mhurhangee/ep-ind-claims huggingface dataset:
Device for implementing a method for analysing an actual dental situation of a patient, for simulation purposes, the method comprising a series of cycles of steps A) to C), a cycle of steps A) to C) comprising the following successive steps: A) at an update time, acquiring an update image representing an actual dental scene such as observed by an operator; B) determining a virtual dental scene depending on the representation of the actual dental scene in the update image, the virtual dental scene comprising a representation of the arch of the patient and/or a representation of an orthodontic appliance borne by the teeth of the arch such as anticipated for a future simulation time, the simulation time being after the update time by more than one day; C) presenting, on a screen, the virtual dental scene in see-through and in superposition on the actual dental scene, or displaying the update image on a screen and presenting the virtual dental scene in superposition with the representation of the actual dental scene in the update image displayed on the screen, in see-through or not on said representation; a step A) being repeated less than 5 seconds after step C), the device comprising: - a camera configured to implement step A); - a processing unit configured to implement step B); - a screen for implementing step C); the camera, the processing unit and the screen being configured to communicate with one another to implement said steps. A) at an update time, acquiring an update image representing an actual dental scene such as observed by an operator; B) determining a virtual dental scene depending on the representation of the actual dental scene in the update image, the virtual dental scene comprising a representation of the arch of the patient and/or a representation of an orthodontic appliance borne by the teeth of the arch such as anticipated for a future simulation time, the simulation time being after the update time by more than one day; C) presenting, on a screen, the virtual dental scene in see-through and in superposition on the actual dental scene, or displaying the update image on a screen and presenting the virtual dental scene in superposition with the representation of the actual dental scene in the update image displayed on the screen, in see-through or not on said representation; a step A) being repeated less than 5 seconds after step C), the device comprising: - a camera configured to implement step A); - a processing unit configured to implement step B); - a screen for implementing step C); the camera, the processing unit and the screen being configured to communicate with one another to implement said steps. displaying the update image on a screen and presenting the virtual dental scene in superposition with the representation of the actual dental scene in the update image displayed on the screen, in see-through or not on said representation; a step A) being repeated less than 5 seconds after step C), - a camera configured to implement step A); - a processing unit configured to implement step B); - a screen for implementing step C);
A method for tracking an object comprising: initializing tracking; selecting a camera; obtaining (43, 44) a target model of a tracked object; generating a first particle; predicting a next time's particle by a dynamic model; and calculating features of the first particle; wherein a feature of the particle is calculated by: computing histograms of various level resolution images of the target model; normalizing the histograms; forming a cumulative histogram from the histograms of the various level resolution images; computing difference histograms between the histograms of consecutive various level resolution images; and concatenating the difference histograms to determine the feature of the particle. initializing tracking; selecting a camera; obtaining (43, 44) a target model of a tracked object; generating a first particle; predicting a next time's particle by a dynamic model; and calculating features of the first particle; wherein a feature of the particle is calculated by: computing histograms of various level resolution images of the target model; normalizing the histograms; forming a cumulative histogram from the histograms of the various level resolution images; computing difference histograms between the histograms of consecutive various level resolution images; and concatenating the difference histograms to determine the feature of the particle. computing histograms of various level resolution images of the target model; normalizing the histograms; forming a cumulative histogram from the histograms of the various level resolution images; computing difference histograms between the histograms of consecutive various level resolution images; and concatenating the difference histograms to determine the feature of the particle.
Method for specifying a driving strategy for a vehicle driving with a first driving parameter, comprising the following steps: - detecting, by the vehicle, a following vehicle which is located behind the vehicle in the driving direction of the vehicle, - detecting, by the vehicle, a second driving parameter which is assigned to the following vehicle, - determining, by the vehicle, a coupling readiness of the following vehicle to the vehicle, - carrying out, by the vehicle, a reaction measure depending on the negative coupling readiness and the second driving parameter, wherein, when determining the coupling readiness, it is checked whether the coupling readiness is negative or positive, wherein, in the event of a positive coupling readiness, the following vehicle is coupled to the vehicle with the following vehicle being adjusted to the first driving parameter of the vehicle, wherein the vehicle is operated in an at least partially automated driving mode and the reaction measure comprises deactivating (204.3) the at least partially automated driving mode, wherein a switchover to a manual driving mode is provided when deactivating (204.3) the at least partially automated driving mode. - detecting, by the vehicle, a following vehicle which is located behind the vehicle in the driving direction of the vehicle, - detecting, by the vehicle, a second driving parameter which is assigned to the following vehicle, - determining, by the vehicle, a coupling readiness of the following vehicle to the vehicle, - carrying out, by the vehicle, a reaction measure depending on the negative coupling readiness and the second driving parameter, wherein, when determining the coupling readiness, it is checked whether the coupling readiness is negative or positive, wherein, in the event of a positive coupling readiness, the following vehicle is coupled to the vehicle with the following vehicle being adjusted to the first driving parameter of the vehicle, wherein the vehicle is operated in an at least partially automated driving mode and the reaction measure comprises deactivating (204.3) the at least partially automated driving mode, wherein a switchover to a manual driving mode is provided when deactivating (204.3) the at least partially automated driving mode.
A method of time of flight "ToF" measurement to be performed by a responding station, the method comprising: receiving an initial time of flight "ToF" measurement request from an initiating station, the initial ToF measurement request comprising a measurement request bit indicating a request to perform a ToF measurement; transmitting, to the initiating station, a first acknowledgment "ACK"; transmitting a first ToF measurement frame after transmission of the first ACK, the first ToF measurement frame including a status field to indicate if the request to perform the ToF measurement is accepted or not accepted; receiving a second ACK from the initiating station; receiving a subsequent ToF measurement request from the initiating station, the subsequent ToF measurement request comprising an indication of a request for (ToF) measurements; transmitting a third ACK to the initiating station; and transmitting to the initiating station another ToF measurement frame including a result for the requested ToF measurements. receiving an initial time of flight "ToF" measurement request from an initiating station, the initial ToF measurement request comprising a measurement request bit indicating a request to perform a ToF measurement; transmitting, to the initiating station, a first acknowledgment "ACK"; transmitting a first ToF measurement frame after transmission of the first ACK, the first ToF measurement frame including a status field to indicate if the request to perform the ToF measurement is accepted or not accepted; receiving a second ACK from the initiating station; receiving a subsequent ToF measurement request from the initiating station, the subsequent ToF measurement request comprising an indication of a request for (ToF) measurements; transmitting a third ACK to the initiating station; and transmitting to the initiating station another ToF measurement frame including a result for the requested ToF measurements.
IL-17A binding polypeptide, comprising an IL-17A binding motif BM, which motif consists of an amino acid sequence selected from: i) EX 2 DX 4 AX 6 X 7 EIX 10 X 11 LPNL X 16 X 17 X 18 QX 20 X 21 AFIX 25 X 26 LX 28 X 29 whe rein, independently from each other, X 2 is A; X 4 is selected from D and Q; X 6 is A; X 7 is V; X 10 is A; X 11 is selected from A, D and S; X 16 is selected from N and T; X 17 is W; X 18 is selected from A and D; X 20 is W; X 21 is selected from F and Y; X 25 is selected from Q and S; X 26 is selected from K and S; X 28 is R; and X 29 is D; wherein sequence i) corresponds to the sequence from position 8 to position 36 in a sequence selected from the group consisting of SEQ ID NO:1-1216; and ii) an amino acid sequence which has at least 89% identity to the sequence defined in i), provided that any IL-17A binding polypeptide comprising a BM as defined in ii) is capable of binding to IL-17A such that the K D value of the interaction is at most 1 x 10 -8 M. i) EX 2 DX 4 AX 6 X 7 EIX 10 X 11 LPNL X 16 X 17 X 18 QX 20 X 21 AFIX 25 X 26 LX 28 X 29 whe rein, independently from each other, X 2 is A; X 4 is selected from D and Q; X 6 is A; X 7 is V; X 10 is A; X 11 is selected from A, D and S; X 16 is selected from N and T; X 17 is W; X 18 is selected from A and D; X 20 is W; X 21 is selected from F and Y; X 25 is selected from Q and S; X 26 is selected from K and S; X 28 is R; and X 29 is D; wherein sequence i) corresponds to the sequence from position 8 to position 36 in a sequence selected from the group consisting of SEQ ID NO:1-1216; and X 2 is A; X 4 is selected from D and Q; X 6 is A; X 7 is V; X 10 is A; X 11 is selected from A, D and S; X 16 is selected from N and T; X 17 is W; X 18 is selected from A and D; X 20 is W; X 21 is selected from F and Y; X 25 is selected from Q and S; X 26 is selected from K and S; X 28 is R; and ii) an amino acid sequence which has at least 89% identity to the sequence defined in i), provided that any IL-17A binding polypeptide comprising a BM as defined in ii) is capable of binding to IL-17A such that the K D value of the interaction is at most 1 x 10 -8 M.
A modified Cas9 protein comprising a substitution of residue K526 and having a reduced off-target activity and an increased fidelity when compared to the otherwise identical Cas9 having K526, utation, wherein the position of the K526 mutation is identified by reference to the amino acid numbering in an unmodified mature Streptococcus pyogenes Cas9 (SpCas9) as set forth in SEQ ID NO: 1.
A control system for an electric motor circuit of a permanent magnet synchronous motor, the control system comprising: a current controller which produces a set of idealised voltage demands for the electric motor circuit, an observer which observes the inputs to the electric motor circuit and the outputs of the electric motor circuit and which generates from the observations estimates of the voltage disturbances within the electric motor circuit, the observer being arranged in use to output a first correction signal indicative of the voltage disturbances in the electric motor circuit, a feed-forward controller which receives as an input an estimate of the current flowing in the electric motor circuit and calculates from the input a second correction signal, in which the feedforward controller additionally receives as an input a measure of the angular velocity of the motor, either the mechanical or electrical angular velocity, and compensating means which combines both the first correction signal output from the observer and the second correction signal output from the feedforward controller with the idealised voltage demands output from the current controller to provide a set of modified voltages demands that are fed to the electric motor circuit, wherein the input to the feedforward controller comprises smooth estimates of the undelayed d- and q-axis motor currents with no sampling delay, produced by the observer. a current controller which produces a set of idealised voltage demands for the electric motor circuit, an observer which observes the inputs to the electric motor circuit and the outputs of the electric motor circuit and which generates from the observations estimates of the voltage disturbances within the electric motor circuit, the observer being arranged in use to output a first correction signal indicative of the voltage disturbances in the electric motor circuit, a feed-forward controller which receives as an input an estimate of the current flowing in the electric motor circuit and calculates from the input a second correction signal, in which the feedforward controller additionally receives as an input a measure of the angular velocity of the motor, either the mechanical or electrical angular velocity, and compensating means which combines both the first correction signal output from the observer and the second correction signal output from the feedforward controller with the idealised voltage demands output from the current controller to provide a set of modified voltages demands that are fed to the electric motor circuit, wherein the input to the feedforward controller comprises smooth estimates of the undelayed d- and q-axis motor currents with no sampling delay, produced by the observer.
A first apparatus comprising a processor, a memory, and communication circuitry, the first apparatus being connected to a communications network via its communication circuitry, the first apparatus further comprising computer-executable instructions stored in the memory of the first apparatus which, when executed by the processor of the first apparatus, characterised to cause the first apparatus to: establish a connection with a second apparatus, the second apparatus comprising an entity managing operations of a first radio access network; obtain a first mobility set via communications with the second apparatus, the first mobility set comprising a first list of beams and a first condition within the first radio access network for selecting one or more of the beams from the first list based on communications conditions; and derive, based on a measurement of communications conditions with beams from the first list of beams and the first condition within the first mobility set, a second mobility set comprising a second list of beams, wherein the second list of beams are a subset of the first list of beams. establish a connection with a second apparatus, the second apparatus comprising an entity managing operations of a first radio access network; obtain a first mobility set via communications with the second apparatus, the first mobility set comprising a first list of beams and a first condition within the first radio access network for selecting one or more of the beams from the first list based on communications conditions; and derive, based on a measurement of communications conditions with beams from the first list of beams and the first condition within the first mobility set, a second mobility set comprising a second list of beams, wherein the second list of beams are a subset of the first list of beams.
A closure having a base comprising a pierceable part, the pierceable part being defined by a sidewall extending transversally with respect to the base and a bottom, said sidewall and/or bottom comprising several lines of weakened material strength dividing the sidewall and/or bottom in several wedge formed parts, characterized in that, said pierceable part is at least partially over-moulded with an elastic material such as to form a seal with respect to a needle inserted in the container through the piercable part to prevent leakage from inside the container to outside the container and/or prevent permeation of gases in or outside the container via the interface of wedge and inserted needle.
An air circuit breaker comprising a circuit breaker body, a cradle, and a position indicator of the circuit breaker body for indicating a position of the circuit breaker body according to movement of the circuit breaker body within the cradle, the position indicator comprising: a handle insertion part to which a handle is inserted; a worm gear rotated according to rotation of the handle inserted in the handle insertion part; a worm wheel rotated in association with the worm gear; a link part connected to the worm wheel in one end and connected to a movement member in the other end and moving the movement member in a horizontal direction according to rotation of the worm wheel; and a movement member connected to the other end of the link part, wherein the air circuit breaker is characterized in: that the position indicator further comprises an indicator inserted into the movement member in a state of being positioned above the handle insertion part, and indicating a position of the circuit breaker body, while rotating according to movement of the movement member in a horizontal direction, that the movement member rotates the indicator, while moving in the horizontal direction according to movement of the link part. a handle insertion part to which a handle is inserted; a worm gear rotated according to rotation of the handle inserted in the handle insertion part; a worm wheel rotated in association with the worm gear; a link part connected to the worm wheel in one end and connected to a movement member in the other end and moving the movement member in a horizontal direction according to rotation of the worm wheel; and a movement member connected to the other end of the link part, wherein the air circuit breaker is characterized in: that the position indicator further comprises an indicator inserted into the movement member in a state of being positioned above the handle insertion part, and indicating a position of the circuit breaker body, while rotating according to movement of the movement member in a horizontal direction, that the movement member rotates the indicator, while moving in the horizontal direction according to movement of the link part. that the position indicator further comprises an indicator inserted into the movement member in a state of being positioned above the handle insertion part, and indicating a position of the circuit breaker body, while rotating according to movement of the movement member in a horizontal direction, that the movement member rotates the indicator, while moving in the horizontal direction according to movement of the link part.
An imaging device, comprising: an imaging unit configured to generate image data on the basis of a first power voltage (VDDH); an image processing unit (41; 71) configured to perform image processing on the image data on the basis of a second power voltage (VDDL); a reference voltage generating unit configured to generate a first reference voltage (VthL) on the basis of the first power voltage (VDDH) and a second reference voltage (VthH) on the basis of the first power voltage (VDDH); and an analog circuit configured to compare the second power voltage (VDDL) with the first reference voltage (VthL) and the second reference voltage (VthH), including a first flag generating unit, configured to generate a first flag signal (XERP) for the second power voltage (VDDL) on the basis of the comparison of the second power voltage (VDDL) with the first reference voltage (VthL) and the second reference voltage (VthH) and configured to output the first flag signal (XERP), wherein the first flag signal (XERP) can be set to a first logical level or a second logical level. an imaging unit configured to generate image data on the basis of a first power voltage (VDDH); an image processing unit (41; 71) configured to perform image processing on the image data on the basis of a second power voltage (VDDL); a reference voltage generating unit configured to generate a first reference voltage (VthL) on the basis of the first power voltage (VDDH) and a second reference voltage (VthH) on the basis of the first power voltage (VDDH); and an analog circuit configured to compare the second power voltage (VDDL) with the first reference voltage (VthL) and the second reference voltage (VthH), including a first flag generating unit, configured to generate a first flag signal (XERP) for the second power voltage (VDDL) on the basis of the comparison of the second power voltage (VDDL) with the first reference voltage (VthL) and the second reference voltage (VthH) and configured to output the first flag signal (XERP), wherein the first flag signal (XERP) can be set to a first logical level or a second logical level.
Device (1; 101; 201) for sealing an air inlet of a motor vehicle, comprising: - at least one sealing means intended to be arranged in an air inlet of the motor vehicle, and - a support (5; 105, 105'; 205, 205') for the sealing means for the purpose of holding the sealing means and intended to be attached to a load-bearing structure of the motor vehicle, the support (5; 105, 105'; 205, 205') comprising at least one damping guiding means (15; 115, 115'; 215, 215') of the sealing means such that, in the event of an impact on the sealing means, the sealing means is able to move from an initial holding position to a position that is set back with respect to the initial position, the means for sealing the flow of air comprising at least one panel of flaps that is intended to be arranged upstream of a heat exchange device of the motor vehicle in the direction of flow of a flow of air, characterized in that said at least one damping guiding means (15; 115, 115'; 215, 215') is a means for guiding an associated retention element (13; 113; 213) borne by the sealing means, from the initial holding position to the set back position in the event of an impact, and in that said at least one damping guiding means comprises a groove (15; 15') for guiding the associated retention element, the groove being shaped so as to progressively narrow. - at least one sealing means intended to be arranged in an air inlet of the motor vehicle, and - a support (5; 105, 105'; 205, 205') for the sealing means for the purpose of holding the sealing means and intended to be attached to a load-bearing structure of the motor vehicle,
A bearing assembly for a wind turbine, comprising; a bearing (42, 46) comprising an outer race, an inner race rotatable relative to the outer race, and a plurality of roller elements positioned within at least one raceway (66, 68) defined between the outer and inner races (52, 54); at least one position sensor arranged substantially flush with the at least one raceway (66, 68), the at least one position sensor configured for monitoring movement of the plurality of roller elements; and a controller communicatively coupled to the at least one position sensor, the controller configured to receive an output from the at least one position sensor and determine a position of one or more of the plurality of roller elements based on an output from the at least one position sensor.