mhurhangee/ep-ind-claims huggingface dataset:
A method for encoding a video sequence and generating a bitstream comprising: setting an infer flag (sps_base_pred_scaling_list_flag) of a second sequence parameter sets, SPS, of a current layer equal to one when a scaling list data in the second SPS is inferred from a scaling list data in a first SPS of a reference layer indicated by a second syntax element (scaling_list_sps_pred_layer_idc) of the second SPS; generating the second syntax element (scaling_list_sps_pred_layer_idc) if the infer flag (sps_base_pred_scaling_list_flag) according to the second syntax element (scaling_list_sps_pred_layer_idc) is equal to 1; generating the bitstream including the infer flag (sps_base_pred_scaling_list_flag) and the second syntax element (scaling_list_sps_pred_layer_idc), wherein the method is further comprising: setting the infer flag (sps_base_pred_scaling_list_flag) equal to zero for the first SPS of a layer indicated by the second syntax element (scaling_list_sps_pred_layer_idc) of the second SPS in a case that the infer flag (sps_base_pred_scaling_list_flag) of the second SPS is equal to one. setting an infer flag (sps_base_pred_scaling_list_flag) of a second sequence parameter sets, SPS, of a current layer equal to one when a scaling list data in the second SPS is inferred from a scaling list data in a first SPS of a reference layer indicated by a second syntax element (scaling_list_sps_pred_layer_idc) of the second SPS; generating the second syntax element (scaling_list_sps_pred_layer_idc) if the infer flag (sps_base_pred_scaling_list_flag) according to the second syntax element (scaling_list_sps_pred_layer_idc) is equal to 1; generating the bitstream including the infer flag (sps_base_pred_scaling_list_flag) and the second syntax element (scaling_list_sps_pred_layer_idc), wherein the method is further comprising: setting the infer flag (sps_base_pred_scaling_list_flag) equal to zero for the first SPS of a layer indicated by the second syntax element (scaling_list_sps_pred_layer_idc) of the second SPS in a case that the infer flag (sps_base_pred_scaling_list_flag) of the second SPS is equal to one.
A method for preserving viral particles comprising: (a) providing an aqueous solution of (i) viral particles from Adenoviridae, Orthomyxoviridae, Paramyxoviridae, Parvoviridae, Picornaviridae or Poxviridae, (ii) one or more sugars, and (iii) an N,N-di(C 1-6 alkyl)-glycine or N,N,N-tri(C 1-6 alkyl)-glycine, or a physiologically acceptable salt or ester thereof; and (b) drying the solution to form a composition incorporating said virus. (a) providing an aqueous solution of (i) viral particles from Adenoviridae, Orthomyxoviridae, Paramyxoviridae, Parvoviridae, Picornaviridae or Poxviridae, (ii) one or more sugars, and (iii) an N,N-di(C 1-6 alkyl)-glycine or N,N,N-tri(C 1-6 alkyl)-glycine, or a physiologically acceptable salt or ester thereof; and (b) drying the solution to form a composition incorporating said virus.
A nozzle turning apparatus comprising a nozzle unit, said nozzle unit comprising a nozzle for sending out a wire from a tip end thereof and a nozzle holder for holding said nozzle, said nozzle unit rotatably supporting said nozzle holder, and a nozzle-holder drive member integrally provided with said nozzle unit and being movable in said nozzle unit to rotate said nozzle holder, said nozzle-holder drive member being driveable to turn said nozzle from a winding state to a wire processing state after a winding operation is finished, said nozzle unit further comprising inner unit-drive means integrally provided with said nozzle unit in said nozzle unit, for moving said nozzle-holder drive member; the nozzle turning apparatus further comprising outer unit-drive means independently provided from said nozzle unit outside said nozzle unit, for driving said inner unit-drive means so as to move said nozzle-holder drivemember; characterized in that said inner unit-drive means comprises a rotation member rotatably supported by said nozzle unit, for moving said nozzle-holder drive member, and a projected portion integrally provided with said rotation member, for rotating said rotation member; and wherein said outer unit-drive means comprises an outer movement member having a concave portion that engages with said projected portion, for moving to rotate said rotation member, and a drive mechanism for moving said outer movement member. outer unit-drive means independently provided from said nozzle unit outside said nozzle unit, for driving said inner unit-drive means so as to move said nozzle-holder drivemember; characterized in that said inner unit-drive means comprises a rotation member rotatably supported by said nozzle unit, for moving said nozzle-holder drive member, and a projected portion integrally provided with said rotation member, for rotating said rotation member; and wherein said outer unit-drive means comprises an outer movement member having a concave portion that engages with said projected portion, for moving to rotate said rotation member, and a drive mechanism for moving said outer movement member.
A fuel cell stack structure, comprising: a plurality of unit cells, each having an aperture (5a-5c) formed therethrough; a fuel cell stack formed by stacking the plurality of unit cells in a stacking directions, the fuel cell stack having an internal manifold opening defined by the apertures (5a-5c) of the plurality of unit cells; an in-cell fluid passage for flowing a fluid into the internal manifold opening, the in-cell fluid passage configured and arranged to flow the fluid in a plane generally perpendicular to the stacking direction of the unit cell; and an external manifold having an external passage for supplying the fluid to the internal manifold opening, the external passage having a connecting portion to connect the external manifold to the internal manifold opening, the connecting portion including an interior surface facing a flow direction of the fluid; and a smooth convex portion on the interior surface having an apex in a direction where the fluid flows from the external passage, wherein the convex portion is configured to create a vortex in the fluid proximal to the internal manifold opening. a plurality of unit cells, each having an aperture (5a-5c) formed therethrough; a fuel cell stack formed by stacking the plurality of unit cells in a stacking directions, the fuel cell stack having an internal manifold opening defined by the apertures (5a-5c) of the plurality of unit cells; an in-cell fluid passage for flowing a fluid into the internal manifold opening, the in-cell fluid passage configured and arranged to flow the fluid in a plane generally perpendicular to the stacking direction of the unit cell; and an external manifold having an external passage for supplying the fluid to the internal manifold opening, the external passage having a connecting portion to connect the external manifold to the internal manifold opening, the connecting portion including an interior surface facing a flow direction of the fluid; and a smooth convex portion on the interior surface having an apex in a direction where the fluid flows from the external passage, wherein the convex portion is configured to create a vortex in the fluid proximal to the internal manifold opening.
A chimeric gene comprising a coding sequence operably-linked to a plant-expressible promoter which latter is a heterologous regulatory element to the coding sequence, characterized in that the coding sequence comprises a nucleic acid sequence which encodes an HPPD protein comprising the amino acid sequence of SEQ ID No. 4 from amino acid position 2 to amino acid position 387 or an HPPD protein with at least 80 % sequence identity to the amino acid sequence of SEQ ID No. 4 from amino acid position 2 to amino acid position 387, showing the properties of catalysing the conversion of para-hydroxyphenylpyruvate to homogentisate, and being less sensitive to an HPPD inhibitor herbicide than the host plant endogenous HPPD..
A photosensitized solar cell module including a plurality of photosensitized solar cells each comprising a conductive substrate including a conductive layer, a scribe line and an extraction electrode, wherein the scribe line is interposing the conductive layer and the extraction electrode, the conductive substrate being positioned on an opposed side to a light receiving side, and a catalyst layer, a porous insulating layer internally containing an electrolyte, a porous semiconductor layer with a photosensitizer adsorbed thereon, internally containing the electrolyte, and a translucent cover member positioned on the light receiving side and laminated directly in this order on the conductive layer, wherein the porous semiconductor layer of one photosensitized solar cell is electrically and directly connected to the conductive layer of the adjacent other photosensitized solar cell, wherein the porous semiconductor layer reaches on one side of the cell down to the extraction electrode of the neighboring cell and the scribe line is filled with the porous insulating layer reaching down to the substrate on the same side the porous semiconductor layer is reaching down to the conductive layer thereby achieving an electric connection of the plurality of photosensitized solar cells in series.
An aerosol-generating device (10, 20, 40, 50) comprising: a cigarette insertion detection sensor (150, 210) configured to detect insertion of a cigarette into an accommodation space of the aerosol-generating device (10, 20, 40, 50); a heater (220, 410, 510) configured to heat the cigarette inserted in the accommodation space; at least one temperature sensor (230, 560) configured to measure temperatures of at least two locations inside the aerosol-generating device (10, 20, 40, 50); and a controller (120, 240) configured to determine whether the aerosol-generating device (10, 20, 40, 50) is in an overheated state based on the temperatures measured by the at least one temperature sensor (230, 560) when the insertion of the cigarette is detected by the cigarette insertion detection sensor (150, 210), and control the heater (220, 410, 510) to suspend a heating operation until the overheated state is finished based on the overheated state being detected. a cigarette insertion detection sensor (150, 210) configured to detect insertion of a cigarette into an accommodation space of the aerosol-generating device (10, 20, 40, 50); a heater (220, 410, 510) configured to heat the cigarette inserted in the accommodation space; at least one temperature sensor (230, 560) configured to measure temperatures of at least two locations inside the aerosol-generating device (10, 20, 40, 50); and a controller (120, 240) configured to determine whether the aerosol-generating device (10, 20, 40, 50) is in an overheated state based on the temperatures measured by the at least one temperature sensor (230, 560) when the insertion of the cigarette is detected by the cigarette insertion detection sensor (150, 210), and control the heater (220, 410, 510) to suspend a heating operation until the overheated state is finished based on the overheated state being detected.
A method of producing a flexible pipe comprising a metal carcass and an internal sealing sheath extruded onto the carcass, said method comprising the steps of • providing a metal carcass; • heating an application section of said carcass to an application section temperature of at least 150 °C; • extruding a non-cross-linked polyethylene material comprising a peroxide having an activation temperature above 150 °C onto said application section of said carcass; • cross-linking the extruded polyethylene in a cross-linking zone by raising its temperature to at least the activation temperature of said peroxide by exposing the extruded polymer material to electromagnetic waves, with a wavelength of between 0.5 μm to 0.5 m; and • cooling said cross-linked polyethylene material to obtain the internal sealing sheath, wherein the extrusion and cross-linking steps are carried out in an in-line process, including passing the metal carcass with a delivery velocity through a heating zone wherein the application section of the metal carcass is heated, though an extrusion zone wherein the polyethylene material is extruded onto the metal carcass, to the cross-linking zone wherein the polyethylene material is cross-linked. • providing a metal carcass; • heating an application section of said carcass to an application section temperature of at least 150 °C; • extruding a non-cross-linked polyethylene material comprising a peroxide having an activation temperature above 150 °C onto said application section of said carcass; • cross-linking the extruded polyethylene in a cross-linking zone by raising its temperature to at least the activation temperature of said peroxide by exposing the extruded polymer material to electromagnetic waves, with a wavelength of between 0.5 μm to 0.5 m; and • cooling said cross-linked polyethylene material to obtain the internal sealing sheath, wherein the extrusion and cross-linking steps are carried out in an in-line process, including passing the metal carcass with a delivery velocity through a heating zone wherein the application section of the metal carcass is heated, though an extrusion zone wherein the polyethylene material is extruded onto the metal carcass, to the cross-linking zone wherein the polyethylene material is cross-linked.
A P2X 7 receptor or fragment thereof for use in inhibiting the progression of cancer in an individual, wherein the individual has received a non self antigen binding site for treatment of the cancer, wherein the fragment of a P2X 7 receptor is capable of inducing an immune response to a P2X 7 receptor, and which includes an amino acid sequence selected from the group consisting of SEQ ID NO: 2, 3 and 4.
A method for transmitting broadcast signals, the method comprising: encoding data in Physical Layer Pipes, PLPs, wherein the encoding includes: Quadrature Amplitude Modulation, QAM, mapping the data into two symbols; Multi Input Multi Output, MIMO, processing the mapped data; cell interleaving the MIMO processed data; and time interleaving the cell interleaved PLP data; encoding signaling information by a Multi-Input Single-Output, MISO, processing; building at least two signal frames including the encoded data in the PLPs and the encoded signaling information, wherein a signal frame includes a preamble and data symbols, wherein the data symbols include the encoded data in the PLPs; pair-wise frequency interleaving data in the built at least two signal frame; modulating the pair-wise frequency interleaved data in the at least two signal frames by an Orthogonal Frequency Division Multiplexing, OFDM, method; and transmitting two broadcast signals having the modulated data, wherein the encoding the data of the PLPs further includes Multi Input Single Output, MISO, processing data of the other PLPs. encoding data in Physical Layer Pipes, PLPs, wherein the encoding includes: Quadrature Amplitude Modulation, QAM, mapping the data into two symbols; Multi Input Multi Output, MIMO, processing the mapped data; cell interleaving the MIMO processed data; and time interleaving the cell interleaved PLP data; Quadrature Amplitude Modulation, QAM, mapping the data into two symbols; Multi Input Multi Output, MIMO, processing the mapped data; cell interleaving the MIMO processed data; and time interleaving the cell interleaved PLP data; encoding signaling information by a Multi-Input Single-Output, MISO, processing; building at least two signal frames including the encoded data in the PLPs and the encoded signaling information, wherein a signal frame includes a preamble and data symbols, wherein the data symbols include the encoded data in the PLPs; pair-wise frequency interleaving data in the built at least two signal frame; modulating the pair-wise frequency interleaved data in the at least two signal frames by an Orthogonal Frequency Division Multiplexing, OFDM, method; and transmitting two broadcast signals having the modulated data, wherein the encoding the data of the PLPs further includes Multi Input Single Output, MISO, processing data of the other PLPs.
A method for controlling a railway rolling stock, wherein: - in an automatic operation mode, the rolling stock is automatically controlled by an integral automation system, and - in a manual operation mode, the rolling stock is operated by an onboard driver by means of an emergency control desk, which is integrated into the rolling stock, and which includes control elements (24, 25), characterized in that, in a simplified takeover mode, the rolling stock is controlled by an individual on board using dedicated control elements which correspond, at least functionally, to only a part of the control elements (24, 25) of the emergency control desk while the remainder of the control elements of the emergency control desk are physically inaccessible to said onboard individual, these dedicated control elements including at least: - a switch (24.1) for switching to the simplified takeover mode, - a forward drive button (24.2), and - an emergency braking button (24.3). - in an automatic operation mode, the rolling stock is automatically controlled by an integral automation system, and - in a manual operation mode, the rolling stock is operated by an onboard driver by means of an emergency control desk, which is integrated into the rolling stock, and which includes control elements (24, 25), - a switch (24.1) for switching to the simplified takeover mode, - a forward drive button (24.2), and - an emergency braking button (24.3).
A fibrous texture having the shape of a strip extending in a longitudinal direction over a determined length (L 100) between a proximal portion and a distal portion and in a lateral direction over a determined width (l 100) between a first lateral edge and a second lateral edge, the fibrous texture having a three-dimensional or multi-layer weaving between a plurality of layers of warp strands (20, 40) extending in the longitudinal direction and a plurality of layers of weft strands extending in the lateral direction, the fibrous texture comprising first and second longitudinal sections (130, 150) each extending over the determined length of the fibrous texture along the longitudinal direction and over a width from the first or second lateral edge (101, 102) smaller than the determined width of the fibrous texture along the lateral direction, the first and second longitudinal sections (130, 150) each comprising warp strands and weft strands constituted by carbon fibers, the fibrous texture further comprising an intermediate section present between the first and second sections (130, 150), characterized in that at least a portion of the warp strands present in the intermediate section are hybrid warp strands constituted by both carbon fiber filaments and glass fibers filaments.
An orthopaedic surgical device comprising: a tibial paddle shaped to be positioned between a patient's proximal tibia and distal femur, a sensor array positioned in the tibial paddle, the sensor array including a plurality of pressure sensors configured to generate sensor signals indicative of a force between the patient's tibia and femur, a handle secured to the tibial paddle, a first display secured to an end of the handle, and a circuit positioned in the handle, the circuit configured to receive the sensor signals from the sensor array and to control the display to provide a visual indication of the force between the patient's tibia and femur, and characterised in that the handle extends from a medial side of the paddle so that the tibial paddle may be positioned in a knee joint of a patient without the need to sublux or evert the patient's patella. a tibial paddle shaped to be positioned between a patient's proximal tibia and distal femur, a sensor array positioned in the tibial paddle, the sensor array including a plurality of pressure sensors configured to generate sensor signals indicative of a force between the patient's tibia and femur, a handle secured to the tibial paddle, a first display secured to an end of the handle, and a circuit positioned in the handle, the circuit configured to receive the sensor signals from the sensor array and to control the display to provide a visual indication of the force between the patient's tibia and femur, and characterised in that the handle extends from a medial side of the paddle so that the tibial paddle may be positioned in a knee joint of a patient without the need to sublux or evert the patient's patella.
A holding sealing material (10, 110) to be included in an exhaust gas purifying apparatus, the exhaust gas purifying apparatus comprising: an exhaust gas-treating body; a casing (120, 140) for housing the exhaust gas-treating body; and the holding sealing material (10, 110) formed of inorganic fibers and configured to be disposed between the exhaust gas-treating body and the casing (120, 140), wherein the holding sealing material (10, 110) includes a mat in a predetermined thickness loaded with an inorganic binder and an organic binder, characterized in that, when the mat is divided in a thickness direction into three parts including an upper part, a center part, and a lower part, the organic binder is mainly loaded on the upper part and the lower part. an exhaust gas-treating body; a casing (120, 140) for housing the exhaust gas-treating body; and the holding sealing material (10, 110) formed of inorganic fibers and configured to be disposed between the exhaust gas-treating body and the casing (120, 140), wherein the holding sealing material (10, 110) includes a mat in a predetermined thickness loaded with an inorganic binder and an organic binder, characterized in that, when the mat is divided in a thickness direction into three parts including an upper part, a center part, and a lower part, the organic binder is mainly loaded on the upper part and the lower part.
Motor vehicle comprising at least one energisable active current line (2, 16) which at least at times carries an active current for operating at least one electrical load, at least one attenuation line arrangement being coupled to the energisable active current line (2, 16) by means of inductive coupling in such a way that, in a protection area that is spaced from the active current line (2, 16) and the attenuation line arrangement, a magnetic field which is generated by the active current and/or a superimposed interference on the active current and/or a leakage current which is caused by the active current is attenuated by current flow induced in the attenuation line arrangement, characterised in that the attenuation line arrangement comprises at least one attenuation line, wherein the at least one attenuation line is arranged at least in parts parallel to the active current line (2, 16) and the inductive coupling is strengthened by at least one coupling component encompassing the active current line (2, 16) and the at least one attenuation line, wherein the motor vehicle has a body and the attenuation line is connected to the body at both ends, or wherein the motor vehicle has power electronics, the electrical load is an electric motor and the attenuation line is connected to a housing of the power electronics and a housing of the electric motor.
Pneumatic vehicle tyre, characterized in that in its interior, on at least one inner surface, it at least partially comprises at least one adherent adhesive containing at least the following constituents: - 10% to 80% by weight of at least one rubber and - 11% to 80% by weight of at least one polyolefin and - 2% to 20% by weight of at least one hydrocarbon resin and - 1% to 30% by weight of at least one filler having a density of 2.5 to 12 g/cm 3. - 10% to 80% by weight of at least one rubber and - 11% to 80% by weight of at least one polyolefin and - 2% to 20% by weight of at least one hydrocarbon resin and - 1% to 30% by weight of at least one filler having a density of 2.5 to 12 g/cm 3.