mhurhangee/patent-ind-claim-en huggingface dataset:
An interconnecting module configured to be mounted in a High-Performance Computing cabinet , thereafter HPC cabinet , in order to interconnect a plurality of computing units (A1-A4) located in the HPC cabinet , the interconnecting module comprising: • A chassis configured to be mounted horizontally within housings (H1-H4) defined in the computing units (A1-A4), • A plurality of connection units (M1-M4) spaced vertically, each connection unit (M1-M4) being configured to be connected to a motherboard of a computing unit (A1-A4), the connection units (M1-M4) being interconnected, • Each connection unit (M1-M4) comprising at least a fastening member (51-54) configured to cooperate with a housing (H1-H4) of a computing unit (A1-A4) • At least a vertical rack cooperating with all the fastening members (51-54) and at least a main lever mounted pivotally on the chassis , the main lever being configured to move the vertical rack vertically in order to engage/disengage all the fastening members (51-54) simultaneously. • A chassis configured to be mounted horizontally within housings (H1-H4) defined in the computing units (A1-A4), • A plurality of connection units (M1-M4) spaced vertically, each connection unit (M1-M4) being configured to be connected to a motherboard of a computing unit (A1-A4), the connection units (M1-M4) being interconnected, • Each connection unit (M1-M4) comprising at least a fastening member (51-54) configured to cooperate with a housing (H1-H4) of a computing unit (A1-A4) • At least a vertical rack cooperating with all the fastening members (51-54) and at least a main lever mounted pivotally on the chassis , the main lever being configured to move the vertical rack vertically in order to engage/disengage all the fastening members (51-54) simultaneously.
Cantilevered folding gate , comprising: - a column ; - a first gate leaf which is hingedly connected to the column ; - a second gate leaf which is hingedly connected to the first gate leaf ; - drive means designed to drive the first gate leaf ; - a transmission mechanism comprising a housing and designed to transmit the movement of the first gate leaf to the second leaf so that the first and second gate leaf open or close simultaneously by folding, wherein said transmission mechanism is substantially accommodated in said housing which is detachably connected to the first gate leaf, in which the transmission mechanism comprises a first rotatable element and a second rotatable element between which a transmission means is provided and furthermore comprises a first and second entrainment member which are respectively designed to connect the first rotatable element to the column and to connect the second rotatable element to the second gate leaf , wherein the column comprises a first retaining unit which is designed to accommodate an end of the first entrainment member so that the first rotatable element , in use, cannot rotate with respect to the column , wherein the second gate leaf comprises a second retaining unit which is designed to accommodate an end of the second entrainment member so that the second rotatable element , in use, cannot rotate with respect to the second gate leaf , wherein said first rotatable element is an element which is connected to the column and which is provided with a toothing along at least part of its outer periphery, and wherein the second rotatable element which is connected to the second gate leaf is provided with a toothing along at least part of its outer periphery, wherein the transmission means is designed to carry out a translational movement relative to the first leaf and is provided with a toothing at both its ends (9 and 10), with one end being designed to roll over the teeth of the first rotatable element and with the teeth of the other end meshing with the teeth of the second rotatable element . - a column ; - a first gate leaf which is hingedly connected to the column ; - a second gate leaf which is hingedly connected to the first gate leaf ; - drive means designed to drive the first gate leaf ; - a transmission mechanism comprising a housing and designed to transmit the movement of the first gate leaf to the second leaf so that the first and second gate leaf open or close simultaneously by folding,
An image processing device comprising: a receiving section configured to receive a bitstream including base layer encoded data and enhancement layer encoded data obtained by encoding base layer image information and enhancement layer image information of an image having a base layer and an enhancement layer, wherein the enhancement layer encoded data includes a flag in a video parameter set, VPS; a layer image decoding section , which includes a base layer image decoding section (201-1), which is an image decoding section corresponding to the base layer, and is configured to acquire the encoded base layer data, decode the encoded base layer data, and output the decoded base layer image information, and wherein the layer image decoding section also includes an enhancement layer image decoding section (201-2), which is an image decoding section corresponding to the enhancement layer, and is configured to acquire the encoded enhancement layer data including the flag, wherein the flag indicates that an HRD parameter for managing a decoder buffer is one of an HRD parameter only to be used for a decoding process of the enhancement layer and an HRD parameter to be used for performing a decoding process of the enhancement layer and the base layer which is to be combined with the enhancement layer, and wherein the enhancement layer image decoding section is configured to perform a decoding process of the encoded enhancement layer data in accordance with the acquired flag, and output the decoded enhancement layer image information. a receiving section configured to receive a bitstream including base layer encoded data and enhancement layer encoded data obtained by encoding base layer image information and enhancement layer image information of an image having a base layer and an enhancement layer, wherein the enhancement layer encoded data includes a flag in a video parameter set, VPS; a layer image decoding section , which includes a base layer image decoding section (201-1), which is an image decoding section corresponding to the base layer, and is configured to acquire the encoded base layer data, decode the encoded base layer data, and output the decoded base layer image information, and wherein the layer image decoding section also includes an enhancement layer image decoding section (201-2), which is an image decoding section corresponding to the enhancement layer, and is configured to acquire the encoded enhancement layer data including the flag, wherein the flag indicates that an HRD parameter for managing a decoder buffer is one of an HRD parameter only to be used for a decoding process of the enhancement layer and an HRD parameter to be used for performing a decoding process of the enhancement layer and the base layer which is to be combined with the enhancement layer, and wherein the enhancement layer image decoding section is configured to perform a decoding process of the encoded enhancement layer data in accordance with the acquired flag, and output the decoded enhancement layer image information.
A method for providing a video service by a terminal which includes a transceiver, a sensor, a display, and a processor, the method comprising: requesting, at the transceiver to a server, to transmit first video data using a maximum available bandwidth; receiving, at the transceiver from the server, the first video data using the maximum available bandwidth; detecting, at the sensor, an event for requesting second video data while outputting, at the display, the first video data; determining, by the processor, a first bandwidth for the first video data and a second bandwidth for the second video data within the maximum available bandwidth so that the first video data and the second video data have differential image qualities; requesting, at the transceiver to the server, to transmit the first video data in the first bandwidth and to transmit the second video data in the second bandwidth; receiving, at the transceiver from the server, the first video data in the first bandwidth and the second video data in the second bandwidth, outputting, by the display, the first video data on an entire screen of the display and the second video data on a part of the screen of the display; determining, by the sensor, content interest information on video data; and adjusting, by the processor, the first bandwidth and the second bandwidth within the maximum available bandwidth so that one of the first video data and the second video data, which is chosen as the content interest information, is outputted in high quality. requesting, at the transceiver to a server, to transmit first video data using a maximum available bandwidth; receiving, at the transceiver from the server, the first video data using the maximum available bandwidth; detecting, at the sensor, an event for requesting second video data while outputting, at the display, the first video data; determining, by the processor, a first bandwidth for the first video data and a second bandwidth for the second video data within the maximum available bandwidth so that the first video data and the second video data have differential image qualities; requesting, at the transceiver to the server, to transmit the first video data in the first bandwidth and to transmit the second video data in the second bandwidth; receiving, at the transceiver from the server, the first video data in the first bandwidth and the second video data in the second bandwidth, outputting, by the display, the first video data on an entire screen of the display and the second video data on a part of the screen of the display; determining, by the sensor, content interest information on video data; and adjusting, by the processor, the first bandwidth and the second bandwidth within the maximum available bandwidth so that one of the first video data and the second video data, which is chosen as the content interest information, is outputted in high quality.
A method of measuring an analyte in a sample , the method comprises the steps of: - applying an electrical analysis signal (160; 260; 360) to the sample during a measurement time interval (MT), wherein the electrical analysis signal (160; 260; 360), when transferred into a frequency space, comprises a superposition of two or more non-zero frequency components (c1, c2, c3) at least at a sampling time (t1, t2), - measuring of at least one electrical response signal (170; 270; 370) from the sample , - analyzing the electrical response signal (170; 270; 370) and determining an amount of the analyte in the sample on the basis of the analysis of the electrical response signal (170; 270; 370), characterized in that the electrical analysis signal comprises a noise signal comprising one of a white noise frequency spectrum, a pink noise frequency spectrum, a red noise frequency spectrum, a blue noise frequency spectrum, a violet noise frequency spectrum and a grey noise frequency spectrum. - applying an electrical analysis signal (160; 260; 360) to the sample during a measurement time interval (MT), wherein the electrical analysis signal (160; 260; 360), when transferred into a frequency space, comprises a superposition of two or more non-zero frequency components (c1, c2, c3) at least at a sampling time (t1, t2), - measuring of at least one electrical response signal (170; 270; 370) from the sample , - analyzing the electrical response signal (170; 270; 370) and determining an amount of the analyte in the sample on the basis of the analysis of the electrical response signal (170; 270; 370), characterized in that the electrical analysis signal comprises a noise signal comprising one of a white noise frequency spectrum, a pink noise frequency spectrum, a red noise frequency spectrum, a blue noise frequency spectrum, a violet noise frequency spectrum and a grey noise frequency spectrum.
A device for penetration of a biological barrier, the device comprising a flexible substrate having a first side and a second opposing side, the device further comprising a plurality of micropenetrator arrangements each comprising a head and a first and second projection for penetrating a biological barrier extending from the head, wherein the first and second projection at least partially extend through the flexible substrate towards the first side, wherein the head comprises an elongate arm spacing apart the first and second projections, characterised in that a first and second adjacent micropenetrator arrangement are independent of each other.
An image processing apparatus comprising: an input unit for inputting an input signal; a frame memory for frame-delaying the input signal input by the input unit and outputting the input signal as a delayed input signal; a motion vector detector for detecting a motion vector between frames based on the input signal input by the input unit and the delayed input signal; a screen edge detector for detecting a pixel corresponding to a screen edge in the input signal input by the input unit ; an interpolation frame generator for generating an interpolation frame from the input signal input by the input unit and the delayed input signal, based on motion vectors detected by the motion vector detector and pixels corresponding to the screen edge detected by the screen edge detector , and a black region detector for detecting a black region within an effective pixel region in the input signal input by the input unit, wherein when the black region detector detects a black region, the screen edge detector detects, as a pixel corresponding to a screen edge, a pixel located at an outermost edge of the screen inside with respect to the black region, and wherein when the motion vector detected by the motion vector detector points a pixel located outside with respect to the pixel corresponding to the screen edge detected by the screen edge detector , the interpolation frame generator generates the interpolation frame using the pixel corresponding to the screen edge. an input unit for inputting an input signal; a frame memory for frame-delaying the input signal input by the input unit and outputting the input signal as a delayed input signal; a motion vector detector for detecting a motion vector between frames based on the input signal input by the input unit and the delayed input signal; a screen edge detector for detecting a pixel corresponding to a screen edge in the input signal input by the input unit ; an interpolation frame generator for generating an interpolation frame from the input signal input by the input unit and the delayed input signal, based on motion vectors detected by the motion vector detector and pixels corresponding to the screen edge detected by the screen edge detector , and a black region detector for detecting a black region within an effective pixel region in the input signal input by the input unit, wherein when the black region detector detects a black region, the screen edge detector detects, as a pixel corresponding to a screen edge, a pixel located at an outermost edge of the screen inside with respect to the black region, and wherein when the motion vector detected by the motion vector detector points a pixel located outside with respect to the pixel corresponding to the screen edge detected by the screen edge detector , the interpolation frame generator generates the interpolation frame using the pixel corresponding to the screen edge.
A control method of an input device comprising a touch panel , the control method comprising: displaying a graphical user interface, GUI , on the touch panel; receiving a user touch input through the GUI; dividing a recognition area corresponding to the touch panel area into a plurality of cell areas forming a cell coordinate system in which touch points are associated with cell areas; characterized in that the method further comprises the step of: determining a touch point as the adjusted position of the received touch input on the touch panel based on the cell area receiving the touch input, wherein the adjustment is determined by non-uniformly dividing at least part of the plurality of cell areas such that the parts of the recognition area associated with the cell areas are based on the distance between a position of a user grip on the touch panel and the position of the received user touch input. displaying a graphical user interface, GUI , on the touch panel; receiving a user touch input through the GUI; dividing a recognition area corresponding to the touch panel area into a plurality of cell areas forming a cell coordinate system in which touch points are associated with cell areas; characterized in that the method further comprises the step of: determining a touch point as the adjusted position of the received touch input on the touch panel based on the cell area receiving the touch input, wherein the adjustment is determined by non-uniformly dividing at least part of the plurality of cell areas such that the parts of the recognition area associated with the cell areas are based on the distance between a position of a user grip on the touch panel and the position of the received user touch input.
A method of a network entity, the method comprising: receiving , from another network entity, a notification of an uplink direct current, DC, tone of a user equipment, UE; receiving , from the UE, one or more positioning signals; measuring one or more resources elements, REs, of the one or more positioning signals; applying weights to the one or more measured REs based on the uplink DC tone of the UE, wherein applying weights to the measured REs based on the DC tone of the UE comprises, if an RE is coincident with the uplink DC tone of the UE, applying a weight to the RE to deemphasize its contribution towards determining the positioning related measurement of the positioning signal; deriving positioning related measurements based on the one or more weighted measurements of REs; and transmitting the derived positioning related measurements to the network entity from which the notification of the DC tone was received. receiving , from another network entity, a notification of an uplink direct current, DC, tone of a user equipment, UE; receiving , from the UE, one or more positioning signals; measuring one or more resources elements, REs, of the one or more positioning signals; applying weights to the one or more measured REs based on the uplink DC tone of the UE, wherein applying weights to the measured REs based on the DC tone of the UE comprises, if an RE is coincident with the uplink DC tone of the UE, applying a weight to the RE to deemphasize its contribution towards determining the positioning related measurement of the positioning signal; deriving positioning related measurements based on the one or more weighted measurements of REs; and transmitting the derived positioning related measurements to the network entity from which the notification of the DC tone was received.
A bearing assembly , comprising: a support ring structure including: a support ring ; a plurality of superhard bearing elements distributed about an axis and attached to the support ring, each of the plurality of superhard bearing elements having a superhard material including a superhard bearing surface ; and a thermally-conductive structure in thermal communication with the plurality of superhard bearing elements, the thermally-conductive structure having a higher thermal conductivity than the support ring, characterised in that : the support ring includes a plurality of recesses that each hold one of the plurality of superhard bearing elements and an interior channel, at least a portion of the thermally-conductive structure is located within the interior channel of the support ring , and at least one of the plurality of superhard bearing elements is brazed to the support ring and the thermally-conductive structure. a support ring ; a plurality of superhard bearing elements distributed about an axis and attached to the support ring, each of the plurality of superhard bearing elements having a superhard material including a superhard bearing surface ; and a thermally-conductive structure in thermal communication with the plurality of superhard bearing elements, the thermally-conductive structure having a higher thermal conductivity than the support ring, characterised in that : the support ring includes a plurality of recesses that each hold one of the plurality of superhard bearing elements and an interior channel, at least a portion of the thermally-conductive structure is located within the interior channel of the support ring , and at least one of the plurality of superhard bearing elements is brazed to the support ring and the thermally-conductive structure.
A method of determining a precoder (W) for a radio transmission from a base station including two or more transmit antennas to a mobile device via a channel , the method comprising: measuring a channel state (H) of the channel and a channel noise characteristic (N) of the channel; selecting , based on a result of the measurement, a subset of precoders out of a codebook including a plurality of precoders, wherein the plurality of precoders included in the codebook is parameterized by a combination of a first parameter and a second parameter, wherein the first parameter specifies the subset of precoders, and the second parameter specifies one precoder in the subset specified by the first parameter, wherein the subset is selected based on a first objective function, wherein the first objective function is a function of the result of the measurement and the first parameter, wherein the first objective function is g(β, R) = Σ m,n r m,n e j(m-n)β , wherein the first parameter is denoted by β, and wherein a correlation, R, between the transmit antennas m and n or groups of the transmit antennas, is denoted by r m,n and depends on the result of the measurement; and determining a precoder for precoding the transmission out of the subset. measuring a channel state (H) of the channel and a channel noise characteristic (N) of the channel; selecting , based on a result of the measurement, a subset of precoders out of a codebook including a plurality of precoders, wherein the plurality of precoders included in the codebook is parameterized by a combination of a first parameter and a second parameter, wherein the first parameter specifies the subset of precoders, and the second parameter specifies one precoder in the subset specified by the first parameter, wherein the subset is selected based on a first objective function, wherein the first objective function is a function of the result of the measurement and the first parameter, wherein the first objective function is g(β, R) = Σ m,n r m,n e j(m-n)β , wherein the first parameter is denoted by β, and wherein a correlation, R, between the transmit antennas m and n or groups of the transmit antennas, is denoted by r m,n and depends on the result of the measurement; and determining a precoder for precoding the transmission out of the subset.