mhurhangee/patent-ind-claim-en huggingface dataset:
A method of decoding video data, the method comprising: decoding a received supplemental enhancement information, SEI, network abstraction layer, NAL, unit of a video bitstream, the SEI NAL unit, as received, containing a motion constrained tile sets, MCTS, nesting SEI message; determining, based on a restriction imposed on the video bitstream as received that any SEI NAL unit containing a respective MCTS nesting SEI message does not contain any non-MCTS-nesting SEI messages, that the SEI NAL unit, as received, does not contain any non-MCTS-nesting SEI messages in response to the SEI NAL unit containing the MCTS nesting SEI message; and decoding subsequent SEI messages of the received SEI NAL unit as MCTS nesting SEI messages in response to the determination. decoding a received supplemental enhancement information, SEI, network abstraction layer, NAL, unit of a video bitstream, the SEI NAL unit, as received, containing a motion constrained tile sets, MCTS, nesting SEI message; determining, based on a restriction imposed on the video bitstream as received that any SEI NAL unit containing a respective MCTS nesting SEI message does not contain any non-MCTS-nesting SEI messages, that the SEI NAL unit, as received, does not contain any non-MCTS-nesting SEI messages in response to the SEI NAL unit containing the MCTS nesting SEI message; and decoding subsequent SEI messages of the received SEI NAL unit as MCTS nesting SEI messages in response to the determination.
Praline or filled chocolate comprising a chocolate composition as coating, said chocolate composition comprising a milk fat fraction wherein the milk fat fraction has a SFC30 of less than 30%.
A heat press , comprising: a heat plate configured to engage ironable materials ; a handle configured to withstand forces from a user and a metal substrate located within the handle ; a control compartment including a first electrical circuit , controls and a display , the control compartment spaced away from and at least indirectly electrically coupled to the heat plate ; and an insulation portion positioned between the control compartment and the heat plate and including a first layer of insulating material ; wherein ends of the metal substrate are fastened to the insulation portion . a heat plate configured to engage ironable materials ; a handle configured to withstand forces from a user and a metal substrate located within the handle ; a control compartment including a first electrical circuit , controls and a display , the control compartment spaced away from and at least indirectly electrically coupled to the heat plate ; and an insulation portion positioned between the control compartment and the heat plate and including a first layer of insulating material ; wherein ends of the metal substrate are fastened to the insulation portion .
A quilt comprising: first and second quilt parts (9, 10; 20, 21), wherein each quilt part (9, 10; 20, 21) has a thermal resistance and the thermal resistance of the first quilt part is different to the thermal resistance of the second quilt part (10; 21), and wherein each quilt part (9, 10; 20, 21) in use has uppermost and lowermost surfaces and a channel between the uppermost and lowermost surfaces , wherein said channel has a channel wall (15; 30) disposed at a peripheral end of the quilt part (9, 10; 20, 21), wherein the channel wall (15; 30) consists of a flat surface that extends between respective peripheral ends of the uppermost and lowermost surfaces of the quilt part (9, 10; 20, 21) and is orientated substantially perpendicular to the uppermost and lowermost surfaces ; and characterised in that the flat surface of the channel wall (15; 30) of each quilt part (9, 10; 20, 21) comprises: i) a first surface section having a plurality of hook fasteners (13, 14; 22, 24) disposed on the first surface section; and ii) a second surface section having a plurality of loop fasteners (11, 12; 23, 25) on the second surface section; whereby, the hook fasteners (13; 24) and loop fasteners (12; 25) disposed on the flat surface of the channel wall (15; 30) of the first quilt part (9; 20) are releasably attachable to the hook fasteners (14; 22) and loop fasteners (11; 23) disposed on the flat surface of the channel wall (15; 30) of the second quilt part (10; 21) for releasably attaching the two quilt parts (9, 10; 20, 21) together. i) a first surface section having a plurality of hook fasteners (13, 14; 22, 24) disposed on the first surface section; and ii) a second surface section having a plurality of loop fasteners (11, 12; 23, 25) on the second surface section; whereby, the hook fasteners (13; 24) and loop fasteners (12; 25) disposed on the flat surface of the channel wall (15; 30) of the first quilt part (9; 20) are releasably attachable to the hook fasteners (14; 22) and loop fasteners (11; 23) disposed on the flat surface of the channel wall (15; 30) of the second quilt part (10; 21) for releasably attaching the two quilt parts (9, 10; 20, 21) together.
A combined antenna and radome arrangement , comprising: an advanced antenna system, AAS , the AAS comprising antenna elements and being configured for communication in a frequency range of 2.5 GHz to 10 GHz; a non-advanced antenna system, non-AAS , comprising antenna elements and an inner radome placed in front of the antenna elements of the non-AAS , the non-AAS being configured for communication in a frequency range of 0.6-2.7 GHz; and a radome , the radome having a first layer sandwiched between two second layers , the two second layers being of a second dielectric material, and the first layer being of a first dielectric material and having a thickness t 1 , where t 1 ≤ λ min /3, wherein λ min is the wavelength of the highest frequency in the frequency range of the AAS , and wherein the radome is an outer radome placed in front of the AAS and the non-AAS such that the radome forms a common cover for the AAS (noa) and the non-AAS an advanced antenna system, AAS , the AAS comprising antenna elements and being configured for communication in a frequency range of 2.5 GHz to 10 GHz; a non-advanced antenna system, non-AAS , comprising antenna elements and an inner radome placed in front of the antenna elements of the non-AAS , the non-AAS being configured for communication in a frequency range of 0.6-2.7 GHz; and a radome , the radome having a first layer sandwiched between two second layers , the two second layers being of a second dielectric material, and the first layer being of a first dielectric material and having a thickness t 1 , where t 1 ≤ λ min /3, wherein λ min is the wavelength of the highest frequency in the frequency range of the AAS , and wherein the radome is an outer radome placed in front of the AAS and the non-AAS such that the radome forms a common cover for the AAS (noa) and the non-AAS
A pad apparatus comprising: (a) a rotatable flexible pad including a top surface, a floor-facing bottom surface and a peripheral surface; (b) a flexible reinforcement layer attached to the bottom surface of the pad, wherein the reinforcement layer includes metallic material and (c) abrasive grinding tools attached to a floor-facing surface of the reinforcement layer; characterized in that the reinforcement layer is a ring having inner and outer edges, and a central portion of the pad is exposed through a hole defined by the inner edge of the ring. (a) a rotatable flexible pad including a top surface, a floor-facing bottom surface and a peripheral surface; (b) a flexible reinforcement layer attached to the bottom surface of the pad, wherein the reinforcement layer includes metallic material and (c) abrasive grinding tools attached to a floor-facing surface of the reinforcement layer; characterized in that the reinforcement layer is a ring having inner and outer edges, and a central portion of the pad is exposed through a hole defined by the inner edge of the ring.
A mechanical reduction gear for a turbomachine , in particular for an aircraft, the reduction gear comprising: - a sun gear having an axis of rotation (X), - a ring gear which extends around the sun gear , - planet gears which are meshed with the sun gear and the ring gear and which are held by a planet carrier which is configured to be in rotation around said axis (X), each of the planet gears being guided in rotation by a hydrodynamic bearing formed by a tubular support around which the planet gear is rotatably mounted, and - a lubricating oil distributor which is configured to supply oil to internal cavities of said tubular supports, each of the tubular supports comprising oil conveying pipes from its internal cavity to its outer periphery for the formation of an oil film between the support and the planet gear , each of the tubular supports comprising: - a first angular sector around an axis (Y) of the support , which comprises said conveying pipes and a first outer peripheral surface for forming said oil film, and - a second angular sector around the axis (Y) of the support , which comprises a second outer peripheral surface in which a breaking tub of the oil film and recovering of the oil is formed, - said first sector and said second sector are distinct, characterized in that the first sector has an angular range of 180° to 270°, and said second sector has an angular range of 90° to 180°. - a sun gear having an axis of rotation (X), - a ring gear which extends around the sun gear , - planet gears which are meshed with the sun gear and the ring gear and which are held by a planet carrier which is configured to be in rotation around said axis (X), each of the planet gears being guided in rotation by a hydrodynamic bearing formed by a tubular support around which the planet gear is rotatably mounted, and - a lubricating oil distributor which is configured to supply oil to internal cavities of said tubular supports, each of the tubular supports comprising oil conveying pipes from its internal cavity to its outer periphery for the formation of an oil film between the support and the planet gear , each of the tubular supports comprising: - a first angular sector around an axis (Y) of the support , which comprises said conveying pipes and a first outer peripheral surface for forming said oil film, and - a second angular sector around the axis (Y) of the support , which comprises a second outer peripheral surface in which a breaking tub of the oil film and recovering of the oil is formed, - said first sector and said second sector are distinct, - a first angular sector around an axis (Y) of the support , which comprises said conveying pipes and a first outer peripheral surface for forming said oil film, and - a second angular sector around the axis (Y) of the support , which comprises a second outer peripheral surface in which a breaking tub of the oil film and recovering of the oil is formed, - said first sector and said second sector are distinct, characterized in that the first sector has an angular range of 180° to 270°, and said second sector has an angular range of 90° to 180°.
A continuous process for the preparation of trazodone base (IV) , starting from N-(3-chlorophenyl)-N'-(3-chloropropyl)-piperazine (II) and s-triazolo-[4,3-a]-pyridin-3-one (III) , according to reaction scheme 2: comprising continuously mixing in a flow reactor an alkaline aqueous solution of s-triazolo-[4,3-a]-pyridin-3-one (III) and an organic solution of N-(3-chlorophenyl)-N'-(3-chloropropyl)-piperazine (II) , and continuously recovering trazodone base (IV) .
A pharmaceutically acceptable salt, which is N -((S)-1-(3-(4-chloro-3-(methylsulfonamido)-1-(2,2,2-trifluoroethyl)-1H-indazol-7-yl)-6-(3-methyl-3-(methylsulfonyl)but-1-yn-1-yl)pyridin-2-yl)-2-(3,5-difluorophenyl)ethyl)-2-( -5,5-difluoro-3-(trifluoromethyl)-3b,4,4a,5-tetrahydro-1H-cyclopropa cyclopenta[1,2-c]pyrazol-1-yl)acetamide sodium salt, wherein the pharmaceutically acceptable salt is in crystalline form.
A compound of the formula: or a pharmaceutically acceptable salt thereof, for use in treating or preventing cancer, wherein the compound is to be administered in combination with an immunotherapy.
A battery packaging material comprising a laminate that includes at least a barrier layer, a heat-sealable resin layer situated on one surface side of the barrier layer, and a polyester film situated on the other surface side of the barrier layer, the thickness of the barrier layer being 100 μm or less, the polyester film having a ratio in a range of 1.4 or more and 2.7 or less between a maximum value Y max and a minimum value Y min (degree of surface orientation: Y max /Y min ), with the maximum value Y max and the minimum value Y min respectively representing a maximum value and a minimum value of a ratio between an absorption peak intensity Y 1340 at 1340 cm -1 and an absorption peak intensity Y 1410 at 1410 cm -1 (Y 1340 /Y 1410 ) in infrared absorption spectra acquired for 18 directions at intervals of 10° from 0° to 180° on a surface of the polyester film according to attenuated total reflection of Fourier transform infrared spectroscopy, determined as disclosed in the description. the thickness of the barrier layer being 100 μm or less, the polyester film having a ratio in a range of 1.4 or more and 2.7 or less between a maximum value Y max and a minimum value Y min (degree of surface orientation: Y max /Y min ), with the maximum value Y max and the minimum value Y min respectively representing a maximum value and a minimum value of a ratio between an absorption peak intensity Y 1340 at 1340 cm -1 and an absorption peak intensity Y 1410 at 1410 cm -1 (Y 1340 /Y 1410 ) in infrared absorption spectra acquired for 18 directions at intervals of 10° from 0° to 180° on a surface of the polyester film according to attenuated total reflection of Fourier transform infrared spectroscopy, determined as disclosed in the description.
A light source comprising a light emitter arranged inside a translucent outer envelope , the translucent outer envelope being connected to a base , and further comprising a symmetry axis (S), an imaginary base-plane (P) being defined substantially perpendicular to the symmetry axis (S) and intersecting with a connection point (C) being part of the translucent outer envelope , the connection point (C) being a light transmitting part of the translucent outer envelope at an interface between the translucent outer envelope and the base at a furthest distance from a center (M) of the translucent outer envelope , the light emitter comprising a light emitting device and comprising a translucent inner envelope at least partially surrounding the light emitting device , wherein the light emitting device is arranged on a substantially flat circuit board arranged substantially parallel to the imaginary base-plane (P), or wherein the light source comprises a plurality of light emitting devices arranged on a plurality of circuit boards arranged at different angles with respect to the symmetry axis (S) and/or with respect to each other, the translucent inner envelope comprising a diffuser for diffusing at least a part of the light emitted by the light emitting device , a diameter (d i ) of the translucent inner envelope being smaller than a diameter (d o ) of the translucent outer envelope , the light emitter being arranged inside the translucent outer envelope at a distance (D) from the imaginary base-plane (P), away from the base, wherein the distance (D) between the light emitter and the imaginary base-plane is chosen to generate an emission distribution in a distribution plane (P) of at least 220 degrees full width at half maximum (FWHM), the distribution plane being an imaginary plane intersecting with the symmetry axis (S), and wherein the inner envelope comprises a cut-out portion for accommodating the light emitting device , and wherein a diameter (d i ) of the inner envelope is larger than a diameter (d c ) of the cut-out portion , the diameter (d i ) of the inner envelope being measured in a direction parallel to the direction for measuring the diameter (d c ) of the cut-out portion .
A method of document delivery to a mobile device (102/152) using mobile device based permissions, the method comprising: sending a print permission request from a sending device to a server coupled to a communications network, providing a user identifier associated with the mobile device (102/152) and a user identifier associated with the sending device ; receiving confirmation of acceptance of the print permission request at the sending device from the server ; adding the user identifier associated with the mobile device to a printer driver on the sending device , the user identifier associated with the mobile device (102/152) presented in a print dialog box on the sending device when an electronic document is to be formatted and transferred by the printer driver from the sending device to the mobile device (102/152), wherein the confirmation further comprises configuration parameters for configuring the printer driver to format the electronic document to be sent to the mobile device (102/152); and formatting the electronic document using the received configuration parameters and transferring from the sending device the thereby formatted electronic document from the printer driver to the mobile device. sending a print permission request from a sending device to a server coupled to a communications network, providing a user identifier associated with the mobile device (102/152) and a user identifier associated with the sending device ; receiving confirmation of acceptance of the print permission request at the sending device from the server ; adding the user identifier associated with the mobile device to a printer driver on the sending device , the user identifier associated with the mobile device (102/152) presented in a print dialog box on the sending device when an electronic document is to be formatted and transferred by the printer driver from the sending device to the mobile device (102/152), wherein the confirmation further comprises configuration parameters for configuring the printer driver to format the electronic document to be sent to the mobile device (102/152); and formatting the electronic document using the received configuration parameters and transferring from the sending device the thereby formatted electronic document from the printer driver to the mobile device.
A wireless bra, comprising: two cups ; an under holder ; a gore ; wings ; back straps ; back hook-and-eye fasteners ; shoulder straps ; stitching parts ; flexible bands ; and a framework , wherein the two cups are connected by means of the gore , the under holder is arranged below the cups , the stitching parts are arranged at connection portions among the cups , the under holder , the gore and the wings , the stitching parts extend along edges of the cups , the flexible bands are sewed and fixed in the stitching parts , the wings are connected with two ends of the under holder respectively, the back straps are connected with the wings , the back hook-and-eye fasteners are arranged on the back straps , for each of the shoulder straps , one end of the shoulder strap is connected with an upper portion of the cup , and the other end of the shoulder strap is connected with the back strap , characterized in that the framework capable of supporting the cups is arranged in the gore.
Layered thermal insulation element having a sandwich structure comprising at least two structural layers at least one insulation layer between said structural layers , and a heating element in said sandwich structure which is connectable to a controller to control a thermal gradient through the layered insulation element , characterised in that the layered insulation element furthermore comprises radiant barrier layers arranged on either side of the insulation layer , and wherein the heating element comprises an infrared heating film that is arranged directly between one of the structural layers and one of the radiant barrier layers .
A polyester comprising the following repeating unit of formula I: wherein: R 1 and R 2 independently represent H or CH 3 , R 3 and R 4 independently represent H or OCH 3 , R 5 independently represents C 1-16 alkyl-O(C=O)R 7 (C=O); C 1-16 alkyl(C=O); (C=O)R 7 (C=O); C 1-16 alkyl(C=O)OR 7 O(C=O)C 1-16 alkyl; C 1-16 alkyl(C=O)OR 7 or (C=O)C 2-3 alkyl(C=O)OR 7 O(C=O)C 2-3 alkyl, R 7 independently represents C 1-20 alkyl; benzene or furan, R 6 represents CH 2 or (C=O), n = 0-3, m ≥ 10. R 1 and R 2 independently represent H or CH 3 , R 3 and R 4 independently represent H or OCH 3 , R 5 independently represents C 1-16 alkyl-O(C=O)R 7 (C=O); C 1-16 alkyl(C=O); (C=O)R 7 (C=O); C 1-16 alkyl(C=O)OR 7 O(C=O)C 1-16 alkyl; C 1-16 alkyl(C=O)OR 7 or (C=O)C 2-3 alkyl(C=O)OR 7 O(C=O)C 2-3 alkyl, R 7 independently represents C 1-20 alkyl; benzene or furan, R 6 represents CH 2 or (C=O), n = 0-3, m ≥ 10.
A sample analysis method for analyzing a blood sample, comprising: obtaining , in one single test, optical signals generated by particles in a test sample solution after being irradiated by excitation light when the particles pass through an optical detection region of an optical detection apparatus one by one, wherein the test sample solution is obtained by treating the blood sample with a hemolytic agent, a first dye and a second dye, the first dye being capable of staining leukocytes, and the second dye being capable of staining infected erythrocytes, and wherein the optical signals comprise scattered light signals, first fluorescence signals corresponding to the first dye and second fluorescence signals corresponding to the second dye, wherein the first fluorescence signals and the second fluorescence signals are respectively detected by different fluorescence detectors; obtaining optical information of leukocytes of the blood sample based on the first fluorescence signals and at least one type of the scattered light signals; and obtaining optical information of infected erythrocytes of the blood sample based on the second fluorescence signals and at least one type of the scattered light signals. obtaining , in one single test, optical signals generated by particles in a test sample solution after being irradiated by excitation light when the particles pass through an optical detection region of an optical detection apparatus one by one, wherein the test sample solution is obtained by treating the blood sample with a hemolytic agent, a first dye and a second dye, the first dye being capable of staining leukocytes, and the second dye being capable of staining infected erythrocytes, and wherein the optical signals comprise scattered light signals, first fluorescence signals corresponding to the first dye and second fluorescence signals corresponding to the second dye, wherein the first fluorescence signals and the second fluorescence signals are respectively detected by different fluorescence detectors; obtaining optical information of leukocytes of the blood sample based on the first fluorescence signals and at least one type of the scattered light signals; and obtaining optical information of infected erythrocytes of the blood sample based on the second fluorescence signals and at least one type of the scattered light signals.