a post and is configured to be attached to a root canal of the extracted tooth of a patient; and - preparing a root part from the extracted tooth to be connected to the post to provide a final abutment.
Coding strip for the mechanical encoding of a docking bay and a slide-in module for insertion into such a docking bay , in particular in a switchgear cabinet, comprising a base body which is adapted to be arranged at the docking bay or at the slide-in module to interact with a complementary coding strip , wherein a first coding element is arrangable at the base body in at least two different coding positions characterised in that, the base body is designed as two parts, and in that the first coding element is accommodated at the first part of the base body and can be fixed at the first part by means of the second part of the base body .
An assembly for measuring a height of a flange protruding from a component, the flange having a thickness that is less than the height of the flange and adjoining the component at a radius, the assembly comprising: a displacement gauge comprising a measuring rod that is adapted to contact and be linearly translated by an end of the flange; and an adapter device coupled to the displacement gauge , wherein the adapter device comprises a first arm and a second arm defining a channel therebetween, wherein the first arm is adapted to be disposed on a first side of the flange and the second arm is adapted to be disposed on a second side of the flange with the measuring rod of the displacement gauge being disposed in the channel , wherein the first arm and the second arm extend from the displacement gauge and at least one of the first arm and the second arm is adapted to contact the radius adjoining the flange and the component. a displacement gauge comprising a measuring rod that is adapted to contact and be linearly translated by an end of the flange; and an adapter device coupled to the displacement gauge , wherein the adapter device comprises a first arm and a second arm defining a channel therebetween, wherein the first arm is adapted to be disposed on a first side of the flange and the second arm is adapted to be disposed on a second side of the flange with the measuring rod of the displacement gauge being disposed in the channel , wherein the first arm and the second arm extend from the displacement gauge and at least one of the first arm and the second arm is adapted to contact the radius adjoining the flange and the component.
A video decoding device for decoding video using inter prediction, in a scheme defining a coding unit, CU, as a unit of coding, a prediction unit, PU, as a unit of prediction for each CU, and inter-PU partition types, comprising: de-multiplexing means for de-multiplexing an input bitstream and extracting information on a minimum inter-PU size; entropy decoding means ; and decoding control means for, with respect to each CU of CUs to be decoded, causing the entropy decoding means to entropy-decode an inter-PU partition type syntax indicating an inter-PU partition type of the CU when the prediction mode of the CU is inter prediction and the CU size of the CU is greater than the minimum inter-PU size, and not to entropy-decode the inter-PU partition type syntax of the CU and to set a predetermined inter-PU partition type when the prediction mode of the CU is inter prediction and the CU size of the CU is less than or equal to the minimum inter-PU size. de-multiplexing means for de-multiplexing an input bitstream and extracting information on a minimum inter-PU size; entropy decoding means ; and decoding control means for, with respect to each CU of CUs to be decoded, causing the entropy decoding means to entropy-decode an inter-PU partition type syntax indicating an inter-PU partition type of the CU when the prediction mode of the CU is inter prediction and the CU size of the CU is greater than the minimum inter-PU size, and not to entropy-decode the inter-PU partition type syntax of the CU and to set a predetermined inter-PU partition type when the prediction mode of the CU is inter prediction and the CU size of the CU is less than or equal to the minimum inter-PU size.
A flow passage of a turbomachine comprising: a first aerofoil having a first camber ; a second aerofoil having a second camber and being spaced from the first aerofoil in a pitch direction (p); and an endwall between the first and second aerofoils, wherein the first and second aerofoils extend from the endwall in a spanwise direction (s) of the aerofoils; a slot is formed in the endwall for removal of boundary layer flow from the endwall, the slot having a length direction (l) and a width direction (w), with the length dimension being greater than the width dimension, and the length direction is more aligned with the direction of the first camber than it is with the pitch direction, wherein the length direction of the slot is within 45 degrees of the direction of the first camber; and the minimum distance between the slot and the camber line of the first aerofoil is in the range of from 0.25 and 4 times the minimum distance between the slot and the camber line of the second aerofoil at all points along the length of the slot, wherein the first and second aerofoils are substantially the same, such that the first camber of the first aerofoil is the same as the second camber of the second aerofoil. a first aerofoil having a first camber ; a second aerofoil having a second camber and being spaced from the first aerofoil in a pitch direction (p); and an endwall between the first and second aerofoils, wherein the first and second aerofoils extend from the endwall in a spanwise direction (s) of the aerofoils; a slot is formed in the endwall for removal of boundary layer flow from the endwall, the slot having a length direction (l) and a width direction (w), with the length dimension being greater than the width dimension, and the length direction is more aligned with the direction of the first camber than it is with the pitch direction, wherein the length direction of the slot is within 45 degrees of the direction of the first camber; and the minimum distance between the slot and the camber line of the first aerofoil is in the range of from 0.25 and 4 times the minimum distance between the slot and the camber line of the second aerofoil at all points along the length of the slot, wherein the first and second aerofoils are substantially the same, such that the first camber of the first aerofoil is the same as the second camber of the second aerofoil.
A catalyst regenerator for regenerating spent catalyst, comprising: a catalyst regenerator vessel housing a dense phase catalyst bed ; and a spent catalyst distributor comprises a conduit projecting horizontally or horizontally and downwardly into the catalyst regenerator vessel , the conduit comprising: a proximal end ; a distal end ; an opening located at the distal end for introducing the spent catalyst at a first location inside the catalyst regenerator vessel ; and a plurality of orifices located along a length of the conduit between the distal end and an inner wall of the catalyst regenerator vessel for introducing the spent catalyst at a plurality of locations inside the catalyst regenerator vessel , wherein each of the plurality of orifices located along the length of the conduit has a diameter in the range of 40 to 60% of a diameter of the conduit , wherein the catalyst regenerator further comprises at least one baffle provided within the conduit for directing a flow of the spent catalyst within the conduit towards at least one of the plurality of orifices located along the length of the conduit . a catalyst regenerator vessel housing a dense phase catalyst bed ; and a spent catalyst distributor comprises a conduit projecting horizontally or horizontally and downwardly into the catalyst regenerator vessel , the conduit comprising: a proximal end ; a distal end ; an opening located at the distal end for introducing the spent catalyst at a first location inside the catalyst regenerator vessel ; and a plurality of orifices located along a length of the conduit between the distal end and an inner wall of the catalyst regenerator vessel for introducing the spent catalyst at a plurality of locations inside the catalyst regenerator vessel , a proximal end ; a distal end ; an opening located at the distal end for introducing the spent catalyst at a first location inside the catalyst regenerator vessel ; and a plurality of orifices located along a length of the conduit between the distal end and an inner wall of the catalyst regenerator vessel for introducing the spent catalyst at a plurality of locations inside the catalyst regenerator vessel , wherein each of the plurality of orifices located along the length of the conduit has a diameter in the range of 40 to 60% of a diameter of the conduit , wherein the catalyst regenerator further comprises at least one baffle provided within the conduit for directing a flow of the spent catalyst within the conduit towards at least one of the plurality of orifices located along the length of the conduit .
A method of determining a location of a device on a surface of a body part of a subject that is treated by the device during a treatment operation, wherein the device is for performing the treatment operation on the body part, and wherein the device comprises one or more orientation sensors for measuring the orientation of the device in a reference frame of the device, the method comprising: obtaining a three dimensional, 3D, representation of the body part, the 3D representation comprising normal vectors for respective positions on the surface of the body part; receiving a plurality of orientation measurements from the one or more orientation sensors representing orientation of the device during the treatment operation on the body part; processing the received orientation measurements to determine a sequence of orientations of the device during the treatment operation; and comparing the determined sequence of orientations of the device to the normal vectors and respective positions of the normal vectors to determine the location of the device on the surface of the body part during the treatment operation. obtaining a three dimensional, 3D, representation of the body part, the 3D representation comprising normal vectors for respective positions on the surface of the body part; receiving a plurality of orientation measurements from the one or more orientation sensors representing orientation of the device during the treatment operation on the body part; processing the received orientation measurements to determine a sequence of orientations of the device during the treatment operation; and comparing the determined sequence of orientations of the device to the normal vectors and respective positions of the normal vectors to determine the location of the device on the surface of the body part during the treatment operation.
An ultrasonic input system comprising at least three wide field of view ultrasonic transceiver units separated from each other by a predetermined spacing and a processor coupled to the at least three ultrasonic transceiver units, wherein at least one of the three ultrasonic transceiver units is configured to operate as a transmitter during a transmit/receive cycle and at least two of the ultrasonic transceiver units are configured as first and second receivers during the transmit/receive cycle, wherein the transmitter is configured to send an ultrasonic pulse during a transmit portion of the transmit/receive cycle and wherein the first and second receivers are configured to receive echoes of the ultrasonic pulse from an object during the transmit/receive cycle and produce corresponding first and second receive signals, wherein the processor and/or the first and second receivers are configured to use the first and second receive signals to determine first and second time-of-flight (ToF) measurements corresponding to times between transmitting the ultrasonic pulse by the transmitter and receiving an echo of the ultrasonic pulse by the first and second receivers, respectively, wherein the processor and/or the at least two receivers are configured to determine first and second moving averages for the corresponding first and second receive signals, continuously update the first and second moving averages, subtract resulting updated first and second moving averages from the first and second receive signals, respectively, to produce first and second filtered receive signals, and determine the first and second time-of-flight (ToF) measurements from the first and second filtered receive signals corresponding to times between transmitting the ultrasonic pulse by the transmitter and receiving an echo of the ultrasonic pulse by the first and second receivers, respectively.
A method of encoding an input video data stream comprising a first and second frame of video data the method comprising the steps of: obtaining intra-frame encoding data for each of the first and second frames of video data; obtaining motion prediction data for each pixel of the second frame of video data, the motion prediction data indicative of the predicted motion of each pixel of the second frame of video data with regard to the first frame of video data, wherein the motion prediction data is determined as inter-frame data for the second frame of video data; determining a measure of accuracy of the motion prediction data; obtaining a data mask for the second frame of video data, said data mask comprising data indicative of relative weights to be applied for predicting pixels for the second frame, said relative weights based on the measure of accuracy of the motion prediction data for each pixel of the second frame; determining update data for each pixel of the second frame of video data, said update data defining a relative difference between the pixels in the first frame and corresponding pixels in the second frame, wherein said update data for each of the plurality of pixels is defined on a pixel-by-pixel basis as a weighted blend of the corresponding intra-frame data and the corresponding motion prediction data, which is weighted by the measure of accuracy of the motion prediction data comprised in the data mask for each pixel of the second frame; and encoding the video data stream comprising at least the first frame of video data and the update data, motion prediction data and the mask data for the second frame of video data. obtaining intra-frame encoding data for each of the first and second frames of video data; obtaining motion prediction data for each pixel of the second frame of video data, the motion prediction data indicative of the predicted motion of each pixel of the second frame of video data with regard to the first frame of video data, wherein the motion prediction data is determined as inter-frame data for the second frame of video data; determining a measure of accuracy of the motion prediction data; obtaining a data mask for the second frame of video data, said data mask comprising data indicative of relative weights to be applied for predicting pixels for the second frame, said relative weights based on the measure of accuracy of the motion prediction data for each pixel of the second frame; determining update data for each pixel of the second frame of video data, said update data defining a relative difference between the pixels in the first frame and corresponding pixels in the second frame, wherein said update data for each of the plurality of pixels is defined on a pixel-by-pixel basis as a weighted blend of the corresponding intra-frame data and the corresponding motion prediction data, which is weighted by the measure of accuracy of the motion prediction data comprised in the data mask for each pixel of the second frame; and encoding the video data stream comprising at least the first frame of video data and the update data, motion prediction data and the mask data for the second frame of video data.
An electron energy loss spectrometer, EELS, operating from an alternating current, AC, power line voltage having an AC power line fundamental frequency comprising: a bending magnet for producing a spectrum of electron energy levels; a direct current bending magnet field excitation source; and a power line noise correction circuit configured to produce a first correction signal at the fundamental AC power line frequency and a second correction signal at a harmonic of the fundamental AC power line frequency. a bending magnet for producing a spectrum of electron energy levels; a direct current bending magnet field excitation source; and a power line noise correction circuit configured to produce a first correction signal at the fundamental AC power line frequency and a second correction signal at a harmonic of the fundamental AC power line frequency.
Method of configuring a terminal comprising a step of initializing said terminal which automatically triggers at least: - a step of detecting the presence of a memory by a basic input/output system of the terminal, - a step of accessing said memory by the basic input/ouput system, and - a step of starting up an operating system of said terminal stored in said memory, characterized in that prior to the step of detecting presence, the method comprises a step of linking of communication of a mobile telecommunication terminal with said terminal, and in that it furthermore comprises the automatic triggering of a step of starting up a driver of a telecommunication network access module , the driver of the access module being stored in said memory and able to drive the access module from said terminal through said communication link between said terminal and the mobile telecommunication terminal , said mobile telecommunication terminal comprising said memory and said access module. - a step of detecting the presence of a memory by a basic input/output system of the terminal, - a step of accessing said memory by the basic input/ouput system, and - a step of starting up an operating system of said terminal stored in said memory,