mhurhangee/ep-ind-claims huggingface dataset:
Method comprising: forming an audio payload frame from an encoded audio data frame; appending a first marker bit at the front of the encoded audio data frame, wherein the first marker bit is set to a first value, and wherein the first value denotes that the encoded audio data frame is encoded by core coding; adding an extension encoded audio data frame to the audio payload frame; and appending a second marker bit in front of the first marker bit, wherein the second marker bit is set to a second value; and wherein the second value denotes that the extension encoded audio data frame is encoded by extension coding forming an audio payload frame from an encoded audio data frame; appending a first marker bit at the front of the encoded audio data frame, wherein the first marker bit is set to a first value, and wherein the first value denotes that the encoded audio data frame is encoded by core coding; adding an extension encoded audio data frame to the audio payload frame; and appending a second marker bit in front of the first marker bit, wherein the second marker bit is set to a second value; and wherein the second value denotes that the extension encoded audio data frame is encoded by extension coding
Drain (50; 60; 80) comprising a tray with a bottom surface (51; 81), upright walls (52; 82) arranged along the periphery of the bottom surface and horizontal flanges (53; 83) arranged on the free edges of said upright walls (52; 82), wherein a flexible layer arrangement (55; 66; 84) is arranged on one of the horizontal flanges (53; 83), the flexible layer arrangement (55; 66; 84) comprising: - a flexible layer with a free end and an edge, the flexible layer arrangement (55; 66; 84) further comprising - a strip of flexible material extending parallel to the edge, which strip of flexible material is arranged with one of its ends on the flexible layer at a distance from the edge and which strip of flexible material has on its other end a free edge extending substantially as far as the edge of the flexible layer, such that with the flexible layer arrangement (55; 66; 84) a structure of Y-shaped cross-section is obtained, wherein the drain (50; 60; 80) further comprises a mounting plate (54; 64; 85) arranged to the free end of the flexible layer. - a flexible layer with a free end and an edge, the flexible layer arrangement (55; 66; 84) further comprising - a strip of flexible material extending parallel to the edge, which strip of flexible material is arranged with one of its ends on the flexible layer at a distance from the edge and which strip of flexible material has on its other end a free edge extending substantially as far as the edge of the flexible layer, such that with the flexible layer arrangement (55; 66; 84) a structure of Y-shaped cross-section is obtained,
A brewing module for preparing a brewed drink from a portion capsule, comprising: • a first brewing module part and a second brewing module part, the second brewing module part being movable relative to said first brewing module part between a first brewing module part position and a second brewing module part position, ∘ wherein a movement of the second brewing module part relative to the first brewing module part can be driven by a manual or motorised drive via a transmission mechanism, ∘ wherein, in the second brewing module part position, a brewing chamber is formed which during a brewing procedure at least partly surrounds the portion capsule situated in a brewing position, wherein the brewing module is configured to brew a brewed drink by way of introducing a brewing fluid into the portion capsule and to discharge said brewed drink out of the capsule; and • and a capsule recognition device with an optical sensor for detecting optical characteristics of the portion capsule located at a capsule recognition position, as well as with a window element of a transparent material between the capsule recognition position and the optical sensor, characterised by a mechanically driveable blowing device for producing an airflow, said blowing device being arranged to produce an airflow at the side of the window element towards the capsule recognition position by way of it being driven by a relative movement of elements of the brewing module, said relative movement being produced by the drive or the transmission mechanism. • a first brewing module part and a second brewing module part, the second brewing module part being movable relative to said first brewing module part between a first brewing module part position and a second brewing module part position, ∘ wherein a movement of the second brewing module part relative to the first brewing module part can be driven by a manual or motorised drive via a transmission mechanism, ∘ wherein, in the second brewing module part position, a brewing chamber is formed which during a brewing procedure at least partly surrounds the portion capsule situated in a brewing position, wherein the brewing module is configured to brew a brewed drink by way of introducing a brewing fluid into the portion capsule and to discharge said brewed drink out of the capsule; and ∘ wherein a movement of the second brewing module part relative to the first brewing module part can be driven by a manual or motorised drive via a transmission mechanism, ∘ wherein, in the second brewing module part position, a brewing chamber is formed which during a brewing procedure at least partly surrounds the portion capsule situated in a brewing position, wherein the brewing module is configured to brew a brewed drink by way of introducing a brewing fluid into the portion capsule and to discharge said brewed drink out of the capsule; and • and a capsule recognition device with an optical sensor for detecting optical characteristics of the portion capsule located at a capsule recognition position, as well as with a window element of a transparent material between the capsule recognition position and the optical sensor,
A method of characterizing a stress profile of a chemically strengthened glass substrate formed by diffusion of alkali ions and having an upper surface and a body, a shallow spike region of stress immediately adjacent the upper surface and a deep region of slowly varying stress within the body and that intersects the spike region at a knee, wherein the method comprises: measuring a TM mode spectrum and a TE mode spectrum of the glass substrate, wherein the TM mode spectrum and the TE mode spectrum each include mode lines and a transition that corresponds to a critical angle; determining a surface compressive stress CS sp of the spike using either at least one of the TM and TE mode spectra or a measurement of a surface concentration of at least one type of alkali ion that resides adjacent the surface; calculating a depth of layer DOL sp of the spike using the modes lines of at least one of the TM and TE spectra and including using a distance between the transition region and the most adjacent mode line to the transition region to obtain a non-integer mode count, measuring a difference between the TE and TM transition locations to determine an amount of birefringence BR, wherein BR is given by: BR = n LM TE − n LM TM where n LM TE is the effective index of a highest-common-order TE spike mode, n LM TM is the effective index of a highest-common-order TM spike mode; and calculating a knee stress as CS k using the equation: CS k = K 3 × BR/SOC where SOC is the stress-optic coefficient, and K 3 is a calibration factor that is in the range between 0.2 and 2. measuring a TM mode spectrum and a TE mode spectrum of the glass substrate, wherein the TM mode spectrum and the TE mode spectrum each include mode lines and a transition that corresponds to a critical angle; determining a surface compressive stress CS sp of the spike using either at least one of the TM and TE mode spectra or a measurement of a surface concentration of at least one type of alkali ion that resides adjacent the surface; calculating a depth of layer DOL sp of the spike using the modes lines of at least one of the TM and TE spectra and including using a distance between the transition region and the most adjacent mode line to the transition region to obtain a non-integer mode count, measuring a difference between the TE and TM transition locations to determine an amount of birefringence BR, wherein BR is given by: BR = n LM TE − n LM TM where n LM TE is the effective index of a highest-common-order TE spike mode, n LM TM is the effective index of a highest-common-order TM spike mode; and calculating a knee stress as CS k using the equation: CS k = K 3 × BR/SOC where SOC is the stress-optic coefficient, and K 3 is a calibration factor that is in the range between 0.2 and 2.
A power consumption control method, wherein the method comprises: detecting, by a terminal device, a screen state and data traffic of the terminal device; and switching the terminal device from a normal working mode to a low power mode when the screen state is a screen-off state and the data traffic is less than or equal to a preset traffic threshold; wherein in the low power mode, the terminal device does not receive downlink data, and a current in a radio frequency path of the terminal device drops to a preset current, the preset current being less than a current value of the radio frequency path in the normal working mode, characterized in that in the low power mode, the terminal device turns off radio frequency of the radio frequency path after completing receiving of downlink control information, DCI, within each transmission time interval, TTI, and before a DCI parsing is completed, wherein the DCI is used to indicate whether downlink data needs to be received, wherein when a result of the DCI parsing indicates that no downlink data needs to be transmitted, the terminal device remains in the low power mode, and when a result of the DCI parsing indicates that downlink data needs to be transmitted, the terminal device switches from the low power mode back to the normal working mode to receive the downlink data. detecting, by a terminal device, a screen state and data traffic of the terminal device; and switching the terminal device from a normal working mode to a low power mode when the screen state is a screen-off state and the data traffic is less than or equal to a preset traffic threshold; wherein in the low power mode, the terminal device does not receive downlink data, and a current in a radio frequency path of the terminal device drops to a preset current, the preset current being less than a current value of the radio frequency path in the normal working mode, characterized in that in the low power mode, the terminal device turns off radio frequency of the radio frequency path after completing receiving of downlink control information, DCI, within each transmission time interval, TTI, and before a DCI parsing is completed, wherein the DCI is used to indicate whether downlink data needs to be received, wherein when a result of the DCI parsing indicates that no downlink data needs to be transmitted, the terminal device remains in the low power mode, and when a result of the DCI parsing indicates that downlink data needs to be transmitted, the terminal device switches from the low power mode back to the normal working mode to receive the downlink data.
A process to make a core rod for preforms, wherein there is provided - a core rod having an external moulding surface being a shaping surface of an internal surface of a preform and comprising a neck shaping portion and a body shaping portion, the body shaping portion having first diametrical dimensions, - a metallic compound, - depositing means to deposit said metallic compound onto the core rod, and - chip removal means, the process comprising the steps of: a) removing an outer layer of a predetermined first thickness from the body shaping portion by means of the chip removal means to obtain an intermediate surface; b) depositing a layer of said metallic compound of a second thickness greater than said first thickness onto the intermediate surface, c) performing a surface finishing operation to remove an excess of coating material and/or to bring the coated surface to a predetermined superficial roughness, whereby the body shaping portion is provided with a coating of said metallic compound so that the core rod has a final body shaping portion with second diametrical dimensions greater than said first diametrical dimensions. - a core rod having an external moulding surface being a shaping surface of an internal surface of a preform and comprising a neck shaping portion and a body shaping portion, the body shaping portion having first diametrical dimensions, - a metallic compound, - depositing means to deposit said metallic compound onto the core rod, and - chip removal means, a) removing an outer layer of a predetermined first thickness from the body shaping portion by means of the chip removal means to obtain an intermediate surface; b) depositing a layer of said metallic compound of a second thickness greater than said first thickness onto the intermediate surface, c) performing a surface finishing operation to remove an excess of coating material and/or to bring the coated surface to a predetermined superficial roughness, whereby the body shaping portion is provided with a coating of said metallic compound so that the core rod has a final body shaping portion with second diametrical dimensions greater than said first diametrical dimensions.
A computer program enabling the computer to perform a method comprising: specifying (S22, S26) a note to be sounded according to a performance operation by a user; generating one or more notes automatically in addition to said note specified according to said performance operation; and assigning plural parts to the note specified in the specifying (S22, S26) and the one or more notes generated in the generating, according to pitches of the specified note and the generated notes, each of the plural parts being associated with a predetermined respectively different timbre. specifying (S22, S26) a note to be sounded according to a performance operation by a user; generating one or more notes automatically in addition to said note specified according to said performance operation; and assigning plural parts to the note specified in the specifying (S22, S26) and the one or more notes generated in the generating, according to pitches of the specified note and the generated notes, each of the plural parts being associated with a predetermined respectively different timbre.
A bitstream of coded video data, comprising: data of one or more sub-pictures partitioned from a picture, wherein a first sub-picture of the one or more sub-pictures comprises a sub-picture width that is not an integer multiple of a coding tree unit, CTU, size when the first sub-picture includes a right boundary that coincides with the right boundary of the picture; a sequence parameter set, SPS, characterized in that wherein the SPS comprises a sub-picture identifier, ID, a sub-picture size and a sub-picture location for each of the one or more sub-pictures partitioned from the picture; and wherein the SPS further comprises subpic_id_len_minus1, wherein the subpic_id_len_minus1 plus 1 specifies the number of bits used to represent the sub-picture IDs in the SPS. data of one or more sub-pictures partitioned from a picture, wherein a first sub-picture of the one or more sub-pictures comprises a sub-picture width that is not an integer multiple of a coding tree unit, CTU, size when the first sub-picture includes a right boundary that coincides with the right boundary of the picture; a sequence parameter set, SPS, characterized in that wherein the SPS comprises a sub-picture identifier, ID, a sub-picture size and a sub-picture location for each of the one or more sub-pictures partitioned from the picture; and wherein the SPS further comprises subpic_id_len_minus1, wherein the subpic_id_len_minus1 plus 1 specifies the number of bits used to represent the sub-picture IDs in the SPS.
Duplex printing machine having a minimum of two printing units (2, 3, 4) and a digitally controllable imaging unit associated with every printing unit, wherein every imaging unit has an impression cylinder (10.1, 10.2, 10.3) and wherein the printing units (2, 3, 4) are disposed behind one another and have a reversing device (19; 29) and a returning device for returning the reversed sheet to the first impression cylinder (10.1), characterized in that triple-size transfer drums having three rows of grippers for transporting sheets or two respective transfer drums (14, 16, 17, 18) disposed to be parallel are disposed between the impression cylinders ( 10.2, 10.3, 10.4).
Gearbox sensor connection system for connecting and making contact with a sensor which is positioned within a gearbox 1.1 having a sensor receptacle for receiving and positioning the sensor within the gear box; having a sensor line, a sensor line duct and a flexible hose or a plastically deformable pipeline; 1.2 having a housing feedthrough for feeding through the, in particular flexible, sensor line which is connected to the sensor, through a housing of the gearbox; surrounding a gearbox interior of the gearbox; 1.3 having a housing seal for sealing the housing feedthrough with respect to the housing; wherein 1.4 the sensor receptacle is connected to the housing feedthrough via the sensor pipe duct, the sensor pipe duct has an interior for receiving the sensor line, and a seal is provided for oil-tight sealing of the interior with respect to the gearbox interior; wherein 1.5 the sensor line is detachably connected to the sensor line duct in the region of the housing feedthrough by means of a plug-type connection or by means of a screw-type connection, and 1.6 in that the sensor line duct comprises at least one first pipe bend or one pipe element in the region of the housing feedthrough and at least one second pipe bend or one pipe element in the region of the sensor receptacle, wherein the first pipe bend or the pipe element is connected to the second pipe bend or the pipe element via the flexible hose or the plastically deformable pipe line in order to form the sensor line duct. 1.1 having a sensor receptacle for receiving and positioning the sensor within the gear box; having a sensor line, a sensor line duct and a flexible hose or a plastically deformable pipeline; 1.2 having a housing feedthrough for feeding through the, in particular flexible, sensor line which is connected to the sensor, through a housing of the gearbox; surrounding a gearbox interior of the gearbox; 1.3 having a housing seal for sealing the housing feedthrough with respect to the housing; wherein 1.4 the sensor receptacle is connected to the housing feedthrough via the sensor pipe duct, the sensor pipe duct has an interior for receiving the sensor line, and a seal is provided for oil-tight sealing of the interior with respect to the gearbox interior; wherein 1.5 the sensor line is detachably connected to the sensor line duct in the region of the housing feedthrough by means of a plug-type connection or by means of a screw-type connection, and 1.6 in that the sensor line duct comprises at least one first pipe bend or one pipe element in the region of the housing feedthrough and at least one second pipe bend or one pipe element in the region of the sensor receptacle, wherein the first pipe bend or the pipe element is connected to the second pipe bend or the pipe element via the flexible hose or the plastically deformable pipe line in order to form the sensor line duct.
A pole-type base station comprising: a support (210; 300) including one or more connectors (225, 235, 245) and configured to perform support; and at least one communication module having an arbitrary shape and configured to perform communication according to at least one communication type, the communication module being mounted at an arbitrary position of the support to be connected to the one or more connectors; an air flow path for emitting heat formed between the support and the at least one communication module, the air flow path being formed as an empty space between the support and the at least one communication module; and a fan for generating air flow for dissipating heat through the air flow path, wherein the fan is included in a lower end portion located at a lowermost end of the support, wherein the at least one communication module forms an outer side of the pole-type base station. a support (210; 300) including one or more connectors (225, 235, 245) and configured to perform support; and at least one communication module having an arbitrary shape and configured to perform communication according to at least one communication type, the communication module being mounted at an arbitrary position of the support to be connected to the one or more connectors; an air flow path for emitting heat formed between the support and the at least one communication module, the air flow path being formed as an empty space between the support and the at least one communication module; and a fan for generating air flow for dissipating heat through the air flow path, wherein the fan is included in a lower end portion located at a lowermost end of the support, wherein the at least one communication module forms an outer side of the pole-type base station.
A method of making an electret article, which method comprises: (a) providing a polymeric article to be charged; and (b) contacting the polymeric article to be charged with an aqueous liquid that has a pH and conductivity as follows: (i) if the article has a zeta potential of -7.5 mV or less, then the contacting liquid has pH greater than 7 and a conductivity of about 5 to 9,000 microSiemens per centimeter; and (ii) if the article has a zeta potential of greater than -7.5 mV, then the contacting liquid has a pH of 7 or less and a conductivity of about 5 to 5,500 microSiemens per centimeter; and (c) drying the article. (a) providing a polymeric article to be charged; and (b) contacting the polymeric article to be charged with an aqueous liquid that has a pH and conductivity as follows: (i) if the article has a zeta potential of -7.5 mV or less, then the contacting liquid has pH greater than 7 and a conductivity of about 5 to 9,000 microSiemens per centimeter; and (ii) if the article has a zeta potential of greater than -7.5 mV, then the contacting liquid has a pH of 7 or less and a conductivity of about 5 to 5,500 microSiemens per centimeter; and (i) if the article has a zeta potential of -7.5 mV or less, then the contacting liquid has pH greater than 7 and a conductivity of about 5 to 9,000 microSiemens per centimeter; and (ii) if the article has a zeta potential of greater than -7.5 mV, then the contacting liquid has a pH of 7 or less and a conductivity of about 5 to 5,500 microSiemens per centimeter; and (c) drying the article.
An annulus filler for bridging in use the space between two adjacent aerofoils of a gas turbine engine to define an inner wall of a flow annulus through the stage, the annulus filler having opposite side faces (22, 24) and an annulus filler lid, resilient seal strips (26, 28) each including a stiffener being mounted adjacent the opposite side faces of the annulus filler, wherein: the resilient seal strips comprise a bonding platform bonded to the annulus filler lid and a flap projecting from the bonding platform, the flap being arranged to contact a pressure surface or a suction surface of a respective aerofoil in use; the position of the flap relative to the bonding platform varies along the length of each seal strip; and the stiffener has three-dimensional curvature. the resilient seal strips comprise a bonding platform bonded to the annulus filler lid and a flap projecting from the bonding platform, the flap being arranged to contact a pressure surface or a suction surface of a respective aerofoil in use; the position of the flap relative to the bonding platform varies along the length of each seal strip; and the stiffener has three-dimensional curvature.