mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method implemented by a streaming content delivery system, the computer-implemented method comprising: obtaining a request from a client computing device to provide a content stream; and in response to the request to provide the content stream: generating a manifest for the content stream, wherein the manifest includes identifiers for content portions to be output as part of the content stream, wherein the content portions are encoded according to a set of parameters, and wherein at least one content portion identified in the manifest to be output as part of the content stream is not yet available at the streaming content delivery system; transmitting the manifest identifying the at least one content portion that is not yet available at the streaming content delivery system to the client computing device; and beginning an encoding of a content file according to the set of parameters to result in the at least one content portion identified within the manifest; receiving a request for the at least one content portion; and transmitting the at least one content portion in response to the request. obtaining a request from a client computing device to provide a content stream; and in response to the request to provide the content stream: generating a manifest for the content stream, wherein the manifest includes identifiers for content portions to be output as part of the content stream, wherein the content portions are encoded according to a set of parameters, and wherein at least one content portion identified in the manifest to be output as part of the content stream is not yet available at the streaming content delivery system; transmitting the manifest identifying the at least one content portion that is not yet available at the streaming content delivery system to the client computing device; and beginning an encoding of a content file according to the set of parameters to result in the at least one content portion identified within the manifest; receiving a request for the at least one content portion; and transmitting the at least one content portion in response to the request. generating a manifest for the content stream, wherein the manifest includes identifiers for content portions to be output as part of the content stream, wherein the content portions are encoded according to a set of parameters, and wherein at least one content portion identified in the manifest to be output as part of the content stream is not yet available at the streaming content delivery system; transmitting the manifest identifying the at least one content portion that is not yet available at the streaming content delivery system to the client computing device; and beginning an encoding of a content file according to the set of parameters to result in the at least one content portion identified within the manifest; receiving a request for the at least one content portion; and transmitting the at least one content portion in response to the request.
An ostomy wafer comprising - an adhesive layer provided with a proximal surface in an axial direction facing the user during use, - a backing layer provided with a distal surface in an axial direction facing away from the user during use, - an opening having an inner radial boundary defining a stoma receiving opening, - an outer radial boundary defining the peripheral edge of the ostomy wafer, - the ostomy wafer being provided with a reinforcement structure arranged in an axial direction between the proximal surface and the distal surface and in a radial direction between the inner and outer radial boundary for preventing deformation of the stoma receiving opening in the longitudinal and/or the axial direction during use, - characterized in that the reinforcement structure is in the form of at least two discrete reinforcement members (36, 36') arranged on opposing sides of the stoma receiving opening in the radial direction. - an adhesive layer provided with a proximal surface in an axial direction facing the user during use, - a backing layer provided with a distal surface in an axial direction facing away from the user during use, - an opening having an inner radial boundary defining a stoma receiving opening, - an outer radial boundary defining the peripheral edge of the ostomy wafer, - the ostomy wafer being provided with a reinforcement structure arranged in an axial direction between the proximal surface and the distal surface and in a radial direction between the inner and outer radial boundary for preventing deformation of the stoma receiving opening in the longitudinal and/or the axial direction during use, - characterized in that the reinforcement structure is in the form of at least two discrete reinforcement members (36, 36') arranged on opposing sides of the stoma receiving opening in the radial direction.
A method of forming a silicone release layer on a substrate, for an intermediate transfer member of a digital offset printing system, the method including: a) providing a curable first primer on the substrate; b) providing a curable second primer on the substrate; c) providing a curable silicone release formulation on the curable first and second primers; and then d) curing the first primer, the second primer and the release formulation; characterised in that the first primer comprises an organosilane and a first catalyst, which comprises titanium; the second primer comprises an organosilane and a second catalyst which comprises platinum; the substrate is a rubber layer; and the first primer is curable by a condensation reaction and the second primer is curable by an addition reaction. a) providing a curable first primer on the substrate; b) providing a curable second primer on the substrate; c) providing a curable silicone release formulation on the curable first and second primers; and then d) curing the first primer, the second primer and the release formulation;
A method performed by a vehicle computer system of controlling a cruise control system of a vehicle, the method comprising, during operation of the vehicle: obtaining an adjustable cruise control deactivation setting for the vehicle, wherein the adjustable cruise control deactivation setting includes a threshold state of a windshield wiper system of the vehicle; receiving a first signal indicating a current state of the windshield wiper system; performing a comparison of the current state of the windshield wiper system with the threshold state; characterized by the following further steps: based at least in part on the comparison, activating an inclement driving condition function, wherein the inclement driving condition function includes: disabling functionality of the cruise control system if the cruise control system is in an inactive state; and initiating a process to deactivate functionality of the cruise control system if the cruise control system is in an active state. obtaining an adjustable cruise control deactivation setting for the vehicle, wherein the adjustable cruise control deactivation setting includes a threshold state of a windshield wiper system of the vehicle; receiving a first signal indicating a current state of the windshield wiper system; performing a comparison of the current state of the windshield wiper system with the threshold state; characterized by the following further steps: based at least in part on the comparison, activating an inclement driving condition function, wherein the inclement driving condition function includes: disabling functionality of the cruise control system if the cruise control system is in an inactive state; and initiating a process to deactivate functionality of the cruise control system if the cruise control system is in an active state. disabling functionality of the cruise control system if the cruise control system is in an inactive state; and initiating a process to deactivate functionality of the cruise control system if the cruise control system is in an active state.
A device for collecting blood comprising a reservoir and affinity molecules, wherein said device is configured such that said affinity molecules are exposed to said blood during the time of collecting said blood; wherein said affinity molecules are coated on the interior surface of said reservoir and are selected from the group consisting of antibodies, antibody fragments, enzymes, fragments of enzymes, enzyme substrates, fragments of enzyme substrates, nucleotides, oligonucleotides, polynucleotides, receptors, aptamers, nanobodies, fragments of receptors, ligands, fragments of enzymes, other proteins, amino acids, peptides, polypeptides, oligopeptides, saccharides, disaccharides, polysaccharides, glycoproteins, proteoglycans, and natural and synthetic polymers; said affinity molecules are covalently attached to said interior surface of the reservoir of the blood collecting device; and characterized in that a mechanical density separator is disposed within said reservoir. wherein said affinity molecules are coated on the interior surface of said reservoir and are selected from the group consisting of antibodies, antibody fragments, enzymes, fragments of enzymes, enzyme substrates, fragments of enzyme substrates, nucleotides, oligonucleotides, polynucleotides, receptors, aptamers, nanobodies, fragments of receptors, ligands, fragments of enzymes, other proteins, amino acids, peptides, polypeptides, oligopeptides, saccharides, disaccharides, polysaccharides, glycoproteins, proteoglycans, and natural and synthetic polymers; said affinity molecules are covalently attached to said interior surface of the reservoir of the blood collecting device; and characterized in that a mechanical density separator is disposed within said reservoir.
A weight exercise apparatus comprising: an exercise main body comprising a plurality of weight plates; a sensor module configured to detect weight setting of the exercise main body and movement of the weight plate; a user interface, UI unit configured to output a UI screen; a memory storing at least one instruction; and a processor configured to control the UI unit to display a UI element indicating an exercise state of a user corresponding to the detected movement on the UI screen, by executing the at least one instruction, characterized in that the sensor module comprises: a first laser sensor configured to have a first measurement accuracy and a first measurement frequency to detect weight setting of the exercise main body when the weight plate is in a stationary state; and a second laser sensor configured to have a second measurement accuracy lower than the first measurement accuracy and a second measurement frequency higher than the first measurement frequency to detect movement of the weight plate when the weight plate is in a moving state. an exercise main body comprising a plurality of weight plates; a sensor module configured to detect weight setting of the exercise main body and movement of the weight plate; a user interface, UI unit configured to output a UI screen; a memory storing at least one instruction; and a processor configured to control the UI unit to display a UI element indicating an exercise state of a user corresponding to the detected movement on the UI screen, by executing the at least one instruction, characterized in that the sensor module comprises: a first laser sensor configured to have a first measurement accuracy and a first measurement frequency to detect weight setting of the exercise main body when the weight plate is in a stationary state; and a second laser sensor configured to have a second measurement accuracy lower than the first measurement accuracy and a second measurement frequency higher than the first measurement frequency to detect movement of the weight plate when the weight plate is in a moving state. a first laser sensor configured to have a first measurement accuracy and a first measurement frequency to detect weight setting of the exercise main body when the weight plate is in a stationary state; and a second laser sensor configured to have a second measurement accuracy lower than the first measurement accuracy and a second measurement frequency higher than the first measurement frequency to detect movement of the weight plate when the weight plate is in a moving state.
An open circuit modular body flight simulation apparatus comprising: a base comprised of one or more air movement modules, each said module comprised of an air intake, one or more air movement component(s), airflow deflectors and conditioner components and an air exhaust opening connected to one or more air flow transition components; a tower having two or more flight areas (206, 207) being arranged one above the other, each pneumatically connected to said one or more air flow transition components, each said flight area shaped by the angle of the tower walls (202, 204), so that the lowest or first flight area has tower walls with an angle α, the second lowest flight area has tower walls with an angle β, wherein β is equal or larger than α, and any further flight areas have tower walls with wall angles larger than β; an exit structure having said air exhaust opening, said air exhaust opening pneumatically connected to the two or more flight areas (206, 207) and configured to exhaust air therefrom; and one or more opening(s) along the perimeter of said first flight area for allowing access to said first flight area. a base comprised of one or more air movement modules, each said module comprised of an air intake, one or more air movement component(s), airflow deflectors and conditioner components and an air exhaust opening connected to one or more air flow transition components; a tower having two or more flight areas (206, 207) being arranged one above the other, each pneumatically connected to said one or more air flow transition components, each said flight area shaped by the angle of the tower walls (202, 204), so that the lowest or first flight area has tower walls with an angle α, the second lowest flight area has tower walls with an angle β, wherein β is equal or larger than α, and any further flight areas have tower walls with wall angles larger than β; an exit structure having said air exhaust opening, said air exhaust opening pneumatically connected to the two or more flight areas (206, 207) and configured to exhaust air therefrom; and one or more opening(s) along the perimeter of said first flight area for allowing access to said first flight area.
A high voltage field effect transistor comprising: a substrate (16, 121) of a first conductivity type; a first region (17, 123) of a second conductivity type disposed in the substrate (16, 121), the first region (17, 123) having a laterally extended portion that forms a lateral boundary with the substrate (16, 121); a drain diffusion region (19, 131) of the second conductivity type disposed in the first region (17, 123) and separated from the lateral boundary by the laterally extended portion; a source diffusion region (14, 128) of the second conductivity type; an IGFET channel region formed between the source diffusion region and the lateral boundary; an insulated gate disposed above the IGFET channel region to control current flow in the channel region; a number k of first vertically spaced apart buried regions (60,150) of the first conductivity type disposed within the laterally extended portion of the first region and dividing the first region into multiple JFET conduction channels (41,160) interleaved with the first buried regions, k being equal to two or more; and a number k of additional second buried regions (65, 155) of the first conductivity type formed vertically spaced-apart from one another beneath the source diffusion region. a substrate (16, 121) of a first conductivity type; a first region (17, 123) of a second conductivity type disposed in the substrate (16, 121), the first region (17, 123) having a laterally extended portion that forms a lateral boundary with the substrate (16, 121); a drain diffusion region (19, 131) of the second conductivity type disposed in the first region (17, 123) and separated from the lateral boundary by the laterally extended portion; a source diffusion region (14, 128) of the second conductivity type; an IGFET channel region formed between the source diffusion region and the lateral boundary; an insulated gate disposed above the IGFET channel region to control current flow in the channel region; a number k of first vertically spaced apart buried regions (60,150) of the first conductivity type disposed within the laterally extended portion of the first region and dividing the first region into multiple JFET conduction channels (41,160) interleaved with the first buried regions, k being equal to two or more; and a number k of additional second buried regions (65, 155) of the first conductivity type formed vertically spaced-apart from one another beneath the source diffusion region.
Foldable container comprising a base, two pairs of posts (31a, 31b; 32a, 32b) and a top frame (41a, 41b, 42a, 42b, 43a, 43b, 44), the posts being articulated on the base so as to be able to pivot about a rotation axis parallel to one of the lateral edges (22a, 22b) of the base between an upright position in which they are perpendicular to the base and a folded position in which they are folded down in the direction of the base, the top frame being provided with guide rails (41a, 41b) disposed orthogonally to the rotation axis of the posts and each post (31a, 31b, 32a, 32b) being provided with a roller (37, 38) that can slide in one of the guide rails, characterised in that the top frame comprises a first pair of guide rails (41a, 41b) parallel to each other and disposed orthogonally to the rotation axis of the posts, and a second pair of guide rails (43a, 43b) parallel to each other and orthogonal to the rotation axis of the posts, each guide rail (43a, 43b) of the second pair being articulated on one of the guide rails (41a, 41b) of the first pair so as to be able to pivot with respect thereto and to form two sets of two guide rails (41a, 43a; 41b, 43b) each, the rollers of the first pair of posts (31a, 31b) sliding in the guide rails (43a, 43b) of the second pair of guide rails and the rollers of the second pair of posts (32a, 32b) sliding in the guide rails (41a, 41b) of the first pair of guide rails.
A monoclonal antibody having a specific reactivity with amylospheroid which is higher than the antibody's reactivity with amyloid precursor protein, wherein said antibody is a hamster antibody produced from a hybridoma having an accession number of either FERM BP-10871 or FERM BP-10872 or a humanised antibody produced therefrom, and having a reactivity with amylospheroid at least 50 times higher than with monomeric amyloid β-protein Aβ1-40, in a system wherein a reactivity of an antibody with amylospheroid is compared with a reactivity of the antibody with monomeric amyloid β-proteins at the same antibody concentration, antibody amount, antigen protein concentration, and antigen protein amount.; and having any one or more of the following properties: (i) a reactivity with amylospheroid at least 3 times higher than with amyloid β fibrils, in a system wherein a reactivity of an antibody with amylospheroid is compared with a reactivity of the antibody with amyloid β fibrils at the same antibody concentration, antibody amount, antigen protein concentration, and antigen protein amount; and (ii) an activity of inhibiting the neuronal cell death induced by amylospheroid. (i) a reactivity with amylospheroid at least 3 times higher than with amyloid β fibrils, in a system wherein a reactivity of an antibody with amylospheroid is compared with a reactivity of the antibody with amyloid β fibrils at the same antibody concentration, antibody amount, antigen protein concentration, and antigen protein amount; and (ii) an activity of inhibiting the neuronal cell death induced by amylospheroid.
A cold rolled steel sheet with superior formability and high yield ratio, the cold rolled steel sheet having a composition comprising 0.01% or less of C, 0.01-0.2% of Cu, 0.005-0.08% of S, 0.1% or less of Al, 0.004% or less of N, 0.2% or less of P, 0.0001-0.002% of B, 0.002-0.04% of Nb, 0.005-0.15% of Ti, optionally at least one of 0.1-0.8% of Si and 0.2-1.2% of Cr, optionally 0.01-0.2% of Mo, by weight, and the balance of Fe and other unavoidable impurities, wherein the composition satisfies the following relationships: 1 ≤ (Cu/63.5)/(S*/32) ≤ 30 and S* = S - 0.8 x (Ti - 0.8 x (48/14) x N) x (32/48), and wherein the steel sheet comprises CuS precipitates having an average size of 0.2 μm or less.
Direct-drive wind turbine, - wherein a rotor of the wind turbine is directly connected with a rotatable drive train of the wind turbine, - wherein the rotatable drive train is directly connected with a rotor of an electrical generator of the wind turbine, - wherein the rotatable drive train is connected with a stationary part of the wind turbine via at least one bearing, which allows the rotation of the drive train in relation to the stationary part, - wherein the electrical generator provides a support structure to which the stationary side of the at least one bearing is mounted, - wherein the at least one bearing is a plain bearing - wherein the plain bearing comprises a wear-and-tear-part, which is an object to be exchanged, characterized in that - the rotatable drive train is prepared to be fastened to the stationary part of the wind turbine, so that the drive train is fixable in its position by the fastened connection, so that the weight of the rotor of the wind turbine, the drive train and the rotor of the generator is transferred to the stationary part of the wind turbine via the fastened connection between the drive train and the stationary part, - wherein at least one wear-and-tear-part of the plain bearing is exchangeable while the rotatable drive train is fastened to the stationary part. - wherein a rotor of the wind turbine is directly connected with a rotatable drive train of the wind turbine, - wherein the rotatable drive train is directly connected with a rotor of an electrical generator of the wind turbine, - wherein the rotatable drive train is connected with a stationary part of the wind turbine via at least one bearing, which allows the rotation of the drive train in relation to the stationary part, - wherein the electrical generator provides a support structure to which the stationary side of the at least one bearing is mounted, - wherein the at least one bearing is a plain bearing - wherein the plain bearing comprises a wear-and-tear-part, which is an object to be exchanged, - the rotatable drive train is prepared to be fastened to the stationary part of the wind turbine, so that the drive train is fixable in its position by the fastened connection, so that the weight of the rotor of the wind turbine, the drive train and the rotor of the generator is transferred to the stationary part of the wind turbine via the fastened connection between the drive train and the stationary part, - wherein at least one wear-and-tear-part of the plain bearing is exchangeable while the rotatable drive train is fastened to the stationary part.