mhurhangee/ep-ind-claims huggingface dataset:
Method for the manufacture of a cushioning element for sports apparel, in particular for the manufacture of a shoe sole, from randomly arranged particles of an expanded material, the method comprising: a. loading a mold with particles of the expanded material, b. wherein the mold comprises at least a lower stamp and an upper stamp which can move relative to one another as well as at least one stationary part (1130; 1135), and c. wherein step a. of loading the mold comprises the sub-steps of: c.1. moving the lower stamp out of the mold and then loading particles of the expanded material into the mold from above, c.2. subsequently moving the lower stamp back into the mold until it has assumed its final position, and c.3. further loading the mold with particles of the expanded material and / or closing the mold. a. loading a mold with particles of the expanded material, b. wherein the mold comprises at least a lower stamp and an upper stamp which can move relative to one another as well as at least one stationary part (1130; 1135), and c. wherein step a. of loading the mold comprises the sub-steps of: c.1. moving the lower stamp out of the mold and then loading particles of the expanded material into the mold from above, c.2. subsequently moving the lower stamp back into the mold until it has assumed its final position, and c.3. further loading the mold with particles of the expanded material and / or closing the mold. c.1. moving the lower stamp out of the mold and then loading particles of the expanded material into the mold from above, c.2. subsequently moving the lower stamp back into the mold until it has assumed its final position, and c.3. further loading the mold with particles of the expanded material and / or closing the mold.
Industrial truck which is supported with a chassis on a carriageway, wherein the chassis has a steerable drive wheel which is driven by means of a travel drive, and two non-steered load wheels (8a, 8b), wherein the two load wheels (8a, 8b) are spaced apart from the drive wheel in the longitudinal direction of the vehicle and are arranged spaced apart laterally in the transverse direction of the vehicle, wherein at least one load wheel (8a; 8b) is arranged on a vehicle body of the industrial truck in a manner adjustable in the vertical direction, characterized in that the load wheel (8a; 8b) which is adjustable in the vertical direction is arranged rotatably about a wheel axis of rotation (D1; D3) on at least one eccentric disc (20a; 21a; 20b, 21b) which is mounted about an axis of rotation on the vehicle body, wherein the wheel axis of rotation (D1; D3) of the load wheel (8a; 8b) has an offset (V1; V2) with respect to the axis of rotation of the eccentric disc (20a, 21a; 20b, 21b).
An electrolyte solution for a lithium secondary battery, comprising: an additive including a compound represented by Chemical Formula 1; an organic solvent; and a lithium salt: wherein, in Chemical Formula 1, R 1 and R 2 are each independently hydrogen or a substituted or unsubstituted C 1 -C 5 alkyl group, X is O or S, and L is a substituted or unsubstituted C 1 -C 5 alkylene group. an additive including a compound represented by Chemical Formula 1; an organic solvent; and a lithium salt: wherein, in Chemical Formula 1, R 1 and R 2 are each independently hydrogen or a substituted or unsubstituted C 1 -C 5 alkyl group, X is O or S, and L is a substituted or unsubstituted C 1 -C 5 alkylene group.
Woodworking machine with a workpiece support for the workpieces to be machined, at least one machining assembly arranged between a front support region and a rear support region of the workpiece support, and a transport device for displacement of the workpieces lying on the workpiece support relative to the machining assembly in a first linear axis (X axis), wherein the machining assembly comprises a carrier which is displaceable in a second linear axis (Y axis) at right angles to the first linear axis (X axis) and in a third linear axis (Z axis) at right angles thereto and on which a machining unit configured as a motor spindle for reception of at least one rotationally driven machining tool is arranged so as to be pivotable about three axes of rotation (A axis, B axis, C axis), characterised in that the machining unit is arranged at the free end of an arm which is pivotable on the carrier about a first axis of rotation (A axis) and a second axis of rotation (B axis) at right angles to the first axis of rotation (A axis) so as to be pivotable about a third axis of rotation (C axis) arranged a distance from the first axis of rotation (A axis).
A process for producing a composite structure comprising a main structure and an external shell connected to the main structure, where the main structure comprises a molded foam obtainable from prefoamed foam particles and the external shell comprises a hollow structure open at one end or at two opposite ends, which comprises in a step a) fusing prefoamed foam particles in a mold by introducing a hot fluid with a temperature of from 105°C to 180°C to give a molded foam, and then demolding the molded foam at a mold temperature of from 40°C to 100°C, in a subsequent step b) cooling, to a temperature of from 5°C to 39°C, the molded foam removed from the mold, in a subsequent step c) introducing the cooled molded foam through an open end of a hollow structure into said hollow structure, and in a subsequent step d) heat-aging the hollow structure with the molded foam located therein over a period of from 0.5 h to 24 h at a temperature of from 40°C to 100°C, where a frictional connection is formed between the hollow structure and the molded foam.
A photoluminescent coating material comprising: a hydrocarbon-based solvent that has an aniline point of 40°C or higher; a resin that is incompatible with the hydrocarbon-based solvent; a solvent that is compatible with the hydrocarbon-based solvent and the resin while having a lower boiling point than the hydrocarbon-based solvent; and a scale-like aluminum, where, incompatible means that one component and the other component are separated from each other, and an interface between one layer and the other layer is formed, and compatible means that one component and the other component are not separated from each other, and no interface is formed between the respective components. a hydrocarbon-based solvent that has an aniline point of 40°C or higher; a resin that is incompatible with the hydrocarbon-based solvent; a solvent that is compatible with the hydrocarbon-based solvent and the resin while having a lower boiling point than the hydrocarbon-based solvent; and a scale-like aluminum, where, incompatible means that one component and the other component are separated from each other, and an interface between one layer and the other layer is formed, and compatible means that one component and the other component are not separated from each other, and no interface is formed between the respective components.
Method for extracting from a vertical pile a batch of stacked flat products that are not connected to one another and that form the top of said pile, to feed a storage unit of a machine equipped with a box shaper, comprising the sequence of steps consisting in - slightly separating the batch from the rest of the pile under it by using a separation means, - grasping the batch section by section using a gripping means, and - moving the batch in the direction of a storage unit of a treatment machine of the packaging or box shaper type, - the separation of the batch being carried out by initially bringing a support surface upward, against the bottom of the batch, characterized in that: - said separation means and gripping means are mounted in a frame that is designed to be mounted at the end of a robotic means, of the multi-axis robot type, - said movement of the batch being done by moving the frame using the robotic means, - the support surface coming upward and from below against the batch by traveling in a recess created by the scallopings of a plurality of products stacked under the batch. - slightly separating the batch from the rest of the pile under it by using a separation means, - grasping the batch section by section using a gripping means, and - moving the batch in the direction of a storage unit of a treatment machine of the packaging or box shaper type, - the separation of the batch being carried out by initially bringing a support surface upward, against the bottom of the batch, characterized in that: - said separation means and gripping means are mounted in a frame that is designed to be mounted at the end of a robotic means, of the multi-axis robot type, - said movement of the batch being done by moving the frame using the robotic means, - the support surface coming upward and from below against the batch by traveling in a recess created by the scallopings of a plurality of products stacked under the batch.
A computer-implemented method for determining the temporal progression of a biological phenomenon which may affect a studied subject, the biological phenomenon being a disease or ageing, the method comprising the steps of: - providing first data, the first data being biomarkers of the progression of the disease or ageing for the studied subject, - providing a numerical model, the numerical model being a function in a Riemann manifold, the numerical model associating to values of biomarkers a temporal progression trajectory for the biological phenomenon and the dispersion of the progression trajectory for the biological phenomenon among a plurality of subjects, the numerical model being obtained by using a stochastic approximation in an expectation-maximization technique on biomarkers taken at different time points for a plurality of subjects, - converting the first data into at least one point on the same Riemann manifold, and - using the numerical model on the at least one point obtained at the converting step to determine a temporal progression for the biological phenomenon for the studied subject. - providing first data, the first data being biomarkers of the progression of the disease or ageing for the studied subject, - providing a numerical model, the numerical model being a function in a Riemann manifold, the numerical model associating to values of biomarkers a temporal progression trajectory for the biological phenomenon and the dispersion of the progression trajectory for the biological phenomenon among a plurality of subjects, the numerical model being obtained by using a stochastic approximation in an expectation-maximization technique on biomarkers taken at different time points for a plurality of subjects, - converting the first data into at least one point on the same Riemann manifold, and - using the numerical model on the at least one point obtained at the converting step to determine a temporal progression for the biological phenomenon for the studied subject.
Process for obtaining process water or drinking water from water comprising radioactive nuclides, in particular from radium-containing groundwater, comprising • a chemical pre-treatment of the water comprising radioactive nuclides and • a filtration of the chemically pre-treated water, wherein, in the context of the chemical pre-treatment, manganese dioxide is added to the water and/or manganese dioxide is generated in situ in the water and wherein the chemically pre-treated water is filtered by means of at least one ceramic filter membrane. • a chemical pre-treatment of the water comprising radioactive nuclides and • a filtration of the chemically pre-treated water,
An exhaust treatment apparatus comprising: a casing having an inlet port configured to allow an exhaust gas to flow into the casing and an outlet port configured to allow a purified exhaust gas to be discharged from the casing; an exhaust fan provided in the casing, the exhaust fan being configured to send the exhaust gas from the inlet port to the outlet port; a chemical filter provided in at least one stage between the exhaust fan in the casing and the outlet port; at least one first pre-filter provided in a preceding stage of the chemical filter; and a second pre-filter provided between the chemical filter and the first pre-filter, characterized in that the second pre-filter is provided on a surface of the chemical filter, the at least one first pre-filter has a pressure loss higher than that of the chemical filter, and the second pre-filter has a pressure loss higher than that of the chemical filter and lower than that of the first pre-filter. a casing having an inlet port configured to allow an exhaust gas to flow into the casing and an outlet port configured to allow a purified exhaust gas to be discharged from the casing; an exhaust fan provided in the casing, the exhaust fan being configured to send the exhaust gas from the inlet port to the outlet port; a chemical filter provided in at least one stage between the exhaust fan in the casing and the outlet port; at least one first pre-filter provided in a preceding stage of the chemical filter; and a second pre-filter provided between the chemical filter and the first pre-filter, characterized in that the second pre-filter is provided on a surface of the chemical filter, the at least one first pre-filter has a pressure loss higher than that of the chemical filter, and the second pre-filter has a pressure loss higher than that of the chemical filter and lower than that of the first pre-filter.
Connector comprising - a contact support, at least two flat contacts and a secondary latching device having supporting arms; - wherein the contact support is provided with openings for inserting the secondary latching device for determining the flat contacts in the contact support; - wherein the flat contacts have primary latching devices at which the respective flat contact is supported at a corresponding latching means in the contact support; - wherein each flat contact is further provided with a latching opening for pass-through mounting of a secondary latching device and - wherein further the secondary latching device with its supporting arms for determining the flat contacts is inserted in its latching position in the openings of the contact support and protrudes with its supporting arms through the latching openings of the flat contacts and is undetachably connected with end-side formed supporting segments of the supporting arms with the contact support. - a contact support, at least two flat contacts and a secondary latching device having supporting arms; - wherein the contact support is provided with openings for inserting the secondary latching device for determining the flat contacts in the contact support; - wherein the flat contacts have primary latching devices at which the respective flat contact is supported at a corresponding latching means in the contact support; - wherein each flat contact is further provided with a latching opening for pass-through mounting of a secondary latching device and - wherein further the secondary latching device with its supporting arms for determining the flat contacts is inserted in its latching position in the openings of the contact support and protrudes with its supporting arms through the latching openings of the flat contacts and is undetachably connected with end-side formed supporting segments of the supporting arms with the contact support.
A toner conveying device to be used with an image forming apparatus, comprising: a conveying screw that has a rotary shaft and a conveying vane formed on an outer peripheral surface of said rotary shaft; a toner conveying pipe that has a circular section and inside which said conveying screw is rotatably disposed; and a plurality of convex portions that are formed on an inner wall surface of the toner conveying pipe, and each of which is formed within an area defined by half a circumference along the inner wall surface of the toner conveying pipe and is configured to support the conveying screw so that an axial center of the rotary shaft coincides with a center axis of the toner conveying pipe, wherein the convex portions are inclined faces (40a, 40b) that are formed at a lower portion of the inner wall surface of the toner conveying pipe so as to form a V-shape in the circular section of the toner conveying pipe symmetrical with respect to the center axis of the toner conveying pipe and so as to contact an outer peripheral edge portion of the conveying vane. a conveying screw that has a rotary shaft and a conveying vane formed on an outer peripheral surface of said rotary shaft; a toner conveying pipe that has a circular section and inside which said conveying screw is rotatably disposed; and a plurality of convex portions that are formed on an inner wall surface of the toner conveying pipe, and each of which is formed within an area defined by half a circumference along the inner wall surface of the toner conveying pipe and is configured to support the conveying screw so that an axial center of the rotary shaft coincides with a center axis of the toner conveying pipe, wherein the convex portions are inclined faces (40a, 40b) that are formed at a lower portion of the inner wall surface of the toner conveying pipe so as to form a V-shape in the circular section of the toner conveying pipe symmetrical with respect to the center axis of the toner conveying pipe and so as to contact an outer peripheral edge portion of the conveying vane.
Suppressor choke for surface mounting on a printed circuit board, having a wire coil which has a helical wire coil body extending along a winding axis and having connecting wires projecting at the respective ends of the wire coil body and projecting transversely to the winding axis, and having a holding means (3; 33; 53) coupled to the wire coil and extending along said wire coil body, said holding means (3; 33; 53) comprises a holding section (8; 35; 55) which is U-shaped for positively receiving a portion of the wire coil body and which is designed for fixing a connecting wire, wherein the wire coil being wound in such a way that the two connecting wires each take up an acute angle with a connecting plane before being received in the holding means.
An audio processing system, comprising: a plurality of microphones (110, 120) associated with a dynamic network of microphones; and a receiver coupled to the plurality of microphones (110, 120) and configured to: identify a first signal received by a microphone included in the plurality of microphones (110, 120) that is designated as a primary microphone; identify a subset of microphones included in the plurality of microphones (110, 120), wherein each microphone in the subset of microphones is associated with a respective signal that corresponds to the first signal; calculate a weighting factor for each microphone included in the subset of microphones based at least in part on the first signal and the respective signal; establish a connection with an additional microphone that is not included in the plurality of microphones (110, 120); and adjust a weighting factor for at least one of the microphones included in the subset of microphones based on a signal received from the additional microphone. a plurality of microphones (110, 120) associated with a dynamic network of microphones; and a receiver coupled to the plurality of microphones (110, 120) and configured to: identify a first signal received by a microphone included in the plurality of microphones (110, 120) that is designated as a primary microphone; identify a subset of microphones included in the plurality of microphones (110, 120), wherein each microphone in the subset of microphones is associated with a respective signal that corresponds to the first signal; calculate a weighting factor for each microphone included in the subset of microphones based at least in part on the first signal and the respective signal; establish a connection with an additional microphone that is not included in the plurality of microphones (110, 120); and adjust a weighting factor for at least one of the microphones included in the subset of microphones based on a signal received from the additional microphone. identify a first signal received by a microphone included in the plurality of microphones (110, 120) that is designated as a primary microphone; identify a subset of microphones included in the plurality of microphones (110, 120), wherein each microphone in the subset of microphones is associated with a respective signal that corresponds to the first signal; calculate a weighting factor for each microphone included in the subset of microphones based at least in part on the first signal and the respective signal; establish a connection with an additional microphone that is not included in the plurality of microphones (110, 120); and adjust a weighting factor for at least one of the microphones included in the subset of microphones based on a signal received from the additional microphone.
A panel dividing system for dividing planar workpieces (48, 49), comprising a feed table, a conveying device for transporting an output workpiece on the feed table in a first conveying direction, a dividing device arranged in the first conveying direction downstream of the feed table for dividing the output workpiece into a divided workpiece (48, 49), comprising a dividing line arranged transversely to the first conveying direction, and comprising a buffer device for buffering the divided workpiece (48, 49) before a further dividing operation, wherein the buffer device is designed such that the buffered workpiece (48, 49) can be moved therein in a second conveying direction at least towards the feed table, wherein, in the top view, the second conveying direction is oriented transversely to the first conveying direction.
Method for cooling a turbine stage, which has multiple guide blades, of a gas turbine, the guide blades of which are operable with cooling by a cooling medium and which has a cooling medium supply device (19 to 24) for supplying the cooling medium into the interior of the guide blades, wherein the guide blades have, in the region of their trailing edge and on their pressure side, at least one cooling medium outlet opening through which the cooling medium can be caused to flow out of the interior of the guide blades into the main flow, wherein the cooling medium supply device (19 to 24) has a mass flow control device for controlling the mass flow through the at least one cooling medium outlet opening, having the steps: - operating the gas turbine at part load; - controlling the mass flow control device such that the mass flow through the at least one cooling medium outlet opening is increased in relation to the mass flow through the at least one cooling medium outlet opening in full-load operation of the gas turbine, wherein the mass flow control device has a throttle valve for mass flow control, and the guide blade is designed, in full-load operation, for a mass flow of the cooling medium which is throttled by the throttle valve. - operating the gas turbine at part load; - controlling the mass flow control device such that the mass flow through the at least one cooling medium outlet opening is increased in relation to the mass flow through the at least one cooling medium outlet opening in full-load operation of the gas turbine,