mhurhangee/ep-ind-claims huggingface dataset:
A method of palette index map decoding for blocks in a picture, comprising: receiving input bitstream associated with a current block in the picture; deriving a Rice parameter from a first variable, MaxPalettelndex, specifying a maximum possible value for a palette index for the current block; parsing, from the input bitstream, a coded first number corresponding to a first number related to a total number of first index values signalled for palette coding modes comprising a copy-index mode and a copy-above mode generated for the current block by applying palette coding to the current block, wherein the copy-index mode represents N1 consecutive indices all having one first index value by signalling said one first index value and N1 runs, and the copy-above mode represents N2 consecutive second indices all having same second index values as corresponding N2 above pixels by signalling N2 runs, and N1 and N2 are positive integers; recovering the first number from the coded first number by applying decoding process including applying truncated Rice decoding with the Rice parameter to a prefix part of the coded first number; and applying palette decoding to recover the current block using information including the first number; characterized in that said deriving the Rice parameter from the first variable is performed without using division operation or table lookup operation by: assigning the Rice parameter corresponding to ((L + MaxPalettelndex) >> N), wherein L is equal to 24, N is equal to 3 and ">>" corresponds to a right-shift operation. receiving input bitstream associated with a current block in the picture; deriving a Rice parameter from a first variable, MaxPalettelndex, specifying a maximum possible value for a palette index for the current block; parsing, from the input bitstream, a coded first number corresponding to a first number related to a total number of first index values signalled for palette coding modes comprising a copy-index mode and a copy-above mode generated for the current block by applying palette coding to the current block, wherein the copy-index mode represents N1 consecutive indices all having one first index value by signalling said one first index value and N1 runs, and the copy-above mode represents N2 consecutive second indices all having same second index values as corresponding N2 above pixels by signalling N2 runs, and N1 and N2 are positive integers; recovering the first number from the coded first number by applying decoding process including applying truncated Rice decoding with the Rice parameter to a prefix part of the coded first number; and applying palette decoding to recover the current block using information including the first number; characterized in that said deriving the Rice parameter from the first variable is performed without using division operation or table lookup operation by: assigning the Rice parameter corresponding to ((L + MaxPalettelndex) >> N), wherein L is equal to 24, N is equal to 3 and ">>" corresponds to a right-shift operation.
A method for wireless communication at a base station, comprising: connecting to a user equipment, UE, in a license assisted access, LAA, mode using a primary cell, PCell, and a secondary cell, SCell, associated with a shared radio frequency spectrum band; determining a scheduling carrier over which scheduling information is provided to the UE for uplink transmissions from the UE over the SCell; adding the SCell to a secondary timing advance group, sTAG, based at least in part on the shared radio frequency spectrum band of the SCell and the determination of the scheduling carrier; and transmitting timing advance information associated with the sTAG to the UE for uplink transmissions over the SCell. connecting to a user equipment, UE, in a license assisted access, LAA, mode using a primary cell, PCell, and a secondary cell, SCell, associated with a shared radio frequency spectrum band; determining a scheduling carrier over which scheduling information is provided to the UE for uplink transmissions from the UE over the SCell; adding the SCell to a secondary timing advance group, sTAG, based at least in part on the shared radio frequency spectrum band of the SCell and the determination of the scheduling carrier; and transmitting timing advance information associated with the sTAG to the UE for uplink transmissions over the SCell.
A device for testing the use of a capacitive surface with a glove, said device comprising: - a gauge made of an electrically conductive material adapted to be detectable by said capacitive surface to be tested, and - a plate, made of an electrically non-conductive material, adapted to be placed between the capacitive surface to be tested and said gauge, said plate having a thickness adapted to simulate said glove. - a gauge made of an electrically conductive material adapted to be detectable by said capacitive surface to be tested, and - a plate, made of an electrically non-conductive material, adapted to be placed between the capacitive surface to be tested and said gauge, said plate having a thickness adapted to simulate said glove.
A remote control unit for controlling a set of light sources (2a, 2b, 2c, 2d), comprising - a user interface (11, 11a, 1b) arranged to receive user input identifying an area in an image, the area being identified by a set of coordinates (16, 17), the set of coordinates being associated with color information, and user input identifying a light source, - a processing unit arranged to link said light source with said set of coordinates; and - a transmitter arranged to transmit said color information associated with said set of coordinates to said light source, characterized in that said processing unit is arranged to determine said color information from a mean value or a pixel histogram of pixel values associated with said set of coordinates. - a user interface (11, 11a, 1b) arranged to receive user input identifying an area in an image, the area being identified by a set of coordinates (16, 17), the set of coordinates being associated with color information, and user input identifying a light source, - a processing unit arranged to link said light source with said set of coordinates; and - a transmitter arranged to transmit said color information associated with said set of coordinates to said light source,
Method for transmitting signals over a power line network, wherein within said power line network at least one transmitter and at least one receiver communicate via at least two channels, comprising: determining channel characteristics of said channels; investigating whether a signal-to-noise ratio, SNR, is below a certain threshold; if the signal-to-noise ratio, SNR, is below the threshold, selecting a bit error rate optimized multiple-input multiple-output coding scheme; if the signal-to-noise ratio, SNR, is above a certain threshold, determining whether a significant disturbance is present, in particular an impedance modulation and/or impulse noise, in the power line network; if yes, selecting a bit error rate optimized multiple-input multiple-output coding scheme; if no, selecting a throughput optimized multiple-input multiple-output coding scheme; informing the transmitter about the selection. determining channel characteristics of said channels; investigating whether a signal-to-noise ratio, SNR, is below a certain threshold; if the signal-to-noise ratio, SNR, is below the threshold, selecting a bit error rate optimized multiple-input multiple-output coding scheme; if the signal-to-noise ratio, SNR, is above a certain threshold, determining whether a significant disturbance is present, in particular an impedance modulation and/or impulse noise, in the power line network; if yes, selecting a bit error rate optimized multiple-input multiple-output coding scheme; if no, selecting a throughput optimized multiple-input multiple-output coding scheme; if yes, selecting a bit error rate optimized multiple-input multiple-output coding scheme; if no, selecting a throughput optimized multiple-input multiple-output coding scheme; informing the transmitter about the selection.
An aircraft environmental control system for controlling a temperature of a fluid, the control system comprising: a temperature sensor configured to measure a temperature of the fluid and to generate a first signal, the first signal being indicative of the measured temperature; a control signal generator configured to, using one or more control laws, using the first signal, generate a control signal for controlling the temperature of the fluid; a memory for storing performance data, the performance data including data selected from the group of data consisting of: one or more measured values of the temperature of the fluid, data indicative of the first signal, data indicative of a gain of the control signal generator, and data indicative of the control signal; a transmitter configured to transmit, from the aircraft environmental control system, for use by one or more entities remote from the aircraft environmental control system, the performance data; a receiver configured to receive, responsive to the transmitter transmitting the performance data, from the one or more entities remote from the aircraft environmental control system, update information; and an update module configured to, using the update information, update the one or more control laws. a temperature sensor configured to measure a temperature of the fluid and to generate a first signal, the first signal being indicative of the measured temperature; a control signal generator configured to, using one or more control laws, using the first signal, generate a control signal for controlling the temperature of the fluid; a memory for storing performance data, the performance data including data selected from the group of data consisting of: one or more measured values of the temperature of the fluid, data indicative of the first signal, data indicative of a gain of the control signal generator, and data indicative of the control signal; a transmitter configured to transmit, from the aircraft environmental control system, for use by one or more entities remote from the aircraft environmental control system, the performance data; a receiver configured to receive, responsive to the transmitter transmitting the performance data, from the one or more entities remote from the aircraft environmental control system, update information; and an update module configured to, using the update information, update the one or more control laws.
An apparatus for X-ray examination of a sample, the apparatus comprising: an X-ray generating system, comprising: an X-ray source for generating an original primary X-ray beam; an optical system comprising a first optical component and at least one second optical component which are movable relative to the X-ray source for selectively bringing the first optical component into interaction with the original primary X-ray beam, whereupon a first primary X-ray beam is generated which is deflected at a first deflection angle (α1), or bringing the second optical component into interaction with the original primary X-ray beam, whereupon a second primary X-ray beam is generated which is deflected at a second deflection angle (α2); and a rotating device having a rotating stage on which the X-ray generating system is mounted for selectively rotating the X-ray generating system through a first angle of rotation (β1) or a second angle of rotation (β2) about a rotating stage axis to selectively cause the first primary X-ray beam or the second primary X-ray beam to impinge on a sample region. an X-ray generating system, comprising: an X-ray source for generating an original primary X-ray beam; an optical system comprising a first optical component and at least one second optical component which are movable relative to the X-ray source for selectively an X-ray source for generating an original primary X-ray beam; an optical system comprising a first optical component and at least one second optical component which are movable relative to the X-ray source for selectively bringing the first optical component into interaction with the original primary X-ray beam, whereupon a first primary X-ray beam is generated which is deflected at a first deflection angle (α1), or bringing the second optical component into interaction with the original primary X-ray beam, whereupon a second primary X-ray beam is generated which is deflected at a second deflection angle (α2); and a rotating device having a rotating stage on which the X-ray generating system is mounted for selectively rotating the X-ray generating system through a first angle of rotation (β1) or a second angle of rotation (β2) about a rotating stage axis to selectively cause the first primary X-ray beam or the second primary X-ray beam to impinge on a sample region.
Rotary slide valve for use in the automotive field, in a housing comprising at least one fluid inlet (4, 6) and at least one fluid outlet (8, 10), wherein a rotary slide member is rotatably mounted in the housing, having at least one passage opening (16, 18) via which the at least one fluid inlet (4, 6) can be fluidically connected to the at least one fluid outlet (8, 10), and wherein a drive device is provided, wherein the drive device drives the rotary slide member in the circumferential direction via coupling means, the housing being closed by a pot-shaped cover part, a pot bottom part extending into the housing and being connected to a pot edge section via a pot cylinder part, said pot edge section resting against the housing, a stator element of the drive device being provided on the inside of the pot cylinder part and a rotor element of the drive device being provided on the outside of the pot cylinder part, and wherein the rotor element is operatively connected to the rotary slide member via the coupling means, characterized in that the coupling means consist of a toothed gear, the toothed gear is designed as a strain wave gear, the rotor element being designed, for example, as a strain wave generator with a preferably elliptical circumferential shape deviating from a circular shape, on which generator a flexible gear wheel (30, 48) is provided as a flexspline with external toothing.
A condenser for an air-conditioning system, in particular of a vehicle, with a finned tube block and laterally arranged header tubes (3, 4), wherein the finned tube block has horizontally running tubes, a condensing section (P1 to P5) and a supercooling section arranged above the condensing section, as well as with a collector arranged parallel to one of the header tubes, wherein the collector accommodates a dryer-filter insert and an ascending flow pipe, wherein the collector is in refrigerant connection to the condensing section via a first overflow opening and to the supercooling section via a second overflow opening, characterised in that a downward flow pipe (19, 21) having a pipe end on the inlet side connected to the first overflow opening is arranged inside the collector.
A method for managing threshold pair change, comprising: determining a radio link monitor, RLM, reference signal In-Sync indication, IS/Out-Of-Sync indication, OOS, monitoring threshold; and in response to that the RLM reference signal IS/OOS monitoring threshold changes, managing an IS counter, an OOS counter, and a radio link failure, RLF timer respectively, based on a current state of the RLF timer and a change of an IS/OOS threshold pair; wherein the managing the IS counter, the OOS counter, and the radio link failure, RLF timer respectively comprises: in a case that the RLF timer is not running and the IS/OOS threshold pair is configured from a low threshold pair to a high threshold pair, resetting the OOS counter to zero, and continuing counting by using a threshold pair criterion after the change; and in a case that the RLF timer is not running and the IS/OOS threshold pair is configured from a high threshold pair to a low threshold pair, resetting the OOS counter to zero, and recounting by using a threshold pair criterion after the change; wherein a threshold pair with a stricter channel quality requirement criterion is the high threshold pair, and a threshold pair with a lower channel quality requirement criterion is the low threshold pair. determining a radio link monitor, RLM, reference signal In-Sync indication, IS/Out-Of-Sync indication, OOS, monitoring threshold; and in response to that the RLM reference signal IS/OOS monitoring threshold changes, managing an IS counter, an OOS counter, and a radio link failure, RLF timer respectively, based on a current state of the RLF timer and a change of an IS/OOS threshold pair; wherein the managing the IS counter, the OOS counter, and the radio link failure, RLF timer respectively comprises: in a case that the RLF timer is not running and the IS/OOS threshold pair is configured from a low threshold pair to a high threshold pair, resetting the OOS counter to zero, and continuing counting by using a threshold pair criterion after the change; and in a case that the RLF timer is not running and the IS/OOS threshold pair is configured from a high threshold pair to a low threshold pair, resetting the OOS counter to zero, and recounting by using a threshold pair criterion after the change; wherein a threshold pair with a stricter channel quality requirement criterion is the high threshold pair, and a threshold pair with a lower channel quality requirement criterion is the low threshold pair. in a case that the RLF timer is not running and the IS/OOS threshold pair is configured from a low threshold pair to a high threshold pair, resetting the OOS counter to zero, and continuing counting by using a threshold pair criterion after the change; and in a case that the RLF timer is not running and the IS/OOS threshold pair is configured from a high threshold pair to a low threshold pair, resetting the OOS counter to zero, and recounting by using a threshold pair criterion after the change; wherein a threshold pair with a stricter channel quality requirement criterion is the high threshold pair, and a threshold pair with a lower channel quality requirement criterion is the low threshold pair.
Induction cooking appliance apparatus, in particular induction oven apparatus, with at least one induction heating unit (12a-b), which has at least one induction heating line element (14a-b), wherein the induction heating line element (14a-b) has at least one buffer region (16a-b) which is provided to at least partially compensate at least one thermal change in extent of the induction heating line element (14a-b), characterised in that, in the buffer region (16a-b), the induction heating line element (14a-b) has at least one subsection (24a-b) which protrudes out from at least one extent plane spanned by at least a majority of the induction heating line element (14a-b).
A medical device (10, 110, 210, 310, 410), comprising: a flexible hollow tube (20, 120, 220, 320, 420, 520, 620, 720, 820, 920, 1020, 1120, 1220, 1320, 1420, 1520) extending from a proximal end (24, 124, 324) to a distal end (22, 122, 322, 422, 1522) and defining a channel (26, 126, 326) therebetween, at least one opening (28, 128, 328) being defined in a distal portion of the tube; a flexible member (40, 140, 240, 340, 440) having an initial position disposed alongside the tube and being deployable to a subsequent position, the flexible member being configured to be deployable to automatically assume a shape of a greater curvature of a stomach; and a reusable portion having a first tank including a fluid, a second tank for receiving material, and a third tank communicating with atmospheric pressure, the reusable portion having a first valve, a second valve, and a third valve, the first valve connected to a pressure line leading to the flexible hollow tube via the first tank, the second valve connected to a vacuum line leading to the flexible hollow tube via the second tank, the third valve connected to an atmospheric line leading to the flexible hollow tube via the third tank, the first valve and the second valve each having a first position ('A'), a second position ('B'), and a third position ('C'), the channel being delivered with pressurized fluid when the first valve and the second valve are moved to the first position.
An autonomous power supply system for supplying electric power generated by a power generation element to a loading device, comprising: a generation control circuit which controls power generation efficiency of the power generation element; a storage element group (C1 to C6) which is charged with the electric power generated by the power generation element; and a charging control circuit which controls a charging operation and a discharging operation of the storage element group, characterized in that the storage element group includes a primary storage element for supplying electric power to the generation control circuit and the charging control circuit, and a secondary storage element (7; C2 to C5) for supplying electric power to the loading device; and the primary storage element is charged with the electric power generated by the power generation element preferentially, and subsequently, the secondary storage element is charged. a generation control circuit which controls power generation efficiency of the power generation element; a storage element group (C1 to C6) which is charged with the electric power generated by the power generation element; and a charging control circuit which controls a charging operation and a discharging operation of the storage element group,
Method (1, 22) for analysing an image (16, 23, 43), comprising the following steps: - providing an artificial deep neural net (2, 24) pre-trained to classify images (16, 23, 43) into a hierarchical system of multiple hierarchical classes, - tuning the pre-trained neural net (2, 24) to generate an adapted neural net, - processing the image (16, 23, 43) at least by means of a forward pass through the adapted neural net to generate a processing result (7, 20), wherein - in the above tuning-step tuning the pre-trained neural net (2, 24) for one specific class of the multiple hierarchical classes by providing to the pre-trained neural net (2, 24) training data that is labelled with the specific class, wherein the specific class is lower in the hierarchical system than an actual class of the image (16, 23, 43), wherein before the pre-trained neural net (2, 24) is adapted, it is used to process the image (16, 23, 43) to obtain a predicted class for the image (16, 23, 43), wherein the specific class for adapting the pre-trained neural net (2, 24) is set lower in the hierarchical system than the predicted class and - analysing the processing result (7, 20) focused on features corresponding to the specific class using a pixel-based operations image processing algorithm. - providing an artificial deep neural net (2, 24) pre-trained to classify images (16, 23, 43) into a hierarchical system of multiple hierarchical classes, - tuning the pre-trained neural net (2, 24) to generate an adapted neural net, - processing the image (16, 23, 43) at least by means of a forward pass through the adapted neural net to generate a processing result (7, 20), wherein - in the above tuning-step tuning the pre-trained neural net (2, 24) for one specific class of the multiple hierarchical classes by providing to the pre-trained neural net (2, 24) training data that is labelled with the specific class, wherein the specific class is lower in the hierarchical system than an actual class of the image (16, 23, 43), wherein before the pre-trained neural net (2, 24) is adapted, it is used to process the image (16, 23, 43) to obtain a predicted class for the image (16, 23, 43), wherein the specific class for adapting the pre-trained neural net (2, 24) is set lower in the hierarchical system than the predicted class and - analysing the processing result (7, 20) focused on features corresponding to the specific class using a pixel-based operations image processing algorithm.