mhurhangee/ep-ind-claims huggingface dataset:
A bioclimatic building comprising - a solar energy collector system, - and a thermal distribution and emission system, wherein the solar energy collector system and the thermal distribution and emission system comprise - at least one serpentine tube configured for a heat carrier fluid to pass through it, arranged in the interior of - a layer of concrete, characterized in that the layer of concrete is composed by a mixture of cement agglomerates and aggregates comprising a composition which in turn comprises silicon carbide, - the silicon carbide having a grain size greater than 1 millimeter in at least 30% by volume with respect to the total volume of concrete - the total volume of said composition being at least 45% with respect to the total volume of concrete. - a solar energy collector system, - and a thermal distribution and emission system, wherein the solar energy collector system and the thermal distribution and emission system comprise - at least one serpentine tube configured for a heat carrier fluid to pass through it, arranged in the interior of - a layer of concrete, characterized in that the layer of concrete is composed by a mixture of cement agglomerates and aggregates comprising a composition which in turn comprises silicon carbide, - the silicon carbide having a grain size greater than 1 millimeter in at least 30% by volume with respect to the total volume of concrete - the total volume of said composition being at least 45% with respect to the total volume of concrete. - the silicon carbide having a grain size greater than 1 millimeter in at least 30% by volume with respect to the total volume of concrete - the total volume of said composition being at least 45% with respect to the total volume of concrete.
A lashing anchor for anchoring to an anchoring opening comprising - a lashing abutment, - a first plate-shaped pivot portion, - a second plate-shaped pivot portion, and - a joint which connects the pivot portions (2, 3) pivotably relative to each other, characterised in that the pivot portions (2, 3) - extend transversely relative to a pivot axis passing through the joint, - are arrange in mutually juxtaposed relationship in the direction of the pivot axis, - each have at least one extension, - are pivotable about the pivot axis relative to each other between a first and a second pivotal position, wherein the extensions arranged on different pivot portions (2, 3) are at a first spacing in the first pivotal position and are at a second larger spacing in the second pivotal position, wherein the extensions are adapted to engage in the second pivotal position behind an edge forming the anchoring opening, and - each have at least one opening (6, 6', 7, 7'), wherein the openings (6, 6', 7, 7') arranged at or in different pivot portions (2, 3) are aligned in the second pivotal position of the pivot portions (2, 3) so that the pivot portions (2, 3) in the second pivotal position are lockable in relation to a pivotal movement of the pivot portions (2, 3) relative to each other about the pivot axis by inserting a locking means into the aligned openings (6, 6', 7, 7'). - a lashing abutment, - a first plate-shaped pivot portion, - a second plate-shaped pivot portion, and - a joint which connects the pivot portions (2, 3) pivotably relative to each other, characterised in that the pivot portions (2, 3) - extend transversely relative to a pivot axis passing through the joint, - are arrange in mutually juxtaposed relationship in the direction of the pivot axis, - each have at least one extension, - are pivotable about the pivot axis relative to each other between a first and a second pivotal position, wherein the extensions arranged on different pivot portions (2, 3) are at a first spacing in the first pivotal position and are at a second larger spacing in the second pivotal position, wherein the extensions are adapted to engage in the second pivotal position behind an edge forming the anchoring opening, and - each have at least one opening (6, 6', 7, 7'), wherein the openings (6, 6', 7, 7') arranged at or in different pivot portions (2, 3) are aligned in the second pivotal position of the pivot portions (2, 3) so that the pivot portions (2, 3) in the second pivotal position are lockable in relation to a pivotal movement of the pivot portions (2, 3) relative to each other about the pivot axis by inserting a locking means into the aligned openings (6, 6', 7, 7').
A method for performing dense resource allocations for a User Equipment using semi-persistent scheduling, the method performed at a base station and comprising: generating an SPS configuration to include a short cycle and a long cycle, wherein the short cycle defines a repetition interval of multiple SPS resource allocations, and the long cycle defines when the short cycle is active; and signaling the SPS configuration to the UE to allocate the multiple SPS resources to the UE. generating an SPS configuration to include a short cycle and a long cycle, wherein the short cycle defines a repetition interval of multiple SPS resource allocations, and the long cycle defines when the short cycle is active; and signaling the SPS configuration to the UE to allocate the multiple SPS resources to the UE.
A compound which is butane-1,1,4-triphosphonic acid, pentane-1,1,5-triphosphonic acid, pentane-2,2,5-triphosphonic acid, hexane-2,2,6-triphosphonic acid, pentane-1,1,5,5-tetraphosphonic acid, heptane-1,4,4,7-tetraphosphonic acid, or a salt thereof.
A process for producing a toner for electrophotography, comprising the step of fusing aggregated particles containing resin particles and releasing agent particles in an aqueous mixed solution containing the aggregated particles and an anionic surfactant having a polyalkylene glycol moiety with an average molar number of addition of an alkylene oxide having 2 to 3 carbon atoms of from 5 to 100, after and/or while adjusting a pH value of the aqueous mixed solution to 2.0 to 6.0 as measured at 25°C.
A blade unit for a safety razor, comprising: a connecting structure configured to fix the blade unit to a handle; a blade housing comprising a plurality of blades having respective cutting edges lying in a shaving plane and being arranged to exert a cutting action when moved across a user's skin in a shaving direction (d); and a rear portion arranged next to the plurality of blades in the shaving direction, the rear portion being characterised in that it comprises a non-flexible back portion extending parallel to the shaving plane, and a lubricating pad consisting of a flexible portion and a non-flexible portion, the non-flexible portion of the lubricating pad being arranged on and supported by the non-flexible back portion, the flexible portion of the lubricating pad extending rearwards from the non-flexible portion of the lubricating pad beyond the non-flexible back portion to define a rear edge of the rear portion of the blade unit, the flexible portion of the lubricating pad being configured to form a convex skin-contacting surface when bending away from the shaving plane in use. a connecting structure configured to fix the blade unit to a handle; a blade housing comprising a plurality of blades having respective cutting edges lying in a shaving plane and being arranged to exert a cutting action when moved across a user's skin in a shaving direction (d); and a rear portion arranged next to the plurality of blades in the shaving direction, the rear portion being characterised in that it comprises a non-flexible back portion extending parallel to the shaving plane, and a lubricating pad consisting of a flexible portion and a non-flexible portion, the non-flexible portion of the lubricating pad being arranged on and supported by the non-flexible back portion, the flexible portion of the lubricating pad extending rearwards from the non-flexible portion of the lubricating pad beyond the non-flexible back portion to define a rear edge of the rear portion of the blade unit, the flexible portion of the lubricating pad being configured to form a convex skin-contacting surface when bending away from the shaving plane in use.
A pipe joint made of synthetic resin, comprising: a joint body made of synthetic resin, the joint body having a male screw portion on an outer circumferential portion, the joint body being mounted to a leading end portion of a tube made of synthetic resin; and a union nut made of synthetic resin, the union nut having a female screw portion formed on an inner circumferential portion such that the female screw portion is tightened onto the male screw portion of the joint body, wherein one surface of an outer circumferential surface of the joint body and an inner circumferential surface of the union nut has a projection portion integrated with the one surface such that the projection portion projects in a radial direction, and the other surface of the outer circumferential surface of the joint body and the inner circumferential surface of the union nut has a convex or concave engagement portion integrated with the other surface such that the engagement portion engages with the projection portion when the union nut is tightened up to an appropriate position, characterised by a contact surface with which an end surface of the union nut enters into contact simultaneously when the engagement portion engages with the projection portion, is formed on the outer circumferential portion of the joint body. a joint body made of synthetic resin, the joint body having a male screw portion on an outer circumferential portion, the joint body being mounted to a leading end portion of a tube made of synthetic resin; and a union nut made of synthetic resin, the union nut having a female screw portion formed on an inner circumferential portion such that the female screw portion is tightened onto the male screw portion of the joint body, wherein one surface of an outer circumferential surface of the joint body and an inner circumferential surface of the union nut has a projection portion integrated with the one surface such that the projection portion projects in a radial direction, and the other surface of the outer circumferential surface of the joint body and the inner circumferential surface of the union nut has a convex or concave engagement portion integrated with the other surface such that the engagement portion engages with the projection portion when the union nut is tightened up to an appropriate position, characterised by a contact surface with which an end surface of the union nut enters into contact simultaneously when the engagement portion engages with the projection portion, is formed on the outer circumferential portion of the joint body.
- Computer implemented method for processing a seismic image obtained from seismic measurements performed on a geological formation, said method comprising: - determining a relative geological time, RGT, image based on the seismic image; - obtaining setpoints for the RGT image, said setpoints representing constraints to be satisfied by a reference RGT surface to be determined; - retrieving an RGT surface of the RGT image for each of the setpoints, wherein each point of an RGT surface is defined by a vertical position and at least one horizontal position; - determining the reference RGT surface by combining the RGT surfaces determined for the setpoints, wherein the vertical position of a point of the reference RGT surface is obtained by combining the vertical positions of the points of the RGT surfaces having the same at least one horizontal position as the considered point of the reference RGT surface; wherein said combining of the vertical positions uses weighting coefficients; wherein the value of a weighting coefficient used for the vertical position of an RGT surface decreases with a distance between the at least one horizontal position of the considered point of the reference RGT surface and the at least one horizontal position of the setpoint associated to the considered RGT surface. - determining a relative geological time, RGT, image based on the seismic image; - obtaining setpoints for the RGT image, said setpoints representing constraints to be satisfied by a reference RGT surface to be determined; - retrieving an RGT surface of the RGT image for each of the setpoints, wherein each point of an RGT surface is defined by a vertical position and at least one horizontal position; - determining the reference RGT surface by combining the RGT surfaces determined for the setpoints, wherein the vertical position of a point of the reference RGT surface is obtained by combining the vertical positions of the points of the RGT surfaces having the same at least one horizontal position as the considered point of the reference RGT surface; wherein said combining of the vertical positions uses weighting coefficients; wherein the value of a weighting coefficient used for the vertical position of an RGT surface decreases with a distance between the at least one horizontal position of the considered point of the reference RGT surface and the at least one horizontal position of the setpoint associated to the considered RGT surface.
Ocrelizumab for use in the treatment of multiple sclerosis in a patient, wherein an effective amount of ocrelizumab is administered to the patient to provide an initial ocrelizumab exposure of 0.6 grams followed by a second ocrelizumab exposure of 0.6 grams, wherein the initial ocrelizumab exposure comprises a first dose and a second dose of ocrelizumab, wherein the first dose and second dose of ocrelizumab are each 0.3 grams, wherein the second dose is administered 14 days after the first dose, wherein the second ocrelizumab exposure is provided approximately 24 weeks after the initial exposure, and wherein the second ocrelizumab exposure comprises a single dose of ocrelizumab, wherein the single dose of ocrelizumab is 0.6 grams.
Method of manufacturing an element for a bodywork part successively comprising the following steps: - Step A: producing a support element (10, 20) having a first face (11, 21) on which a support sheet is fixed comprising at least one connection member. - Step B: arranging at least one heating track on the support element (10, 20), the heating track being arranged on the first face (11, 21) of the support element (10, 20), - Step C: connecting the heating track to the connection member, - Step D: arranging the support element (10, 20) in a molding chamber of a mold defining the shape of the element for a bodywork part, the first face (11, 21) of the support element (10, 20) facing the inside of the molding chamber, and injecting a plastic material into the molding chamber in order to cover the heating track, Le method being characterized in that the following step before step D: - Arranging protective means for the connection member on the support sheet so as to at least partially protect the connection member from the plastic material during step D. - Step A: producing a support element (10, 20) having a first face (11, 21) on which a support sheet is fixed comprising at least one connection member. - Step B: arranging at least one heating track on the support element (10, 20), the heating track being arranged on the first face (11, 21) of the support element (10, 20), - Step C: connecting the heating track to the connection member, - Step D: arranging the support element (10, 20) in a molding chamber of a mold defining the shape of the element for a bodywork part, the first face (11, 21) of the support element (10, 20) facing the inside of the molding chamber, and injecting a plastic material into the molding chamber in order to cover the heating track, - Arranging protective means for the connection member on the support sheet so as to at least partially protect the connection member from the plastic material during step D.
A vacuum processing apparatus, comprising: a processing chamber in which a target (10; 31) to be processed is set, the processing chamber being capable of maintaining a vacuum atmosphere, an electron gun that is provided adjacently to the processing chamber and emits an electron beam to heat the target to be processed; an electron beam focusing mechanism that is provided in the processing chamber and focuses the electron beam emitted from the electron gun, characterised by a first focusing coil provided in the electron gun, a second focusing coil provided in the electron beam focusing mechanism, and a third focusing coil provided in the electron beam focusing mechanism, for focusing the electron beam, wherein the electron beam focusing mechanism includes a thermocouple (56 - 59) that measures a temperature at a pass point of the electron beam, a vacuum evacuation system that is provided between the first focusing coil and the second focusing coil, and/or the second focusing coil and the third focusing coil, an inert gas supply mechanism for supplying an inert gas for the purpose of pressure adjustment, and a control unit that controls a pressure in the electron beam focusing mechanism, by using the vacuum evacuation system and the inert gas supply mechanism, based on a measurement result by the thermocouple (56 - 59). a processing chamber in which a target (10; 31) to be processed is set, the processing chamber being capable of maintaining a vacuum atmosphere, an electron gun that is provided adjacently to the processing chamber and emits an electron beam to heat the target to be processed; an electron beam focusing mechanism that is provided in the processing chamber and focuses the electron beam emitted from the electron gun, characterised by a first focusing coil provided in the electron gun, a second focusing coil provided in the electron beam focusing mechanism, and a third focusing coil provided in the electron beam focusing mechanism, for focusing the electron beam, wherein the electron beam focusing mechanism includes a thermocouple (56 - 59) that measures a temperature at a pass point of the electron beam, a vacuum evacuation system that is provided between the first focusing coil and the second focusing coil, and/or the second focusing coil and the third focusing coil, an inert gas supply mechanism for supplying an inert gas for the purpose of pressure adjustment, and a control unit that controls a pressure in the electron beam focusing mechanism, by using the vacuum evacuation system and the inert gas supply mechanism, based on a measurement result by the thermocouple (56 - 59).
Driverless transport vehicle, in particular for transporting load carriers, which has a mobile subframe and a load support platform for supporting a load carrier, wherein the subframe is arranged in the vertical direction underneath the load support platform, and the load support platform is arranged such that it can be raised and lowered in the vertical direction by means of a lifting device on a vehicle frame of the subframe, wherein the lifting device is configured as a threaded spindle drive having at least one vertically arranged threaded spindle drive mechanism (50a; 50b; 50c), wherein at least one vertically arranged linear guide device is arranged between the vehicle frame and the load support platform and is configured in such a way that forces in a plane lying at right angles to a vertically arranged spindle axis of the threaded spindle drive mechanism (50a; 50b; 50c) are transferred from the load support platform to the vehicle frame by the linear guide device, characterized in that the linear guide device has at least one linear guide (81; 82), which has a guide rod (85; 87) which is fixed to the load support platform and is guided in a sliding guide (86; 88) arranged on the vehicle frame.
A method of characterizing a plurality of particles, comprising: flowing the plurality of particles through a field of view of a holographic video microscopy system; generating a hologram based upon holographic video microscopy of a first particle of the plurality of particles, which is within the field of view at a first time; determining, by application of Lorenz-Mie theory, the refractive index and the radius of the first particle at the first time, said determining comprising determining a probability density for refractive index and radius for the first particle; generating a hologram based upon holographic video microscopy of a second particle of the plurality of particles, which is within the field of view at a second time; and determining, by application of Lorenz-Mie theory, the refractive index and the radius of the second particle at the second time, said determining comprising determining a probability density for refractive index and radius for the second particle; and further comprising, monitoring post-synthesis stability of the plurality of particles wherein the first time and second time are after synthesis of the plurality of particles. flowing the plurality of particles through a field of view of a holographic video microscopy system; generating a hologram based upon holographic video microscopy of a first particle of the plurality of particles, which is within the field of view at a first time; determining, by application of Lorenz-Mie theory, the refractive index and the radius of the first particle at the first time, said determining comprising determining a probability density for refractive index and radius for the first particle; generating a hologram based upon holographic video microscopy of a second particle of the plurality of particles, which is within the field of view at a second time; and determining, by application of Lorenz-Mie theory, the refractive index and the radius of the second particle at the second time, said determining comprising determining a probability density for refractive index and radius for the second particle; and further comprising, monitoring post-synthesis stability of the plurality of particles wherein the first time and second time are after synthesis of the plurality of particles.