mhurhangee/ep-ind-claims huggingface dataset:
A data generation device comprising: a generating circuit configured to generate video data according to an Advanced Video Coding, AVC, standard and a second opto-electrical transfer function, OETF, which supports a second range of an input intensity of light; and a storage to store: video usability information, VUI, including a first value indicating a first OETF; and supplemental enhancement information, SEI, including a second value indicating the second OETF, wherein VUI and SEI are included in the video data; wherein the first OETF supports a first range of an input intensity of light and the second range is wider than the first range; the first value is to be referred to by a decoding device that does not support the second OETF, when the decoding device decodes the video data; and the second OETF has compatibility with the first OETF; wherein the first OETF is an OETF defined in one of BT. 709 and BT. 2020; and the SEI is in an IRAP NAL unit or an I-picture; wherein the video data has compatibility such that the decoding device reproduces the video data based on the first OETF. a generating circuit configured to generate video data according to an Advanced Video Coding, AVC, standard and a second opto-electrical transfer function, OETF, which supports a second range of an input intensity of light; and a storage to store: video usability information, VUI, including a first value indicating a first OETF; and supplemental enhancement information, SEI, including a second value indicating the second OETF, wherein VUI and SEI are included in the video data; wherein the first OETF supports a first range of an input intensity of light and the second range is wider than the first range; the first value is to be referred to by a decoding device that does not support the second OETF, when the decoding device decodes the video data; and the second OETF has compatibility with the first OETF; wherein the first OETF is an OETF defined in one of BT. 709 and BT. 2020; and the SEI is in an IRAP NAL unit or an I-picture; wherein the video data has compatibility such that the decoding device reproduces the video data based on the first OETF. video usability information, VUI, including a first value indicating a first OETF; and supplemental enhancement information, SEI, including a second value indicating the second OETF, wherein VUI and SEI are included in the video data; wherein the first OETF supports a first range of an input intensity of light and the second range is wider than the first range; the first value is to be referred to by a decoding device that does not support the second OETF, when the decoding device decodes the video data; and the second OETF has compatibility with the first OETF; wherein the first OETF is an OETF defined in one of BT. 709 and BT. 2020; and the SEI is in an IRAP NAL unit or an I-picture; wherein the video data has compatibility such that the decoding device reproduces the video data based on the first OETF.
A turbine bucket, comprising: a shank interconnectable with a rotor and formed to accommodate coolant therein; and an airfoil blade coupled to a radially outward portion of the shank and including a body formed to define a plurality of substantially radially extending cooling holes therein, each cooling hole disposed to be solely receptive of the coolant accommodated within the shank for removing heat from the body and each cooling hole being independent from, and not in fluid communication with, any other of the plurality of cooling holes, wherein a subset of the plurality of cooling holes at one or more predefined radial position of the body are defined to have a substantially non-circular cross-sectional shape, at least one cooling hole of the subset of the plurality of cooling holes having a series of turbulators arrayed in a radial direction along the length of the cooling hole, the rest of the plurality of cooling holes defined in the body having a circular cross-sectional shape, wherein the airfoil blade body comprises opposing pressure and suction surfaces extending between leading and trailing edges, and each cooling hole of the subset of the plurality of cooling holes is defined with elongate sidewalls having profiles in a radial cross section that mimic the local profiles of the pressure and suction surfaces, wherein the substantial non-circularity of each cooling hole of the subset of the plurality of cooling holes extends along a partial radial length of the cooling hole. a shank interconnectable with a rotor and formed to accommodate coolant therein; and an airfoil blade coupled to a radially outward portion of the shank and including a body formed to define a plurality of substantially radially extending cooling holes therein, each cooling hole disposed to be solely receptive of the coolant accommodated within the shank for removing heat from the body and each cooling hole being independent from, and not in fluid communication with, any other of the plurality of cooling holes, wherein a subset of the plurality of cooling holes at one or more predefined radial position of the body are defined to have a substantially non-circular cross-sectional shape, at least one cooling hole of the subset of the plurality of cooling holes having a series of turbulators arrayed in a radial direction along the length of the cooling hole, the rest of the plurality of cooling holes defined in the body having a circular cross-sectional shape, wherein the airfoil blade body comprises opposing pressure and suction surfaces extending between leading and trailing edges, and each cooling hole of the subset of the plurality of cooling holes is defined with elongate sidewalls having profiles in a radial cross section that mimic the local profiles of the pressure and suction surfaces, wherein the substantial non-circularity of each cooling hole of the subset of the plurality of cooling holes extends along a partial radial length of the cooling hole.
An apparatus for delivering therapeutic agent to an eye, wherein the apparatus comprises: (a) a body; (b) a cannula extending distally from the body, wherein the cannula defines a longitudinal axis and a cannula lumen extending longitudinally though the cannula; (c) a hollow needle, wherein the needle is slidable relative to the cannula; and (d) an actuation member, wherein the actuation member comprises: (i) an actuation assembly, and (ii) an activation element configured to activate the actuation assembly; (e) a needle guide configured to direct the needle through a lateral opening of the cannula and along an exit axis that is obliquely oriented relative to the longitudinal axis of the cannula; wherein the actuation assembly is operable to actuate the needle relative to the cannula to thereby drive a distal portion of the needle along the exit axis; characterized in that: the cannula is sized and configured to be insertable between a choroid and a sclera of a patient's eye, and the cannula terminates at an atraumatic, beveled distal end; the actuation assembly comprises an automated actuation assembly; and the needle guide is disposed within the lumen. (a) a body; (b) a cannula extending distally from the body, wherein the cannula defines a longitudinal axis and a cannula lumen extending longitudinally though the cannula; (c) a hollow needle, wherein the needle is slidable relative to the cannula; and (d) an actuation member, wherein the actuation member comprises: (i) an actuation assembly, and (ii) an activation element configured to activate the actuation assembly; (i) an actuation assembly, and (ii) an activation element configured to activate the actuation assembly; (e) a needle guide configured to direct the needle through a lateral opening of the cannula and along an exit axis that is obliquely oriented relative to the longitudinal axis of the cannula;
A method comprising: (i) introducing a cellular sample into a container wherein said container has an open upper end and sealed lower end and a chamber therebetween defined by chamber walls wherein said container contains a collection buffer comprising a lysis reagent at a concentration sufficient to selectively lyse the cytoplasmic membranes and a small proportion of the nuclear membranes present in the cellular sample and leave a large proportion of the cell nuclei intact; (ii) inserting a plunger into the upper end of said container wherein said plunger comprises a hollow plunger body defined by plunger walls, wherein said walls have a shape corresponding and a diameter less than said chamber, a septum cap sealing the top end of said plunger body, and a solid support spanning the diameter (d) of said plunger body; (iii) pressing said plunger towards said lower end of said container so that said solid support passes through said cellular sample and the cell nuclei and other cellular components bind to the solid support leaving filtrate behind; and, (iv) removing said filtrate. (i) introducing a cellular sample into a container wherein said container has an open upper end and sealed lower end and a chamber therebetween defined by chamber walls wherein said container contains a collection buffer comprising a lysis reagent at a concentration sufficient to selectively lyse the cytoplasmic membranes and a small proportion of the nuclear membranes present in the cellular sample and leave a large proportion of the cell nuclei intact; (ii) inserting a plunger into the upper end of said container wherein said plunger comprises a hollow plunger body defined by plunger walls, wherein said walls have a shape corresponding and a diameter less than said chamber, a septum cap sealing the top end of said plunger body, and a solid support spanning the diameter (d) of said plunger body; (iii) pressing said plunger towards said lower end of said container so that said solid support passes through said cellular sample and the cell nuclei and other cellular components bind to the solid support leaving filtrate behind; and, (iv) removing said filtrate.
Magazine for a self-loading firearm with a magazine housing and a magazine base plate that can be moved between a magazine opening and magazine closing position, characterized in that the magazine base plate is provided in a displaceable manner between the magazine closing and magazine opening position and is pivotably linked to the magazine housing in the magazine opening position.
An inhaler for dispensing metered doses of a medicament, the inhaler comprising: a fluid source containing the medicament, the fluid source having a nozzle and a container, wherein the nozzle discharges the medicament when the container is advanced relative to the nozzle from a stowed position to a discharge position along a first axis; a transducer having a surface configured to engage the nozzle of the fluid source, the transducer having means for receiving the fluid from the fluid source; a loading member coupled to the container, the loading member imposing a force to the container to bias the container to discharge along the first axis; and characterised by a linkage coupling the transducer and the fluid source for collapsibly retaining the fluid source from translating along the first axis, the linkage having a collapsible joint inhibiting translation of the fluid source in the first axis when the collapsible joint is held in a first, over centre, position, and allowing translation of the fluid source in the first axis when the collapsible joint moves away from said first axis to a second position; and a releasable support means (72,34) for releasably supporting the linkage, wherein the releasable support means (72,34) releases support of the linkage in response to an inhalation force. a fluid source containing the medicament, the fluid source having a nozzle and a container, wherein the nozzle discharges the medicament when the container is advanced relative to the nozzle from a stowed position to a discharge position along a first axis; a transducer having a surface configured to engage the nozzle of the fluid source, the transducer having means for receiving the fluid from the fluid source; a loading member coupled to the container, the loading member imposing a force to the container to bias the container to discharge along the first axis; and characterised by a linkage coupling the transducer and the fluid source for collapsibly retaining the fluid source from translating along the first axis, the linkage having a collapsible joint inhibiting translation of the fluid source in the first axis when the collapsible joint is held in a first, over centre, position, and allowing translation of the fluid source in the first axis when the collapsible joint moves away from said first axis to a second position; and a releasable support means (72,34) for releasably supporting the linkage, wherein the releasable support means (72,34) releases support of the linkage in response to an inhalation force.
Grasping head for grasping insert sheets for insertion between rows of folding boxes in a container, the grasping head comprising: - at least two first suction elements (17a, 17b) configured to grasp an insert sheet, - at least two second suction elements (18a, 18b) configured to grasp the insert sheet, the grasping head being characterised in that it comprises: - a first and second linear element (19a, 19b) on which are movably mounted to slide the first and second suction elements (17a, 17b; 18a, 18b) respectively, - a controllable actuating mechanism, configured to slide the suction elements (17a, 17b; 18a, 18b) on the linear elements (19a, 19b) into a grasping position in which the first suction elements (17a, 17b) and the second suction elements (18a, 18b) are positioned in a manner spaced apart from one another in order to grasp the insert sheet, and in which the actuating mechanism comprises a controllable actuator and a rod system comprising a vertically movable transverse axis, connected to the controllable actuator, and two rods of which a first end is pivotably connected to the transverse axis, and a second end is pivotably connected to the first and second suction elements (17a, 17b; 18a, 18b), and in which the two first suction elements (17a, 17b) are connected to one another by a first support bar and the two second suction elements (18a, 18b) are connected to one another by a second support bar, the actuating mechanism being configured to allow a simultaneous movement and of the same amplitude of the support bars (21, 22) towards one another. - at least two first suction elements (17a, 17b) configured to grasp an insert sheet, - at least two second suction elements (18a, 18b) configured to grasp the insert sheet, - a first and second linear element (19a, 19b) on which are movably mounted to slide the first and second suction elements (17a, 17b; 18a, 18b) respectively, - a controllable actuating mechanism, configured to slide the suction elements (17a, 17b; 18a, 18b) on the linear elements (19a, 19b) into a grasping position in which the first suction elements (17a, 17b) and the second suction elements (18a, 18b) are positioned in a manner spaced apart from one another in order to grasp the insert sheet,
A flame-retardant polyolefin resin composition comprising 100 parts by mass of a polyolefin resin, 10 to 60 parts by mass of component, 15 to 90 parts by mass of component, and 10 to 140 parts by mass of component: component: at least one melamine salt selected from the group consisting of melamine orthophosphate, melamine pyrophosphate, and melamine polyphosphate; component: at least one piperazine salt selected from the group consisting of piperazine orthophosphate, piperazine pyrophosphate, and piperazine polyphosphate: and component: glass fiber, wherein the glass fiber is in the form of chopped strands. component: at least one melamine salt selected from the group consisting of melamine orthophosphate, melamine pyrophosphate, and melamine polyphosphate; component: at least one piperazine salt selected from the group consisting of piperazine orthophosphate, piperazine pyrophosphate, and piperazine polyphosphate: and component: glass fiber, wherein the glass fiber is in the form of chopped strands.
Method for controlling ultrasound recordings, including at least the following steps: - ascertaining a contour (U1, U2, U3, U4) of a breast (O1, O2, O3, O4) and - regulating an active region of an ultrasound probe of an ultrasound apparatus on the basis of the ascertained contour (U1, U2, U3, U4). - ascertaining a contour (U1, U2, U3, U4) of a breast (O1, O2, O3, O4) and - regulating an active region of an ultrasound probe of an ultrasound apparatus on the basis of the ascertained contour (U1, U2, U3, U4).
A method for preparing a conjugated diene-based polymer, the method comprising: preparing a catalyst for polymerizing a conjugated diene (step 1) comprising preparing a catalyst composition by mixing a lanthanide rare earth element-containing compound, an alkylating agent compound and a halogen compound in the presence of a solvent; adding a conjugated diene-based monomer to the catalyst composition and preforming; and aging at a temperature of -8°C to -12°C for 17 hours to 20 hours, polymerizing a conjugated diene-based monomer in the presence of the catalyst (step 2), and adding a modifier and performing modification reaction (step 3), wherein the lanthanide rare earth element-containing compound comprises a neodymium compound represented by the following Formula 1: in Formula 1, R 1 to R 3 are each independently a hydrogen atom, or a linear or branched alkyl group of 1 to 12 carbon atoms, and wherein the halogen compound comprises any one selected from the group consisting of a diatomic halogen, an interhalogen compound, a hydrogen halide, an organic halide, a nonmetal halide, a metal halide and an organometal halide, or a mixture of two or more thereof. preparing a catalyst for polymerizing a conjugated diene (step 1) comprising preparing a catalyst composition by mixing a lanthanide rare earth element-containing compound, an alkylating agent compound and a halogen compound in the presence of a solvent; adding a conjugated diene-based monomer to the catalyst composition and preforming; and aging at a temperature of -8°C to -12°C for 17 hours to 20 hours, polymerizing a conjugated diene-based monomer in the presence of the catalyst (step 2), and adding a modifier and performing modification reaction (step 3), wherein the lanthanide rare earth element-containing compound comprises a neodymium compound represented by the following Formula 1: in Formula 1, R 1 to R 3 are each independently a hydrogen atom, or a linear or branched alkyl group of 1 to 12 carbon atoms, and wherein the halogen compound comprises any one selected from the group consisting of a diatomic halogen, an interhalogen compound, a hydrogen halide, an organic halide, a nonmetal halide, a metal halide and an organometal halide, or a mixture of two or more thereof. in Formula 1, R 1 to R 3 are each independently a hydrogen atom, or a linear or branched alkyl group of 1 to 12 carbon atoms, and wherein the halogen compound comprises any one selected from the group consisting of a diatomic halogen, an interhalogen compound, a hydrogen halide, an organic halide, a nonmetal halide, a metal halide and an organometal halide, or a mixture of two or more thereof.
A method for scheduling radio resource of an unlicensed spectrum, adapted to a base station, characterised in that, the method comprising: obtaining downlink data, and estimating a first starting time point (T N) for a downlink transmission of the downlink data; setting a plurality of second starting time points (T N-2, T N-1, T N, T N+1) according to the first starting time point (T N); preparing a plurality of downlink control information, DCIs, (DCI N-2, DCI N-1,DCI N, DCI N+1) for the downlink data before an earliest of the second starting time points (T N-2), wherein each of the DCIs (DCI N-2, DCI N-1, DCI N, DCI N+1) is corresponding to the first starting time point (T N) or one of the second starting time points (T N-2, T N-1, T N, T N+1), and each of the DCIs (DCI N-2, DCI N-1, DCI N, DCI N+1) points to a radio resource block carrying the downlink data; and performing a clear channel assessment, CCA, procedure (530, 830) in the unlicensed spectrum and disposing the DCIs (DCI N-2, DCI N-1, DCI N, DCI N+1) in a physical downlink control channel, PDCCH, after the CCA procedure (530, 830) is completed. obtaining downlink data, and estimating a first starting time point (T N) for a downlink transmission of the downlink data; setting a plurality of second starting time points (T N-2, T N-1, T N, T N+1) according to the first starting time point (T N); preparing a plurality of downlink control information, DCIs, (DCI N-2, DCI N-1,DCI N, DCI N+1) for the downlink data before an earliest of the second starting time points (T N-2), wherein each of the DCIs (DCI N-2, DCI N-1, DCI N, DCI N+1) is corresponding to the first starting time point (T N) or one of the second starting time points (T N-2, T N-1, T N, T N+1), and each of the DCIs (DCI N-2, DCI N-1, DCI N, DCI N+1) points to a radio resource block carrying the downlink data; and performing a clear channel assessment, CCA, procedure (530, 830) in the unlicensed spectrum and disposing the DCIs (DCI N-2, DCI N-1, DCI N, DCI N+1) in a physical downlink control channel, PDCCH, after the CCA procedure (530, 830) is completed.
Method for detecting and identifying, in a sample in the liquid state, analyte(s) from among at least two analytes, comprising: - in a first step, performing a first immunoenzymatic test which gives a positive response when at least one analyte is present in the sample; - performing a second immunoenzymatic test which employs the immunoenzymatic complex formed in the first step and which allows the analyte(s) in the sample to be identified, and comprising the following successive steps: a) bringing a sample into contact with a support coated with the binding partners of the at least two analytes which are being sought; b) removing the sample; c) adding enzyme conjugate(s); d) adding a first substrate of the enzyme; e) adding a second substrate of the enzyme, wherein: - in the first immunoenzymatic test, the first substrate of the enzyme is a soluble chromogenic substrate; - in the second immunoenzymatic test, the second substrate of the enzyme is a precipitating chromogenic substrate; - the second immunoenzymatic test, that is to say step e), of the method is carried out systematically or is performed only when the response of the first immunoenzymatic test is positive. - in a first step, performing a first immunoenzymatic test which gives a positive response when at least one analyte is present in the sample; - performing a second immunoenzymatic test which employs the immunoenzymatic complex formed in the first step and which allows the analyte(s) in the sample to be identified, a) bringing a sample into contact with a support coated with the binding partners of the at least two analytes which are being sought; b) removing the sample; c) adding enzyme conjugate(s); d) adding a first substrate of the enzyme; e) adding a second substrate of the enzyme, - in the first immunoenzymatic test, the first substrate of the enzyme is a soluble chromogenic substrate; - in the second immunoenzymatic test, the second substrate of the enzyme is a precipitating chromogenic substrate; - the second immunoenzymatic test, that is to say step e), of the method is carried out systematically or is performed only when the response of the first immunoenzymatic test is positive.