mhurhangee/ep-ind-claims huggingface dataset:
A separation method of a continuous fiber bundle, comprising separating the continuous fiber bundle so as to form therein separated portions and unseparated portions by intermittently piercing the continuous fiber bundle with a plurality of blades aligned at predetermined intervals in a width direction of the continuous fiber bundle, such that the resultant plurality of separated fiber bundles remain partially unseparated, wherein either or both of the condition and below are satisfied: the plurality of blades pierces the continuous fiber bundle from the side opposite where paired guide members are positioned, the paired guide members being positioned on both sides of the blade in a transport direction of the continuous fiber bundle, and the condition specified in formula below is satisfied: 0.9 ≦ a / a + b < 1 wherein in formula, "a" is a length of the separated portion, and "b" is a length of the unseparated portion; or a spacer member is positioned between every adjacent two of the plurality of blades and the plurality of blades pierce the continuous fiber bundle up to the point where the spacer member makes contact with the continuous fiber bundle. comprising separating the continuous fiber bundle so as to form therein separated portions and unseparated portions by intermittently piercing the continuous fiber bundle with a plurality of blades aligned at predetermined intervals in a width direction of the continuous fiber bundle, such that the resultant plurality of separated fiber bundles remain partially unseparated, wherein either or both of the condition and below are satisfied: the plurality of blades pierces the continuous fiber bundle from the side opposite where paired guide members are positioned, the paired guide members being positioned on both sides of the blade in a transport direction of the continuous fiber bundle, and the condition specified in formula below is satisfied: 0.9 ≦ a / a + b < 1 wherein in formula, "a" is a length of the separated portion, and "b" is a length of the unseparated portion; or a spacer member is positioned between every adjacent two of the plurality of blades and the plurality of blades pierce the continuous fiber bundle up to the point where the spacer member makes contact with the continuous fiber bundle. the plurality of blades pierces the continuous fiber bundle from the side opposite where paired guide members are positioned, the paired guide members being positioned on both sides of the blade in a transport direction of the continuous fiber bundle, and the condition specified in formula below is satisfied: 0.9 ≦ a / a + b < 1 wherein in formula, "a" is a length of the separated portion, and "b" is a length of the unseparated portion; or a spacer member is positioned between every adjacent two of the plurality of blades and the plurality of blades pierce the continuous fiber bundle up to the point where the spacer member makes contact with the continuous fiber bundle.
A composite pressure container for fluids, comprising an inner fluid-tight liner layer and a pressure supporting layer formed by winding fibre-reinforcement onto the liner layer, as well as at least a central opening in one end provided with a boss and a coupling or valve member, the boss is adapted for mounting the coupling or valve member, and comprises mounting means (24, 26) adapted to receive the coupling or valve member, wherein the coupling or valve member comprises at least one O-ring on an engaging surface for engagement with the mounting means, wherein the boss comprises an imbedded member at least imbedded towards the inside of the pressure container, and wherein the boss comprises a lip arranged to be positioned between the imbedded member and the engaging surface of the coupling or valve member, wherein the radial thickness D of the lip is proportional with the test pressure for which the container is intended, characterized in that the ShoreA hardness H of the at least one O-ring is: 70 ≤ H ≤ 90, the material diameter d in mm of the at least one O-ring is: 1 ≤ d ≤ 6, the maximum radial thickness Dmax of the lip in mm is: -0.0005*p+3.005, wherein p = test pressure in bar, and the radial thickness D of the lip is Dmin ≤ D ≤ Dmax, wherein Dmin = minimum radial thickness of the lip in mm and Dmin = -0.000125*p+0.35
Operating fluid container composed of thermoplastic for a motor vehicle, wherein the operating fluid container has the following features: - the operating fluid container comprises a reinforcing element (10; 11, 12); - the reinforcing element (10; 11, 12) is arranged between two container walls (2, 3) of the operating fluid container and is at least indirectly joined to the container walls (2, 3), wherein the operating fluid container is characterized by the following features: - the container walls (2, 3) are joined to one another indirectly via the reinforcing element (10; 11, 12) by means of at least one joining element (20; 21 - 25); - the joining element (20; 21 - 25) comprises at least two material layers (21 - 25) joined to one another; and - a joining force joining the two material layers (21, 22) to one another is less than a joining force between the joining element (20; 21 - 25) and the container wall (2, 3) and/or between the joining element (20; 21 - 25) and the reinforcing element (10; 11, 12). - the operating fluid container comprises a reinforcing element (10; 11, 12); - the reinforcing element (10; 11, 12) is arranged between two container walls (2, 3) of the operating fluid container and is at least indirectly joined to the container walls (2, 3), - the container walls (2, 3) are joined to one another indirectly via the reinforcing element (10; 11, 12) by means of at least one joining element (20; 21 - 25); - the joining element (20; 21 - 25) comprises at least two material layers (21 - 25) joined to one another; and - a joining force joining the two material layers (21, 22) to one another is less than a joining force between the joining element (20; 21 - 25) and the container wall (2, 3) and/or between the joining element (20; 21 - 25) and the reinforcing element (10; 11, 12).
Process for obtaining ditrimethylolpropane and trimethylolpropane-enriched product streams from the high-boiling fractions and residues which are obtained in the distillative purification of trimethylolpropane, characterized in that: (a) these high-boiling fractions and residues are combined and a polar solvent is added to produce a solution; (b) the solution produced according to step a) is treated at a temperature of 160 to 280°C and at a pressure of 1 to 30 MPa with hydrogen in the presence of a catalyst and of an acidic compound; (c) the solution obtained according to step b) is removed from the catalyst and further solids, if present; (d) the solution obtained according to step c) is separated in a first distillation unit into a tops fraction comprising the polar solvent and low boilers and into a bottoms fraction with a content of the polar solvent up to 5000 ppm by weight, based on the bottoms fraction; (e) the bottoms fraction obtained according to step d) is supplied to a second distillation unit with at least 5 theoretical plates, said unit being configured as a thin-film evaporator with a column attachment, and a trimethylolpropane-enriched tops fraction is drawn off and a bottoms fraction is withdrawn; and (f) the bottoms fraction obtained according to step e) is supplied to a third distillation unit with at least 4 theoretical plates, said unit being configured as a thin-film evaporator with a column attachment, in which ditrimethylolpropane is obtained as the tops fraction and high boilers are removed as the bottoms fraction. (a) these high-boiling fractions and residues are combined and a polar solvent is added to produce a solution; (b) the solution produced according to step a) is treated at a temperature of 160 to 280°C and at a pressure of 1 to 30 MPa with hydrogen in the presence of a catalyst and of an acidic compound; (c) the solution obtained according to step b) is removed from the catalyst and further solids, if present; (d) the solution obtained according to step c) is separated in a first distillation unit into a tops fraction comprising the polar solvent and low boilers and into a bottoms fraction with a content of the polar solvent up to 5000 ppm by weight, based on the bottoms fraction; (e) the bottoms fraction obtained according to step d) is supplied to a second distillation unit with at least 5 theoretical plates, said unit being configured as a thin-film evaporator with a column attachment, and a trimethylolpropane-enriched tops fraction is drawn off and a bottoms fraction is withdrawn; and (f) the bottoms fraction obtained according to step e) is supplied to a third distillation unit with at least 4 theoretical plates, said unit being configured as a thin-film evaporator with a column attachment, in which ditrimethylolpropane is obtained as the tops fraction and high boilers are removed as the bottoms fraction.
A microfluidic device comprising: (a) a sample loading chamber comprising a plurality of outlets, (b) a migration chamber having a plurality of inlets and configured and sized to provide motile cells a choice of directional migration, and (c) a plurality of migration channels arranged in fluid communication between the one or more outlets of the sample loading chamber and the one or more inlets of the migration chamber, wherein each migration channel is connected to enable a sample to flow from an outlet of the sample loading chamber to an inlet of the migration chamber, wherein the migration channels are sized to allow the migration of neutrophils, and (d) a baffle arranged in fluid communication between the outlets of the sample loading chamber and the migration channels or within the migration channels, but at a point before each migration channel enters an inlet of the migration chamber, wherein the baffle comprises one or more passageways configured to inhibit the movement of red blood cells through the baffle to a greater extent than the baffle inhibits movement of the neutrophils through the baffle, characterized in that the microfluidic device further comprises a buffer liquid that includes no exogenous chemical attractant. (a) a sample loading chamber comprising a plurality of outlets, (b) a migration chamber having a plurality of inlets and configured and sized to provide motile cells a choice of directional migration, and (c) a plurality of migration channels arranged in fluid communication between the one or more outlets of the sample loading chamber and the one or more inlets of the migration chamber, wherein each migration channel is connected to enable a sample to flow from an outlet of the sample loading chamber to an inlet of the migration chamber, wherein the migration channels are sized to allow the migration of neutrophils, and (d) a baffle arranged in fluid communication between the outlets of the sample loading chamber and the migration channels or within the migration channels, but at a point before each migration channel enters an inlet of the migration chamber, wherein the baffle comprises one or more passageways configured to inhibit the movement of red blood cells through the baffle to a greater extent than the baffle inhibits movement of the neutrophils through the baffle, characterized in that the microfluidic device further comprises a buffer liquid that includes no exogenous chemical attractant.
Method for adjusting the yaw angle of a wind turbine relative to a given wind direction, comprising the steps of: - determining a reference wind pressure information containing at least two reference wind pressure measurement values which reference wind pressure measurement values exhibit a periodic nature related to a rotation of the rotor of the wind turbine; - determining a reference phase offset relative to an angular reference value from the reference wind pressure measurement values contained in the reference wind pressure information; and - adjusting the yaw angle (α) of the rotor in such a manner that the phase offset of the current pressure measurement values contained in a current pressure measurement information corresponds to the reference phase offset of the reference pressure measurement values contained in the reference pressure information, characterized in that the reference pressure measurement values are fitted to build a linear curve, whereby the reference phase offset corresponds to the angle between a horizontal axis and a orthogonal line to the linear curve that goes through the origin of the coordinate system of the plot. - determining a reference wind pressure information containing at least two reference wind pressure measurement values which reference wind pressure measurement values exhibit a periodic nature related to a rotation of the rotor of the wind turbine; - determining a reference phase offset relative to an angular reference value from the reference wind pressure measurement values contained in the reference wind pressure information; and - adjusting the yaw angle (α) of the rotor in such a manner that the phase offset of the current pressure measurement values contained in a current pressure measurement information corresponds to the reference phase offset of the reference pressure measurement values contained in the reference pressure information, characterized in that the reference pressure measurement values are fitted to build a linear curve, whereby the reference phase offset corresponds to the angle between a horizontal axis and a orthogonal line to the linear curve that goes through the origin of the coordinate system of the plot.
A pharmaceutical composition comprising a therapeutically effective amount of a compound having the structure: or a pharmaceutically acceptable salt thereof, and a pharmaceutically acceptable excipient; and further comprising an additional medicament, wherein the additional medicament is cefiderocol.
A Security automation system (100; 400; 500) configured for security management of an Information Technology, IT, system, the security automation system using machine learning, ML, and comprises: a. a Threat engine, b. a Risk engine configured to manage one or more risks based on risk evaluation, c. a Policy engine comprising a policy catalog, the policy engine being configured to use one or more policies from the policy catalog based on risk evaluation, and d. a Security Adaptation engine, the Threat engine comprising a threat catalog and detection rules for identifying threat events, and wherein the detection rules are automatically adjusted and modified based on information collected from the managed IT system. a. a Threat engine, b. a Risk engine configured to manage one or more risks based on risk evaluation, c. a Policy engine comprising a policy catalog, the policy engine being configured to use one or more policies from the policy catalog based on risk evaluation, and d. a Security Adaptation engine,
Handheld ophthalmological device comprising a handle for holding the device and a tool borne by the handle, the handle comprising holding regions that promote grip, and the holding regions being made from non-slip material, characterised in that the holding regions comprise a coding that identifies the tool, and in that the coding is defined by the colour of the holding regions.
Humidifying apparatus comprising: a base comprising a chamber; a water tank removably mounted on the base for supplying water to the chamber; an impeller and a motor for driving the impeller to generate an air flow; an inlet duct for conveying the air flow to the chamber; humidifying means for humidifying the air flow with water from the chamber; and an outlet duct for conveying the humidified air flow from the chamber; characterized in that a lower surface of the water tank, which in use supports the water tank on the base, comprises a recessed portion that in conjunction with a surface of the base defines an overflow chamber for receiving water overflow from the chamber. a base comprising a chamber; a water tank removably mounted on the base for supplying water to the chamber; an impeller and a motor for driving the impeller to generate an air flow; an inlet duct for conveying the air flow to the chamber; humidifying means for humidifying the air flow with water from the chamber; and an outlet duct for conveying the humidified air flow from the chamber; characterized in that a lower surface of the water tank, which in use supports the water tank on the base, comprises a recessed portion that in conjunction with a surface of the base defines an overflow chamber for receiving water overflow from the chamber.
A method for controlling a wind power installation, comprising: providing a wind speed and a direction of incident flow, which are determined by a wind measuring device of the wind power installation, providing a correction value of the direction of incident flow in dependence on the wind speed, carrying out a process of learning the correction value of the direction of incident flow in dependence on the wind speed, wherein the learning process comprises several optimizing steps and an execution of the optimizing steps depending on the optimizing steps that have already been carried out for the wind speed provided, characterized in that a time period between two optimizing steps carried out for a wind speed increases with the number of optimizing steps executed. providing a wind speed and a direction of incident flow, which are determined by a wind measuring device of the wind power installation, providing a correction value of the direction of incident flow in dependence on the wind speed, carrying out a process of learning the correction value of the direction of incident flow in dependence on the wind speed, wherein the learning process comprises several optimizing steps and an execution of the optimizing steps depending on the optimizing steps that have already been carried out for the wind speed provided, characterized in that a time period between two optimizing steps carried out for a wind speed increases with the number of optimizing steps executed.
A valve prosthesis for implantation into a native cardiac valve site of an individual, the valve prosthesis comprising: a valve body; and a frame supporting the valve body, the frame comprising: a central portion configured to fit securely within an annulus of the valve site; a support arm extending from the central portion and configured to extend over and secure a native valve leaflet; and a chordae guiding element extending from the support arm and configured to engage chordae of the valve site, wherein the chordae guiding element is configured to angle the chordae so that the chordae are stretched to restrict movement of the valve prosthesis in an upstream direction of blood flow at the valve site, and wherein the chordae guiding element is configured to reduce bending of the chordae to reduce stress on the chordae during the cardiac cycle. a valve body; and a frame supporting the valve body, the frame comprising: a central portion configured to fit securely within an annulus of the valve site; a support arm extending from the central portion and configured to extend over and secure a native valve leaflet; and a chordae guiding element extending from the support arm and configured to engage chordae of the valve site, wherein the chordae guiding element is configured to angle the chordae so that the chordae are stretched to restrict movement of the valve prosthesis in an upstream direction of blood flow at the valve site, and wherein the chordae guiding element is configured to reduce bending of the chordae to reduce stress on the chordae during the cardiac cycle. a central portion configured to fit securely within an annulus of the valve site; a support arm extending from the central portion and configured to extend over and secure a native valve leaflet; and a chordae guiding element extending from the support arm and configured to engage chordae of the valve site, wherein the chordae guiding element is configured to angle the chordae so that the chordae are stretched to restrict movement of the valve prosthesis in an upstream direction of blood flow at the valve site, and wherein the chordae guiding element is configured to reduce bending of the chordae to reduce stress on the chordae during the cardiac cycle.
A foamed asphalt composition comprising: a base asphalt component; oxidized high density polyethylene; and an additional polyethylene different from the oxidized high density polyethylene and chosen from non-oxidized polyethylene homopolymer or oxidized low density polyethylene. a base asphalt component; oxidized high density polyethylene; and an additional polyethylene different from the oxidized high density polyethylene and chosen from non-oxidized polyethylene homopolymer or oxidized low density polyethylene.
Method for the playback of low-resolution video signals by means of a pulse-width-modulated high-resolution image display device, wherein the image display is undertaken by means of two consecutive high-resolution fields in accordance with interlaced scanning and the time period available for an image display of a respective field is divided into consecutive weighted partial time periods, wherein the two consecutive high-resolution fields form a high-resolution full screen with a total of two partial time periods each with the weightings 1, 2, 4, 8, 16, 32, and wherein the brightness signals belonging to the pixels of the image to be displayed are produced by the activation sequences assigned to the partial time periods, characterised in that - signals corresponding to a low-resolution full screen, said signals being transferred into two consecutive low-resolution fields of a received low-resolution video signal, are saved in a store, and - the signals corresponding to the full screen of the low-resolution video signal are selected from the store for the formation of the two high-resolution fields, wherein the first field of the high-resolution signal and the second field of the high-resolution signal are formed by the full screen formed from the low-resolution signal, wherein the transfer sequence of the weighted partial time periods and/or the activation sequences of the partial time periods is predetermined for the duration of a full screen of the high-resolution signal in such a way that the two respective partial time periods of the weightings 1, 2, 4 and 8 are assigned to one high-resolution field and the two respective partial time periods of weightings 16 and 32 are assigned to the other high-resolution field, whereby line flickering is reduced. - signals corresponding to a low-resolution full screen, said signals being transferred into two consecutive low-resolution fields of a received low-resolution video signal, are saved in a store, and - the signals corresponding to the full screen of the low-resolution video signal are selected from the store for the formation of the two high-resolution fields, wherein the first field of the high-resolution signal and the second field of the high-resolution signal are formed by the full screen formed from the low-resolution signal, wherein the transfer sequence of the weighted partial time periods and/or the activation sequences of the partial time periods is predetermined for the duration of a full screen of the high-resolution signal in such a way that the two respective partial time periods of the weightings 1, 2, 4 and 8 are assigned to one high-resolution field and the two respective partial time periods of weightings 16 and 32 are assigned to the other high-resolution field, whereby line flickering is reduced.