mhurhangee/patent-ind-claim-en huggingface dataset:
A method for live streaming, comprising: initializing (S201), by a playback terminal, a delay window being used to constrain a range of resource slices obtained from a server terminal by the playback terminal, wherein the resource slices are obtained by slicing a target streaming media resource by the server terminal; according to a starting number and a latest number of the resource slices within the delay window, requesting (S204), by the playback terminal, an unrequested resource slice of the target streaming media resource from the server terminal within a range of the delay window; determining (S205), by the playback terminal, whether a result of a first request for the resource slice within the range of the delay window is successful; and accumulating (S206), by the playback terminal, a number of consecutive failures of the first request for the resource slice within the delay window and, when the number of consecutive failures reaches a preset threshold, sliding (S207) the delay window backward, by decreasing the starting number and the latest number, to limit a requesting speed of the playback terminal. initializing (S201), by a playback terminal, a delay window being used to constrain a range of resource slices obtained from a server terminal by the playback terminal, wherein the resource slices are obtained by slicing a target streaming media resource by the server terminal; according to a starting number and a latest number of the resource slices within the delay window, requesting (S204), by the playback terminal, an unrequested resource slice of the target streaming media resource from the server terminal within a range of the delay window; determining (S205), by the playback terminal, whether a result of a first request for the resource slice within the range of the delay window is successful; and accumulating (S206), by the playback terminal, a number of consecutive failures of the first request for the resource slice within the delay window and, when the number of consecutive failures reaches a preset threshold, sliding (S207) the delay window backward, by decreasing the starting number and the latest number, to limit a requesting speed of the playback terminal.
Vulcanizable composition comprising (i) at least one optionally fully or partly hydrogenated nitrile rubber containing epoxy groups and comprising repeat units derived from at least one conjugated diene, at least one α,β-unsaturated nitrile and optionally one or more further copolymerizable monomers, but not from a nonconjugated cyclic polyene, and (ii) at least one Lewis and/or Bronsted acid, where the Lewis acid(s) are selected from the group consisting of boron trifluoride, aluminium trichloride, indium(III) chloride, zinc chloride, iron(II) oxide, iron(III) oxide, iron(III) chloride, silicon tetrachloride, lithium bromide, lithium chloride, magnesium oxide, magnesium chloride, scandium(III) triflate and rhodium(III) chloride and the Bronsted acid(s) are selected from the group consisting of potassium hydrogensulphate, ammonium hydrogensulphate, tetraalkylammonium hydrogensulphates, especially tetra-n-butylammonium hydrogensulphate, potassium dihydrogenphosphate, disodium hydrogenphosphate, sodium dihydrogenphosphate, ammonium chloride, ammonium sulphate, ammonium carbonate, ammonium hydroxide, ammonium acetate, dodecylbenzylsulphonic acid, p-toluenesulphonic acid, ascorbic acid, acetic acid, acrylic acid, fumaric acid, maleic acid, benzoic acid, abietic acid, saturated and unsaturated fatty acids, especially oleic acid, or a buffer mixture comprising the latter, as a crosslinker, said vulcanizable composition comprising crosslinkers other than those specified under (ii) only in an amount of less than 2.5 parts by weight, based on 100 parts by weight of the optionally fully or partly hydrogenated nitrile rubber (i) containing epoxy groups, said vulcanizable composition being in solid form. (i) at least one optionally fully or partly hydrogenated nitrile rubber containing epoxy groups and comprising repeat units derived from at least one conjugated diene, at least one α,β-unsaturated nitrile and optionally one or more further copolymerizable monomers, but not from a nonconjugated cyclic polyene, and (ii) at least one Lewis and/or Bronsted acid, where the Lewis acid(s) are selected from the group consisting of boron trifluoride, aluminium trichloride, indium(III) chloride, zinc chloride, iron(II) oxide, iron(III) oxide, iron(III) chloride, silicon tetrachloride, lithium bromide, lithium chloride, magnesium oxide, magnesium chloride, scandium(III) triflate and rhodium(III) chloride and the Bronsted acid(s) are selected from the group consisting of potassium hydrogensulphate, ammonium hydrogensulphate, tetraalkylammonium hydrogensulphates, especially tetra-n-butylammonium hydrogensulphate, potassium dihydrogenphosphate, disodium hydrogenphosphate, sodium dihydrogenphosphate, ammonium chloride, ammonium sulphate, ammonium carbonate, ammonium hydroxide, ammonium acetate, dodecylbenzylsulphonic acid, p-toluenesulphonic acid, ascorbic acid, acetic acid, acrylic acid, fumaric acid, maleic acid, benzoic acid, abietic acid, saturated and unsaturated fatty acids, especially oleic acid, or a buffer mixture comprising the latter, as a crosslinker,
A rack driven human powered vehicle comprising: at least two wheels ; at least one rack and pinion system comprising: at least one freewheel sprocket having teeth; at least one driving rack configured to receive the teeth of the at least one freewheel sprocket ; characterised by a single guide block fixedly attached to the at least one driving rack , guide block having at least one mounting post ; and a guiderail configured to receive the guide block , wherein the guiderail has upper and lower guide tracks that are configured to receive the at least one mounting post , and are configured to allow the at least one mounting post free movement back and forth; and at least one user-controlled element attached to the at least two wheels and the guide block of the at least one rack and pinion system . at least two wheels ; at least one rack and pinion system comprising: at least one freewheel sprocket having teeth; at least one driving rack configured to receive the teeth of the at least one freewheel sprocket ; characterised by a single guide block fixedly attached to the at least one driving rack , guide block having at least one mounting post ; and a guiderail configured to receive the guide block , wherein the guiderail has upper and lower guide tracks that are configured to receive the at least one mounting post , and are configured to allow the at least one mounting post free movement back and forth; and at least one freewheel sprocket having teeth; at least one driving rack configured to receive the teeth of the at least one freewheel sprocket ; characterised by a single guide block fixedly attached to the at least one driving rack , guide block having at least one mounting post ; and a guiderail configured to receive the guide block , wherein the guiderail has upper and lower guide tracks that are configured to receive the at least one mounting post , and are configured to allow the at least one mounting post free movement back and forth; and at least one user-controlled element attached to the at least two wheels and the guide block of the at least one rack and pinion system .
A fusion protein for use in the treatment of cancer, wherein the fusion protein comprises: (a) a sema domain chosen from SEMA3C or Plexin B1; (b) a single Plexins-Semaphorins-Integrins domain (PSI domain); and (c) a half life extending moiety. (a) a sema domain chosen from SEMA3C or Plexin B1; (b) a single Plexins-Semaphorins-Integrins domain (PSI domain); and (c) a half life extending moiety.
A method for capability negotiation, comprising: establishing, by a first network entity, a capability negotiation session; negotiating, by the first network entity, one or more capabilities with a second network entity based on the capability negotiation session, wherein capabilities supported by the second network entity are recorded; obtaining , by the first network entity, a capability update message, wherein the capability update message comprises capability update information, and the capability update information indicates at least one capability to be updated of the first network entity; updating, by the first network entity, a capability indicated by the at least one capability;sending , by the first network entity, the capability update message to the second network entity based on the capability negotiation session established between the first network entity and a second network entity; determining, by the first network entity, from the recorded capabilities, a capability supported by both the first network entity and the second network entity, wherein the determining includes obtaining an intersection set between the recorded capability supported by the second network entity and an updated capability of the first network entity; and updating, by the first network entity, a capability of the negotiation session to the determined capability. establishing, by a first network entity, a capability negotiation session; negotiating, by the first network entity, one or more capabilities with a second network entity based on the capability negotiation session, wherein capabilities supported by the second network entity are recorded; obtaining , by the first network entity, a capability update message, wherein the capability update message comprises capability update information, and the capability update information indicates at least one capability to be updated of the first network entity; updating, by the first network entity, a capability indicated by the at least one capability;sending , by the first network entity, the capability update message to the second network entity based on the capability negotiation session established between the first network entity and a second network entity; determining, by the first network entity, from the recorded capabilities, a capability supported by both the first network entity and the second network entity, wherein the determining includes obtaining an intersection set between the recorded capability supported by the second network entity and an updated capability of the first network entity; and updating, by the first network entity, a capability of the negotiation session to the determined capability.
A process for producing an aqueous particle dispersion comprising the steps of: a) providing a dispersion consisting of water and solid core particles, b) providing an aqueous solution of a water-soluble, interfacially-active polymer having a molecular weight, determined by the method in the description, of more than 10 kDa c) mixing said aqueous dispersion of solid core particles with said aqueous polymer solution, d) removing free polymer from the obtained mixture; wherein, in step c), the amount of the water-soluble, interfacially-active polymer mixed with said aqueous dispersion of solid core particles exceeds the amount of polymer required to coat the surface of each of the solid core particles with a monolayer of the polymer, and wherein step d) is repeated until the surface tension, as determined by the method in the description, of the resulting modified particle dispersion is in a range of from 60 to 72 mN/m, preferably from 65 to 72 mN/m and more preferably from 67 to 72 mN/m. a) providing a dispersion consisting of water and solid core particles, b) providing an aqueous solution of a water-soluble, interfacially-active polymer having a molecular weight, determined by the method in the description, of more than 10 kDa c) mixing said aqueous dispersion of solid core particles with said aqueous polymer solution, d) removing free polymer from the obtained mixture; wherein, in step c), the amount of the water-soluble, interfacially-active polymer mixed with said aqueous dispersion of solid core particles exceeds the amount of polymer required to coat the surface of each of the solid core particles with a monolayer of the polymer, and wherein step d) is repeated until the surface tension, as determined by the method in the description, of the resulting modified particle dispersion is in a range of from 60 to 72 mN/m, preferably from 65 to 72 mN/m and more preferably from 67 to 72 mN/m.
A method of indicating cuts to be carried out on a workpiece mounted in a cutting machine with a cutting disc, the method comprising a step of visualizing at the same time or sequentially a succession of individual planned cuts to be applied to the workpiece by said cutting disc, prior to execution of said cuts, said visualizing being indications provided i) on the workpiece as lines by emitted light or ii) on an image of the workpiece, wherein a display at the processing machine or a mobile device is used for displaying said image, characterized by said cutting machine including a controller and a memory configured for receiving user input in the form of said cuts to be applied. characterized by said cutting machine including a controller and a memory configured for receiving user input in the form of said cuts to be applied.
A wound pad for use in a self-adhesive member such as a wound dressing, the wound pad comprising fibers and being provided with at least a first and a second discrete group of incisions (15a-c, 515a-d, 615a-e, 815a-c), wherein each one of said discrete groups of incisions comprises at least a first and a second incision, wherein said first and said second incision extend from a common starting point to a respective end point , wherein the end point of said first incision is spaced from the end point of said second incision, wherein the common starting point of said first group of incisions is provided on a first side of an imaginary line extending in the machine direction (MD) of said fibrous wound pad, and the common starting point of said second group of incisions is provided on a second side of said imaginary line, and wherein a first incision (15a, 515a, 615a-b, 615d, 815a) of said first group of incisions and a second incision (15b-c, 515d, 615c, 615e, 815b-c) of said second group of incisions each cross said imaginary line, wherein said wound pad comprises a distributing layer , comprising non-woven material, wherein said incisions extend through said distributing layer.
A method of processing lignocellulosic biomass comprising the steps of: - hydrothermally pretreating lignocellulosic biomass in such manner as to avoid agitation of the feedstock during pretreatment with water content during pretreatment between 40 and 85% by weight at pH within the range 3.0 - 8.0 and at temperature within the range 130 - 205 oC and with pretreatment conducted so as to achieve severity log Ro between 3.0 and 4.2 where Ro is residence time in minutes * EXP(reaction temperature in oC - 100/14.75); - using the pretreated feedstock or process residual derived from the pretreated feedstock as biomass input to an anaerobic digestion for production of biogas, an enzymatic saccharification or a fermentation for production of specific soluble products from which mass is removed in such manner as to produce at least one solid fraction and at least one liquid fraction by screening/ filtration or centrifugal separation which liquid fraction has a concentration of suspended lignin-rich microparticles that pass through filter paper with pore size 20 to 25 μm and that have lignin content > 60 wt. % of the non- ash content of at least 3 g/L; and - processing the at least one liquid fraction so as to concentrate the suspension or recover a purified solid fraction of suspended microparticle mass. - hydrothermally pretreating lignocellulosic biomass in such manner as to avoid agitation of the feedstock during pretreatment with water content during pretreatment between 40 and 85% by weight at pH within the range 3.0 - 8.0 and at temperature within the range 130 - 205 oC and with pretreatment conducted so as to achieve severity log Ro between 3.0 and 4.2 where Ro is residence time in minutes * EXP(reaction temperature in oC - 100/14.75); - using the pretreated feedstock or process residual derived from the pretreated feedstock as biomass input to an anaerobic digestion for production of biogas, an enzymatic saccharification or a fermentation for production of specific soluble products from which mass is removed in such manner as to produce at least one solid fraction and at least one liquid fraction by screening/ filtration or centrifugal separation which liquid fraction has a concentration of suspended lignin-rich microparticles that pass through filter paper with pore size 20 to 25 μm and that have lignin content > 60 wt. % of the non- ash content of at least 3 g/L; and - processing the at least one liquid fraction so as to concentrate the suspension or recover a purified solid fraction of suspended microparticle mass.
A method for use in determining fluid levels within a subject, the method including, in a processing device: a) determining at least one impedance value measured for the subject; b) determining physical dimensions for at least part of at least one segment of the subject; the physical dimensions are measured for the subject; c) using the physical dimensions to determine a shape factor at least partially indicative of a shape of the at least one segment; and, d) calculating a fluid indicator indicative of the fluid levels in the segment at least in part using the at least one impedance value and the shape factor; characterised in that the physical dimensions are measured for the subject by: i) capturing at least one image of the subject; ii) determining a silhouette of the subject from the at least one image; and iii) measuring the physical dimensions from the silhouette. a) determining at least one impedance value measured for the subject; b) determining physical dimensions for at least part of at least one segment of the subject; the physical dimensions are measured for the subject; c) using the physical dimensions to determine a shape factor at least partially indicative of a shape of the at least one segment; and, d) calculating a fluid indicator indicative of the fluid levels in the segment at least in part using the at least one impedance value and the shape factor; i) capturing at least one image of the subject; ii) determining a silhouette of the subject from the at least one image; and iii) measuring the physical dimensions from the silhouette.
A measurement position determination device configured to determine a measurement position (M) on a board (S), the measurement position (M) being for measuring height of the board (S) on which a component (P) is to be mounted, the measurement position determination device including a measurement position determination section configured to acquire one or more scheduled mounting positions of the component on the board at the time of measuring the board height, and to determine at least one of the acquired scheduled mounting positions as the measurement position (M) of the board height, wherein the scheduled mounting positions are mounting positions of the component (P) to be mounted on the board (S) by a component mounting machine , wherein the measurement position determination section is configured to acquire one or more temporary measurement positions (m) of the board height, and to determine, for each of the acquired temporary measurement positions (m), a scheduled mounting position, which is closest to the temporary measurement position (m) among the one or more acquired scheduled mounting positions, as the measurement position (M).
A preparation method of a lithium titanium composite oxide doped with a dissimilar metal, the preparation method comprising the steps: i) mixing a lithium-containing compound, a titanium oxide, and a dissimilar metal-containing compound at a stoichiometric ratio in a solid-state; ii) preparing slurry by dispersing the solid-state mixture of the step i) in a solvent and wet grinding the solid-state mixture until an average particle diameter come to be 0.3 μm to 0.8 μm; iii) spray-drying the slurry; iv) calcining the spray-dried slurry; and v) grinding the particles calcined in the step iv) to obtain the lithium titanium composite oxide doped with a dissimilar metal, wherein: the dissimilar metal is Na or Zr; and the ground particles obtained in step v) have a D50 in a range of 0.7 μm to 1.5 μm. i) mixing a lithium-containing compound, a titanium oxide, and a dissimilar metal-containing compound at a stoichiometric ratio in a solid-state; ii) preparing slurry by dispersing the solid-state mixture of the step i) in a solvent and wet grinding the solid-state mixture until an average particle diameter come to be 0.3 μm to 0.8 μm; iii) spray-drying the slurry; iv) calcining the spray-dried slurry; and v) grinding the particles calcined in the step iv) to obtain the lithium titanium composite oxide doped with a dissimilar metal, wherein: the dissimilar metal is Na or Zr; and the ground particles obtained in step v) have a D50 in a range of 0.7 μm to 1.5 μm. the dissimilar metal is Na or Zr; and the ground particles obtained in step v) have a D50 in a range of 0.7 μm to 1.5 μm.
A method for displaying data by a see-through head mounted display, HMD, , the method comprising: determining a first field of view of a user of the HMD; receiving sensor input from at least one sensor; detecting , using the sensor input, a first movement of the user's head about an axis, causing the user to have a second field of view; and causing the HMD to display one or more persistent data elements in the second field of view, based on the detected first movement; wherein detecting the first movement comprises detecting a downward tilt of the user's head; wherein the one or more persistent data elements comprises a map ; and wherein the second field of view includes a physical surface on which the user is located, and the map appears, from a perspective of the user , in a plane of the physical surface on which the user is located. determining a first field of view of a user of the HMD; receiving sensor input from at least one sensor; detecting , using the sensor input, a first movement of the user's head about an axis, causing the user to have a second field of view; and causing the HMD to display one or more persistent data elements in the second field of view, based on the detected first movement; wherein detecting the first movement comprises detecting a downward tilt of the user's head; wherein the one or more persistent data elements comprises a map ; and wherein the second field of view includes a physical surface on which the user is located, and the map appears, from a perspective of the user , in a plane of the physical surface on which the user is located.
A haptic interface device for presenting information to a user, comprising: an array comprising haptic stimulation elements configured to generate a stimulation pattern; and a controller configured to continually propagate the stimulation pattern on a user's skin in order to present the information, including repeatedly eliminate a portion of a first end of the stimulation pattern and replace the eliminated portion with a new portion at a second end of the stimulation pattern, characterized in that the array comprising haptic stimulation elements comprises a ring of haptic stimulation elements, wherein the controller is configured to rotate the array across the user's skin in order to propagate the stimulation pattern on the user's skin. an array comprising haptic stimulation elements configured to generate a stimulation pattern; and a controller configured to continually propagate the stimulation pattern on a user's skin in order to present the information, including repeatedly eliminate a portion of a first end of the stimulation pattern and replace the eliminated portion with a new portion at a second end of the stimulation pattern, characterized in that the array comprising haptic stimulation elements comprises a ring of haptic stimulation elements, wherein the controller is configured to rotate the array across the user's skin in order to propagate the stimulation pattern on the user's skin.