mhurhangee/ep-ind-claims huggingface dataset:
A method for scanning by a wireless communication device for neighboring cells and corresponding base stations in connection with a decision to select a new serving base station, the method comprising: measuring the channel power from the neighboring cells; sorting the channels into a sorted list of channels based upon the power measurements; attempting to acquire a signal from the channels of the neighboring cells in the sorted list of channels in descending order of the sorted power measurements; the method being characterized by: when a signal from a channel is successfully acquired, determining an amount of adjacent channel power produced as part of the signal from the channel, that was successfully acquired; comparing the determined adjacent channel power to the measured power for corresponding channels in the sorted list of channels; and removing from the sorted list of channels, any channel for which the measured power is substantially comprised of adjacent channel power, wherein by removing these channels from the sorted list of channels to be attempted to be acquired, these channels are eliminated from the process for scanning for neighboring cells without going through the process of attempting to acquire signals on these channels. measuring the channel power from the neighboring cells; sorting the channels into a sorted list of channels based upon the power measurements; attempting to acquire a signal from the channels of the neighboring cells in the sorted list of channels in descending order of the sorted power measurements; the method being characterized by: when a signal from a channel is successfully acquired, determining an amount of adjacent channel power produced as part of the signal from the channel, that was successfully acquired; comparing the determined adjacent channel power to the measured power for corresponding channels in the sorted list of channels; and removing from the sorted list of channels, any channel for which the measured power is substantially comprised of adjacent channel power, wherein by removing these channels from the sorted list of channels to be attempted to be acquired, these channels are eliminated from the process for scanning for neighboring cells without going through the process of attempting to acquire signals on these channels. when a signal from a channel is successfully acquired, determining an amount of adjacent channel power produced as part of the signal from the channel, that was successfully acquired; comparing the determined adjacent channel power to the measured power for corresponding channels in the sorted list of channels; and removing from the sorted list of channels, any channel for which the measured power is substantially comprised of adjacent channel power, wherein by removing these channels from the sorted list of channels to be attempted to be acquired, these channels are eliminated from the process for scanning for neighboring cells without going through the process of attempting to acquire signals on these channels.
A heating shell for three-way connector, in particular for a motor vehicle fluid circuit, this shell having a general T or Y shape and comprising an internal passage of the same shape in which a three-way fluidic connector is intended to be housed, the shell being formed by two half-shells (10a, 10b) of the same shape attached to each other and delimiting said passage between them, the half-shells comprising semi-cylindrical surfaces (22, 24, 26) forming segments of the passage, characterised in that it comprises resistive heating circuits (28a, 28b) which are formed in situ on said semi-cylindrical surfaces.
A system comprising: a light source configured to emit light and to introduce some of the light into a glass article; a light detector configured to detect at least a portion of the introduced light emitted from an edge of the glass article, an intensity profile of the emitted light comprising an intensity of the emitted light as a function of axial position; a light blocking unit configured to shield the light detector from the light emitted by light source that is not introduced into the glass article and that is not emitted from the edge of the glass article; and a processing unit configured to determine a first intensity boundary of the intensity profile and a second intensity boundary of the intensity profile, and to determine a thickness of a layer of the glass article based on an axial distance between the first intensity boundary and the second intensity boundary. a light source configured to emit light and to introduce some of the light into a glass article; a light detector configured to detect at least a portion of the introduced light emitted from an edge of the glass article, an intensity profile of the emitted light comprising an intensity of the emitted light as a function of axial position; a light blocking unit configured to shield the light detector from the light emitted by light source that is not introduced into the glass article and that is not emitted from the edge of the glass article; and a processing unit configured to determine a first intensity boundary of the intensity profile and a second intensity boundary of the intensity profile, and to determine a thickness of a layer of the glass article based on an axial distance between the first intensity boundary and the second intensity boundary.
Electric heating device comprising a metal façade and at least one heating element surrounded by an electrically insulating sheath (16, 17), an intermediate screen arranged between the façade and the heating element, a first face of said screen being in contact with the façade and a second face of said screen being in contact with the sheath of the heating element, the device being characterized in that said intermediate screen comprises a non-woven textile material, formed from a layer of polyester felt, providing the electrical insulation of the façade while allowing good thermal conductivity between the heating element and said façade.
A liquid ejecting apparatus comprising: a head ejecting a liquid onto a medium; a containing unit containing the liquid; and a mounting unit on which a chip unit adapted to store, read and write information indicating a liquid amount of the containing unit is mounted, a control unit for controlling the liquid ejecting apparatus; characterized in that if the chip unit is removed from the mounting unit when the liquid ejecting apparatus performs an operation, the liquid ejecting apparatus selects any one state between a first state of stopping the operation and a second state without stopping the operation, based on the amount of liquid in said containing unit. a head ejecting a liquid onto a medium; a containing unit containing the liquid; and a mounting unit on which a chip unit adapted to store, read and write information indicating a liquid amount of the containing unit is mounted, a control unit for controlling the liquid ejecting apparatus;
Print head support assembly for carrying a number of print heads (91, 92) and for positioning the number of print heads, the print head support assembly comprising: • a carriage plate provided with reference elements for positioning the number of print heads, the carriage plate being further provided with at least four support positions; • a support sub-assembly (60, 70, 80) supporting the carriage plate, wherein the support sub-assembly is provided with at least four mounting points (61, 62, 71, 72), wherein the at least four mounting points are coupled to said at least four support positions; wherein the support sub-assembly is configured to constrain the carriage plate in six degrees of freedom with respect to a position of the carriage plate and to constrain the carriage plate in at least one degree of freedom with respect to a shape of the carriage plate; and characterized in that a position of at least one of the mounting points is adjustable for adjusting the shape of the carriage plate. • a carriage plate provided with reference elements for positioning the number of print heads, the carriage plate being further provided with at least four support positions; • a support sub-assembly (60, 70, 80) supporting the carriage plate, wherein the support sub-assembly is provided with at least four mounting points (61, 62, 71, 72),
Method for activating a function of a chipset comprising at least a memory and a calculation module in charge of cryptographic operations, the memory containing at least a seed (Sd), which is a unique identification number of the chipset, and the calculation module containing at least two cryptographic algorithms, this method being characterized in that it comprises the steps of: - receiving a global cryptographic algorithm selector (GCAS) and at least one of a segmentation key or a global key; - transmitting the global cryptographic algorithm selector (GCAS) and the seed (Sd) to the calculation module, said seed, said segmentation key, said global key and said global cryptographic algorithm selector being provided by at least two different entities among a chipset manufacturer, an entity in charge of a personalisation of the chipset and a security provider; - generating in the calculation module, a temporary key (SKtemp) by using one of said at least two cryptographic algorithms of the calculation module as selected by the global cryptographic algorithm selector (GCAS) and the seed (Sd); - receiving an activation message by the calculation module; - receiving an authentication code of said message by the calculation module, said message authentication code being computed using the temporary key (SKtemp); - verifying the authenticity of said received message by using the message authentication code and the temporary key (SKtemp); - if the received message is authentic, activating a corresponding function (F1, F2, F3) of the chipset; - if the received message is not authentic, denying the activation of said corresponding function of the chipset. - receiving a global cryptographic algorithm selector (GCAS) and at least one of a segmentation key or a global key; - transmitting the global cryptographic algorithm selector (GCAS) and the seed (Sd) to the calculation module, said seed, said segmentation key, said global key and said global cryptographic algorithm selector being provided by at least two different entities among a chipset manufacturer, an entity in charge of a personalisation of the chipset and a security provider; - generating in the calculation module, a temporary key (SKtemp) by using one of said at least two cryptographic algorithms of the calculation module as selected by the global cryptographic algorithm selector (GCAS) and the seed (Sd); - receiving an activation message by the calculation module; - receiving an authentication code of said message by the calculation module, said message authentication code being computed using the temporary key (SKtemp); - verifying the authenticity of said received message by using the message authentication code and the temporary key (SKtemp); - if the received message is authentic, activating a corresponding function (F1, F2, F3) of the chipset; - if the received message is not authentic, denying the activation of said corresponding function of the chipset.
A sensor device removably attachable to a drug delivery device, the sensor device comprising: a sensing arrangement arranged within the sensor device; and circuitry configured to process signals provided by the sensor arrangement, wherein the sensing arrangement is configured such that, when the sensor device is attached to the drug delivery device, the sensing arrangement is operable to read encoded information present on a rotatable component that is internal to the drug delivery device and that is able to be sensed through a window or aperture of the drug delivery device, and is operable to sense through the window or aperture the presence or absence of at least a part of a drive mechanism of the drug delivery device, wherein the circuitry is configured: to determine, based on the encoded information, information relating to a set dose, and to determine, based on sensing the presence or absence of the part of the drive mechanism, information relating to whether the drug delivery device is in a dose setting mode or whether the device is in a dose delivery mode. a sensing arrangement arranged within the sensor device; and circuitry configured to process signals provided by the sensor arrangement, wherein the sensing arrangement is configured such that, when the sensor device is attached to the drug delivery device, the sensing arrangement is operable to read encoded information present on a rotatable component that is internal to the drug delivery device and that is able to be sensed through a window or aperture of the drug delivery device, and is operable to sense through the window or aperture the presence or absence of at least a part of a drive mechanism of the drug delivery device, wherein the circuitry is configured: to determine, based on the encoded information, information relating to a set dose, and to determine, based on sensing the presence or absence of the part of the drive mechanism, information relating to whether the drug delivery device is in a dose setting mode or whether the device is in a dose delivery mode. to determine, based on the encoded information, information relating to a set dose, and to determine, based on sensing the presence or absence of the part of the drive mechanism, information relating to whether the drug delivery device is in a dose setting mode or whether the device is in a dose delivery mode.
Device for localization of a target in a scene, said device comprising circuitry (20; 21, 22) configured to: - obtain radar signal measurements simultaneously acquired by two or more radar sensors (10, 11, 12) arranged at different locations, said two or more radar sensors having overlapping fields of view, - derive range information of one or more potential targets (T1-T3) from samples of radar signal measurements of said two or more radar sensors acquired at the same time or during the same time interval, the range information of a single sample representing a ring segment of potential positions of a potential target at a particular range from the respective radar sensor in its field of view, - determine intersection points of ring segments (R1-R4) of the derived range information, and - determine the most likely target position, characterized in that the circuitry is further configured to - determine a region of the scene having one of the highest densities of intersection points, - select a ring segment per sensor that goes through the selected region, and - determine the most likely target position of the potential target from the derived range information of the selected ring segments. - obtain radar signal measurements simultaneously acquired by two or more radar sensors (10, 11, 12) arranged at different locations, said two or more radar sensors having overlapping fields of view, - derive range information of one or more potential targets (T1-T3) from samples of radar signal measurements of said two or more radar sensors acquired at the same time or during the same time interval, the range information of a single sample representing a ring segment of potential positions of a potential target at a particular range from the respective radar sensor in its field of view, - determine intersection points of ring segments (R1-R4) of the derived range information, and - determine the most likely target position, - determine a region of the scene having one of the highest densities of intersection points, - select a ring segment per sensor that goes through the selected region, and - determine the most likely target position of the potential target from the derived range information of the selected ring segments.
A method for calibrating a first radio head and a second radio head, wherein the first radio head and the second radio head comprise a respective plurality of antennas, the method comprising: transmitting, via the plurality of antennas of the first radio head, a first calibration signal to the second radio head, wherein the plurality of antennas of the second radio head receives the first calibration signal; transmitting, via the plurality of antennas of the second radio head, a second calibration signal to the first radio head, wherein the plurality of antennas of the first radio head receives the second calibration signal; and calibrating the first radio head and the second radio head based on a calibration vector determined from the calibration signals received at the respective plurality of antennas of the first radio head and the second radio head, characterized in that the calibrating the first radio head and the second radio head further comprises; determining a respective gain for each of the antennas of the first radio head and the second radio head; determining a respective phase for each of the antennas of the first radio head and the second radio head; determining a respective channel estimate for each of the plurality of antennas of the first radio head and the second radio head; forming a matrix comprising the plurality of channel estimates; and determining the eigenvector with the smallest eigenvalue of the matrix. transmitting, via the plurality of antennas of the first radio head, a first calibration signal to the second radio head, wherein the plurality of antennas of the second radio head receives the first calibration signal; transmitting, via the plurality of antennas of the second radio head, a second calibration signal to the first radio head, wherein the plurality of antennas of the first radio head receives the second calibration signal; and calibrating the first radio head and the second radio head based on a calibration vector determined from the calibration signals received at the respective plurality of antennas of the first radio head and the second radio head, characterized in that the calibrating the first radio head and the second radio head further comprises; determining a respective gain for each of the antennas of the first radio head and the second radio head; determining a respective phase for each of the antennas of the first radio head and the second radio head; determining a respective channel estimate for each of the plurality of antennas of the first radio head and the second radio head; forming a matrix comprising the plurality of channel estimates; and determining the eigenvector with the smallest eigenvalue of the matrix.
A method comprising: receiving a translation lookaside buffer, TLB, miss event associated with a thread (112, 114) of a multithreaded processor; checking a TLB lock indicator; wherein in response to the TLB lock indicator indicating an unlocked state, allowing access by the thread to an exception handler (122, 132) associated with a TLB (108, 272); and characterised in that when the TLB lock indicator indicates a locked state: putting the thread (112, 114) to sleep without launching an exception handler in response to the TLB miss event, transitioning, upon receipt of an instruction, the TLB lock indicator from the locked state to the unlocked state, and in response to the TLB lock indicator transitioning from the locked state to the unlocked state, performing a wake operation and replaying execution of a packet that caused the TLB miss event. receiving a translation lookaside buffer, TLB, miss event associated with a thread (112, 114) of a multithreaded processor; checking a TLB lock indicator; wherein in response to the TLB lock indicator indicating an unlocked state, allowing access by the thread to an exception handler (122, 132) associated with a TLB (108, 272); and characterised in that when the TLB lock indicator indicates a locked state: putting the thread (112, 114) to sleep without launching an exception handler in response to the TLB miss event, transitioning, upon receipt of an instruction, the TLB lock indicator from the locked state to the unlocked state, and in response to the TLB lock indicator transitioning from the locked state to the unlocked state, performing a wake operation and replaying execution of a packet that caused the TLB miss event. putting the thread (112, 114) to sleep without launching an exception handler in response to the TLB miss event, transitioning, upon receipt of an instruction, the TLB lock indicator from the locked state to the unlocked state, and in response to the TLB lock indicator transitioning from the locked state to the unlocked state, performing a wake operation and replaying execution of a packet that caused the TLB miss event.
A non-transitory computer-readable storage medium storing instructions that, when executed by one or more processors of a computer system, cause the computer system to generate, based on one or more user input parameters, one or more netlist files for configuring a memory array by performing number of operations comprising: providing a memory block including a controller, a number of reference voltage generators, a number of sense amplifiers, and a number of memory columns each including a plurality of resistance-based memory cells; selecting the number of reference voltage generators to include in the memory block based on the user input parameters; selecting the number of sense amplifiers to include in the memory block based on the user input parameters; and determining with a resistance-based compiler how many of the sense amplifiers are to be coupled to each of the reference voltage generators based on the user input parameters. providing a memory block including a controller, a number of reference voltage generators, a number of sense amplifiers, and a number of memory columns each including a plurality of resistance-based memory cells; selecting the number of reference voltage generators to include in the memory block based on the user input parameters; selecting the number of sense amplifiers to include in the memory block based on the user input parameters; and determining with a resistance-based compiler how many of the sense amplifiers are to be coupled to each of the reference voltage generators based on the user input parameters.