mhurhangee/ep-ind-claims huggingface dataset:
A method for context based encoding of a histogram map of an image in the field of visual search using compact descriptors, the histogram map representing location information of key points of the image, the method comprising: providing compressed context representation information (A; B; C) associated to a given bitrate and to a given block size of a spatial grid applied to a matrix representation of the image to obtain the histogram map; computing, from the compressed context representation information (A; B; C), a context for the given bitrate and the given block size by applying an approximation algorithm; and encoding the histogram map using the context computed for the given bitrate and the given block size; wherein the step of providing compressed context representation information further comprises: computing the compressed context representation (A; B; C) information for the given bitrate and the given block size from a set of context information values associated to the given block size and another bitrate by using a further approximation algorithm. providing compressed context representation information (A; B; C) associated to a given bitrate and to a given block size of a spatial grid applied to a matrix representation of the image to obtain the histogram map; computing, from the compressed context representation information (A; B; C), a context for the given bitrate and the given block size by applying an approximation algorithm; and encoding the histogram map using the context computed for the given bitrate and the given block size; wherein the step of providing compressed context representation information further comprises: computing the compressed context representation (A; B; C) information for the given bitrate and the given block size from a set of context information values associated to the given block size and another bitrate by using a further approximation algorithm.
Open roof construction for a vehicle having an opening in the fixed roof, comprising a stationary part for attachment to the roof, having at least one guide rail on a side of the roof opening, a closure element supported by an operating mechanism and adjustable between a closed position, in which it closes the roof opening by means of a seal between the closure element and the stationary part, and an open position, wherein the operating mechanism comprises a driving slide, slidably guided in the guide rail, a front support attached to the closure element and guided by the guide rail, a support member which is slidably connected to the closure element, and a curve part on the stationary part including a guide track having a vertical component and extending rearwardly beyond a rear edge of the roof opening, the support member being in engagement with said guide track, wherein the driving slide is adapted to drive the support member at least along part of the path of movement of the closure element by means of a connecting element, characterized in that the guide rail, driving slide, connecting element, support member and curve part on the stationary part are positioned outside the seal between the closure element and the stationary part, and in that the connecting element is connected to the driving slide and support member in a manner such that it is movable at least partly in substantially vertical direction with respect to the guide rail.
A spinal cord stimulator device implantable in a patient's tissue comprising an electrode array (17, 17') with a plurality of electrodes, the spinal cord stimulator device further comprising control circuitry configured to: provide an anodic pulse at an anodic pole (E+) at a first pre-determined position in the electrode array during a first duration; provide a plurality of cathodic pulses at cathodic poles (E-1, E-2, E-3, E-4) at second pre-determined positions in the electrode array different from the first pre-determined position during a second duration occurring before or after the first duration; and provide a cathodic charge recovery pulse at the anodic pole (E+) after the anodic pulse, and provide anodic charge recovery pulses at the cathodic poles (E-1, E-2, E-3, E-4) after the cathodic pulses. provide an anodic pulse at an anodic pole (E+) at a first pre-determined position in the electrode array during a first duration; provide a plurality of cathodic pulses at cathodic poles (E-1, E-2, E-3, E-4) at second pre-determined positions in the electrode array different from the first pre-determined position during a second duration occurring before or after the first duration; and provide a cathodic charge recovery pulse at the anodic pole (E+) after the anodic pulse, and provide anodic charge recovery pulses at the cathodic poles (E-1, E-2, E-3, E-4) after the cathodic pulses.
Laser processing apparatus for laser hardening and laser deposition welding of one or more workpieces to be processed, comprising a processing laser, at least one base and an industrial robot attached to the base for positioning and aligning the processing laser of the laser processing apparatus relative to the one or more workpieces to be processed, wherein - the industrial robot has a multi-axis movable robot arm with a pedestal, - the industrial robot is screwed to the pedestal of the robot arm on a plate-shaped adapter of the laser processing apparatus, characterized in that - the plate-shaped adapter is connectable to a plate-shaped adapter counterpart of the laser processing apparatus located on the base by means of releasable fastening means, - the laser processing apparatus comprises both a stationary base (2.1) and a mobile base (2.2), wherein the industrial robot attached to the adapter being connected either to the stationary base (2.1) or to the mobile base (2.2), wherein the adapter and the adapter counterpart are arranged precisely one above the other, and - the plate-shaped adapter is designed as a cuboid plate with the basic shape of a rectangle. - the industrial robot has a multi-axis movable robot arm with a pedestal, - the industrial robot is screwed to the pedestal of the robot arm on a plate-shaped adapter of the laser processing apparatus, characterized in that - the plate-shaped adapter is connectable to a plate-shaped adapter counterpart of the laser processing apparatus located on the base by means of releasable fastening means, - the laser processing apparatus comprises both a stationary base (2.1) and a mobile base (2.2), wherein the industrial robot attached to the adapter being connected either to the stationary base (2.1) or to the mobile base (2.2), wherein the adapter and the adapter counterpart are arranged precisely one above the other, and - the plate-shaped adapter is designed as a cuboid plate with the basic shape of a rectangle.
A stimulation generator suitable for use in an injectable neurostimulator, the stimulation generator adapted to provide a configurable periodic stimulation signal comprising a component, the stimulation generator comprising an input configured to receive digital voltages to generate the component including digital voltages representing: a stimulation mode signal to configure the component of the stimulation signal as a voltage-controlled component or a current-controlled component, an amplitude control signal to control the amplitude of the component of the stimulation signal, a duty cycle signal to control the duration of the component of the stimulation signal; a converter to convert the amplitude control signal to an analog signal; a combining module to combine the duty cycle signal with the analog signal to provide a preliminary output voltage signal which includes the component of the stimulation signal; a voltage-controlled current source adapted to be driven by the preliminary output voltage signal; a mode selector adapted to be controlled by the stimulation mode signal to select to output the component from the preliminary output voltage signal as a current-controlled component of the stimulation signal via the voltage-controlled current source or as a voltage-controlled component of the stimulation signal. an input configured to receive digital voltages to generate the component including digital voltages representing: a stimulation mode signal to configure the component of the stimulation signal as a voltage-controlled component or a current-controlled component, an amplitude control signal to control the amplitude of the component of the stimulation signal, a duty cycle signal to control the duration of the component of the stimulation signal; a stimulation mode signal to configure the component of the stimulation signal as a voltage-controlled component or a current-controlled component, an amplitude control signal to control the amplitude of the component of the stimulation signal, a duty cycle signal to control the duration of the component of the stimulation signal; a converter to convert the amplitude control signal to an analog signal; a combining module to combine the duty cycle signal with the analog signal to provide a preliminary output voltage signal which includes the component of the stimulation signal; a voltage-controlled current source adapted to be driven by the preliminary output voltage signal; a mode selector adapted to be controlled by the stimulation mode signal to select to output the component from the preliminary output voltage signal as a current-controlled component of the stimulation signal via the voltage-controlled current source or as a voltage-controlled component of the stimulation signal.
A method for defining and activating user-defined scenes in a home automation system, comprising: determining services in the home automation system whose states are to be captured; automatically capturing a user-defined scene based on a set of states that describe the current operating condition of the home automation system for the services, the set of states including states of services provided by multiple different types of devices, the multiple different types including two or more of audio/video (A/V) devices, lighting devices, heating ventilation and cooling (HVAC) devices, security devices, shade control devices, energy conservation devices, or communications devices; schedule the user-defined scene to activate in response to a trigger; storing the user-defined scene on a storage device of the home automation system; determining the trigger has been reached and the user-defined scene is to be activated; and controlling services provided by the multiple different types of devices of the home automation system to replicate the set of states of the user-defined scene. determining services in the home automation system whose states are to be captured; automatically capturing a user-defined scene based on a set of states that describe the current operating condition of the home automation system for the services, the set of states including states of services provided by multiple different types of devices, the multiple different types including two or more of audio/video (A/V) devices, lighting devices, heating ventilation and cooling (HVAC) devices, security devices, shade control devices, energy conservation devices, or communications devices; schedule the user-defined scene to activate in response to a trigger; storing the user-defined scene on a storage device of the home automation system; determining the trigger has been reached and the user-defined scene is to be activated; and controlling services provided by the multiple different types of devices of the home automation system to replicate the set of states of the user-defined scene.
A coated cutting tool which comprises a substrate and a coating layer formed on a surface of the substrate, at least one layer of the coating layer being a coarse grain layer having an average grain diameter Lx measured at a direction parallel to an interface of the coating layer and the substrate exceeding 200 nm, and a composition of which being represented by (Al a Ti b M c)N wherein M represents at least one kind of an element(s) selected from the group consisting of W, Y, and Si, a represents an atomic ratio of an Al element based on a total of the Al element, a Ti element and an M element, b represents an atomic ratio of a Ti element based on a total of an Al element, the Ti element and an M element, c represents an atomic ratio of an M element based on a total of an Al element, a Ti element and the M element, a, b and c each satisfy 0.30≤a≤0.65, 0.35≤b≤0.70, 0≤c≤0.20 and a+b+c=1, and an average layer thickness of the coarse grain layer being 0.2 to 10 μm, wherein a grain diameter ratio (Ly/Lx) of an average grain diameter Ly of the coarse grain layer measured at a direction perpendicular to an interface between the coating layer and the substrate to an average grain diameter Lx of the coarse grain layer measured at a direction parallel to an interface between the coating layer and the substrate is 0.7 or more and less than 1.5, and wherein a full width at half maximum intensity (FWHM) of an X-ray diffraction peak of a plane of the coarse grain layer is 0.6° or less.
Control unit for operating an electric motor; wherein the control unit is designed - to ascertain, for at least two different phase currents of the electric motor in each case, values for 2Z different scanning angles, wherein Z is an integer, where Z is equal to one or greater than one; wherein one or more pairs of the 2Z scanning angles are spaced apart from one another by a spacing angle of π / 6 z, wherein z is an integer, where z is equal to one or greater than one; wherein the 2Z different scanning angles lie within a single angle interval with an interval size of π / 2, π / 3, π / 4 or less; - to ascertain, for each phase current in each case, a mean of the values of the respective phase current for the 2Z different scanning angles; - to ascertain, on the basis of the means of the values of the phase currents and by means of a Clarke and/or Park transformation, an estimated value for a fundamental component of the phase currents; and - to operate the electric motor depending on the estimated value of the fundamental component of the phase currents. - to ascertain, for at least two different phase currents of the electric motor in each case, values for 2Z different scanning angles, wherein Z is an integer, where Z is equal to one or greater than one; wherein one or more pairs of the 2Z scanning angles are spaced apart from one another by a spacing angle of π / 6 z, wherein z is an integer, where z is equal to one or greater than one; wherein the 2Z different scanning angles lie within a single angle interval with an interval size of π / 2, π / 3, π / 4 or less; - to ascertain, for each phase current in each case, a mean of the values of the respective phase current for the 2Z different scanning angles; - to ascertain, on the basis of the means of the values of the phase currents and by means of a Clarke and/or Park transformation, an estimated value for a fundamental component of the phase currents; and - to operate the electric motor depending on the estimated value of the fundamental component of the phase currents.
Method for securely maintaining a network connection during a temporary replacement of operating system components of a mobile terminal, comprising: - Establishing the network connection between the mobile terminal and a wireless communication network using a security element whose presence is checked by means of at least one operating system component of the mobile terminal; - deactivating the at least one operating system component, characterized in that - a predetermined bridging routine for maintaining the established network connection is temporarily executed until the at least one operating system component is reactivated, - wherein the bridging routine comprises sending a message, the message indicating the presence of the security element, wherein it is not actively checked whether the security element is actually present, and wherein the message obtains an indication that at least currently querying the presence of the security element is not necessary or not desired. - Establishing the network connection between the mobile terminal and a wireless communication network using a security element whose presence is checked by means of at least one operating system component of the mobile terminal; - deactivating the at least one operating system component, characterized in that - a predetermined bridging routine for maintaining the established network connection is temporarily executed until the at least one operating system component is reactivated, - wherein the bridging routine comprises sending a message, the message indicating the presence of the security element,
Foldable and width-adjustable child carriage comprising at least one floor assembly with at least three wheels attached to it and one coupled in relation to the floor assembly swiveling coupled child carriage frame, which is suitable to hold at least one insert, wherein the child carriage frame is foldable via at least one swivel axis in the direction of the floor assembly, wherein the child carriage frame comprises a first, lower section and a second, upper section, wherein both sections (5; 6) are connected flexibly to each other via a swivel axis, characterized in, that the one further axis is a variable-length cross-section, which is suitable to change the width of the child carriage.
A vehicle clutch, comprising a primary clutch, wherein a first drive and a second drive are provided on the other side of the primary clutch, the primary clutch is internally provided with a first secondary clutch unit and a second secondary clutch unit, the first drive is in power connection with the first secondary clutch unit, the second drive is in power connection with the second secondary clutch unit; the first secondary clutch unit comprises a first secondary clutch and a friction unit configured to cooperate with the first secondary clutch; the second secondary clutch unit comprises a second secondary clutch and a friction unit configured to cooperate with the second secondary clutch, characterized in that a synchronizer is provided between the first secondary clutch and the second secondary clutch; the synchronizer is configured to lock the first secondary clutch and the second secondary clutch as a whole when the first secondary clutch is being separated from the second secondary clutch.
Method for compensating deviations between a desired final shape and an actual final shape of a workpiece in a deforming operation between two beams (3, 4) of a press, comprising of: - arranging at least one compensating element at a suitably chosen location in the press, - detecting the deviations, and - moving the at least one compensating element relative to the beams (3, 4) by electromechanical means during the deforming operation such that the detected deviations are at least substantially compensated, characterized in that: the at least one compensating element is moved to an over-compensating position, beyond a position in which it provides an optimal compensation, prior to the deforming operation and is pressed out of its over-compensating position during the deforming operation by a press load on the beam (3, 4), and the compensating element exerts an adjustable resistance force on surrounding parts of the press. - arranging at least one compensating element at a suitably chosen location in the press, - detecting the deviations, and - moving the at least one compensating element relative to the beams (3, 4) by electromechanical means during the deforming operation such that the detected deviations are at least substantially compensated, characterized in that: the at least one compensating element is moved to an over-compensating position, beyond a position in which it provides an optimal compensation, prior to the deforming operation and is pressed out of its over-compensating position during the deforming operation by a press load on the beam (3, 4), and the compensating element exerts an adjustable resistance force on surrounding parts of the press. the at least one compensating element is moved to an over-compensating position, beyond a position in which it provides an optimal compensation, prior to the deforming operation and is pressed out of its over-compensating position during the deforming operation by a press load on the beam (3, 4), and the compensating element exerts an adjustable resistance force on surrounding parts of the press.
A vehicle cabin audio system comprising: a first speaker positioned to provide first audio content to a first seating position within a vehicle cabin based on an audio signal received from an audio signal source; a second speaker positioned to provide second audio content to a second seating position within the vehicle cabin; a first microphone assembly positioned to detect first speech content originating at the second seating position, leaked second audio content from the second speaker, and road noise; and audio signal processing circuitry coupled to at least the first microphone assembly and configured to determine a perturbing signal based at least in part on a combination of the first speech content, the leaked second audio content from the second speaker, and the road noise, and adjust the audio signal to the first speaker based on a frequency of the audio signal to compensate for an effect of the perturbing signal on the first audio content at the first seating position a second microphone assembly positioned to detect at least second speech content originating at a third seating position, the second speech content being different from the first speech content, wherein the audio signal processing circuity is coupled to the second microphone assembly and further configured to determine the perturbing signal based on the second speech content, and the first microphone assembly is further configured to detect the second speech content, and wherein the audio signal processing circuitry is configured to distinguish the first speech content detected by the first microphone assembly from the second speech content detected by the first microphone assembly based on a direction of each of the first speech content and the second speech content relative to the first microphone assembly. a first speaker positioned to provide first audio content to a first seating position within a vehicle cabin based on an audio signal received from an audio signal source; a second speaker positioned to provide second audio content to a second seating position within the vehicle cabin; a first microphone assembly positioned to detect first speech content originating at the second seating position, leaked second audio content from the second speaker, and road noise; and audio signal processing circuitry coupled to at least the first microphone assembly and configured to determine a perturbing signal based at least in part on a combination of the first speech content, the leaked second audio content from the second speaker, and the road noise, and adjust the audio signal to the first speaker based on a frequency of the audio signal to compensate for an effect of the perturbing signal on the first audio content at the first seating position