mhurhangee/patent-ind-claim-en huggingface dataset:
A belay system for a climbing wall on which a climbing route runs over at least one concave area of the climbing wall , with an upwardly guided safety rope , a running gear , which suspends from the safety rope by means of a holder and forms an anchorage for a safety harness of a climber , and a linear guide for the running gear , which is attachable along the climbing route on the climbing wall and has at least one bend for alignment with said at least one concave area , characterized in that that the belay system has a rope deflection at the at least one bend , which is configured to deflect the safety rope around the bend of the linear guide , and that the holder is arranged at the end of a gripping arm projecting from the running gear , which, when passing the cable deflection , passes behind the cable deflection when viewed from a climber . an upwardly guided safety rope , a running gear , which suspends from the safety rope by means of a holder and forms an anchorage for a safety harness of a climber , and a linear guide for the running gear , which is attachable along the climbing route on the climbing wall and has at least one bend for alignment with said at least one concave area , characterized in that that the belay system has a rope deflection at the at least one bend , which is configured to deflect the safety rope around the bend of the linear guide , and that the holder is arranged at the end of a gripping arm projecting from the running gear , which, when passing the cable deflection , passes behind the cable deflection when viewed from a climber .
A diamond cutting tool (200/200') for enabling a fast cutting start, the tool (200/200') comprising: a rotatable main body having a substantially circular periphery; and a cutting portion comprising: a plurality of notched cutters disposed around a portion of the circular periphery extending outwardly from the main body , the notched cutters being formed of a first diamond-metal matrix; and an interlocking support assembly provided outwardly of the notched cutters , the interlocking support assembly comprising a softer diamond-metal matrix and/or a different diamond concentration therein than the first diamond-metal matrix, characterized in that the interlocking support assembly includes a reinforcement portion disposed between the notched cutters and a top section covering radially distal portions of the notched cutters , wherein the notched cutters are separated from each other by the reinforcement portion . a rotatable main body having a substantially circular periphery; and a cutting portion comprising: a plurality of notched cutters disposed around a portion of the circular periphery extending outwardly from the main body , the notched cutters being formed of a first diamond-metal matrix; and an interlocking support assembly provided outwardly of the notched cutters , the interlocking support assembly comprising a softer diamond-metal matrix and/or a different diamond concentration therein than the first diamond-metal matrix, characterized in that the interlocking support assembly includes a reinforcement portion disposed between the notched cutters and a top section covering radially distal portions of the notched cutters , wherein the notched cutters are separated from each other by the reinforcement portion . a plurality of notched cutters disposed around a portion of the circular periphery extending outwardly from the main body , the notched cutters being formed of a first diamond-metal matrix; and an interlocking support assembly provided outwardly of the notched cutters , the interlocking support assembly comprising a softer diamond-metal matrix and/or a different diamond concentration therein than the first diamond-metal matrix, characterized in that the interlocking support assembly includes a reinforcement portion disposed between the notched cutters and a top section covering radially distal portions of the notched cutters , wherein the notched cutters are separated from each other by the reinforcement portion .
A phosphor comprising: a plate-shaped phosphor ; a joining member ; and a light collecting optical member having at least one convex surface and fixed to the plate-shaped phosphor by the joining member ; wherein the joining member forms a fillet shape between a surface of the plate-shaped phosphor to which the light collecting optical member is joined and the convex surface of the light collecting optical member , and in a case where a height of the fillet shape from the surface of the plate-shaped phosphor to which the light collecting optical member is joined is set as a height X, and a maximum distance of the light collecting optical member from the surface of the plate-shaped phosphor to which the light collecting optical member is joined is set as a maximum distance Y, the height X is equal to or less than 2/3 of the maximum distance Y. a plate-shaped phosphor ; a joining member ; and a light collecting optical member having at least one convex surface and fixed to the plate-shaped phosphor by the joining member ; wherein the joining member forms a fillet shape between a surface of the plate-shaped phosphor to which the light collecting optical member is joined and the convex surface of the light collecting optical member , and in a case where a height of the fillet shape from the surface of the plate-shaped phosphor to which the light collecting optical member is joined is set as a height X, and a maximum distance of the light collecting optical member from the surface of the plate-shaped phosphor to which the light collecting optical member is joined is set as a maximum distance Y, the height X is equal to or less than 2/3 of the maximum distance Y.
A packaging for an item to be packaged , in particular for a kit for assembling a building closure device, wherein the packaging has an outer packaging with a receiving compartment for a first part of the item to be packed , the outer packaging having a cover for the receiving compartment , wherein the cover is arranged between the receiving compartment and an additional compartment of the outer packaging in at least one position in order to separate the two of them, wherein the receiving compartment presents a larger volume than the additional compartment , und wherein at least one form-fitting device for form-fitting attachment of at least one inner packaging for the reception of a second part of the item to be packed is present on the cover .
A keyboard , comprising a keyswitch module comprising a plurality of keyswitch structures , each of the keyswitch structures comprising a tactile feedback member , the keyboard characterized in that : the keyswitch module comprises an adjusting plate (320, 320', 320") movably disposed under the keyswitch structures , the adjusting plate (320, 320', 320") comprising a plate body and a plurality of adjusting bars protruding from the plate body toward the keyswitch structures and respectively corresponding to the tactile feedback members of the keyswitch structures , wherein in response to operation of a user, the adjusting plate (320, 320', 320") moves relative to the keyswitch structures , and the adjusting bars drive the tactile feedback members to change tactile feedback of the keyswitch structures . the keyswitch module comprises an adjusting plate (320, 320', 320") movably disposed under the keyswitch structures , the adjusting plate (320, 320', 320") comprising a plate body and a plurality of adjusting bars protruding from the plate body toward the keyswitch structures and respectively corresponding to the tactile feedback members of the keyswitch structures , wherein in response to operation of a user, the adjusting plate (320, 320', 320") moves relative to the keyswitch structures , and the adjusting bars drive the tactile feedback members to change tactile feedback of the keyswitch structures .
Method for operating a three-phase machine , in particular a permanent-magnet synchronous machine, which has a rotor (L) and a stator (St), connected to a three-phase network , having a three-phase stator winding, the stator (St) being connected to the three-phase network via a first semiconductor circuit arrangement for forming a first rotational field rotating in a first direction of rotation in the stator (St) and via a second semiconductor circuit arrangement for forming a second rotational field rotating in a direction of rotation opposite to the first direction of rotation in the stator (St), the three-phase machine further having a control unit for setting the semiconductors of the first and second semiconductor circuit arrangement, characterized in that the control unit sets the semiconductors such that the rotor (L) is accelerated by current pulses of both the first and second rotational field in the first direction of rotation, the second rotational field providing additional times for setting the semiconductors, in which the rotor (L) can be accelerated in the first direction of rotation. the stator (St) being connected to the three-phase network via a first semiconductor circuit arrangement for forming a first rotational field rotating in a first direction of rotation in the stator (St) and via a second semiconductor circuit arrangement for forming a second rotational field rotating in a direction of rotation opposite to the first direction of rotation in the stator (St), the three-phase machine further having a control unit for setting the semiconductors of the first and second semiconductor circuit arrangement, characterized in that the control unit sets the semiconductors such that the rotor (L) is accelerated by current pulses of both the first and second rotational field in the first direction of rotation, the second rotational field providing additional times for setting the semiconductors, in which the rotor (L) can be accelerated in the first direction of rotation.
A toe valve to control the injection of fluid into a toe of an oil or gas well, the toe valve comprising: a body with a bore , the body having a port adapted to permit fluid flow between the bore and an outlet on an external surface of the toe valve when the port is open; a closure member adapted to move from an initial closed position in which the port is closed, to an open position in which the port is open; and an actuating mechanism which can be actuated to urge the closure member from the initial closed position toward the open position, and which can be reset when the closure member is moving between the closed and open positions to return the closure member to the initial closed position, wherein the actuation mechanism comprises a fluid circuit for applying a pressure differential to move the closure member , wherein the fluid circuit has an actuation flowpath and a reset flowpath, wherein fluid flows through the actuation flowpath when the closure member is moving toward the open position, wherein the fluid flows through the reset flowpath when the closure member is moving toward the closed position, wherein the actuation flowpath has a higher resistance to fluid flow than the reset flowpath, and characterized in that the actuation flowpath incorporates a flow restrictor . a body with a bore , the body having a port adapted to permit fluid flow between the bore and an outlet on an external surface of the toe valve when the port is open; a closure member adapted to move from an initial closed position in which the port is closed, to an open position in which the port is open; and an actuating mechanism which can be actuated to urge the closure member from the initial closed position toward the open position, and which can be reset when the closure member is moving between the closed and open positions to return the closure member to the initial closed position, wherein the actuation mechanism comprises a fluid circuit for applying a pressure differential to move the closure member , wherein the fluid circuit has an actuation flowpath and a reset flowpath, wherein fluid flows through the actuation flowpath when the closure member is moving toward the open position, wherein the fluid flows through the reset flowpath when the closure member is moving toward the closed position, wherein the actuation flowpath has a higher resistance to fluid flow than the reset flowpath, and characterized in that the actuation flowpath incorporates a flow restrictor .
A sampling arrangement for sampling from a reactor , the sampling arrangement comprising a gas inlet , a solvent inlet , a solvent compartment , one or more multiple-position valves , a sampling compartment , and an outlet, wherein in a first operational mode the one or more multiple-position valves are configured to provide: fluid contact between the solvent inlet and the solvent compartment ; fluid contact between the reactor and the sampling compartment ; and fluid separation between the solvent compartment and the sampling compartment ; the sampling arrangement characterized in that in a second operational mode the one or more multiple-position valves are configured to provide: fluid contact between the gas inlet , the solvent compartment , the sampling compartment , and the outlet . fluid contact between the solvent inlet and the solvent compartment ; fluid contact between the reactor and the sampling compartment ; and fluid separation between the solvent compartment and the sampling compartment ; the sampling arrangement characterized in that in a second operational mode the one or more multiple-position valves are configured to provide: fluid contact between the gas inlet , the solvent compartment , the sampling compartment , and the outlet .
A method of hydrophilizing a porous membrane, comprising treating a porous membrane with plasma in the presence of a mixed gas containing sulfur dioxide (SOz) at 60 to 80 vol% and oxygen (Oz) at 20 to 40 vol%.
An internal combustion engine - with at least one engine block , which contains a plurality of cylinders and has at least one flange component , - with at least one attachment part which is fastened to the flange component , - wherein an alignment device is provided to align the attachment part relative to the flange component when attaching the attachment part to the flange component , - wherein the alignment device has at least three separate alignment units , spaced apart from one another, - wherein at least one such alignment unit brings about an aligning of the attachment part to the cylinder head with regard to a first aligning direction , which is oriented perpendicularly to an attaching direction , in which the attachment part is attached to the cylinder head , characterized in - that at least one other such alignment unit brings about an aligning of the attachment part to the cylinder head with respect to a second aligning direction , which is oriented perpendicularly to the attaching direction and inclined to the first aligning direction , - that each alignment unit brings about an aligning of the attachment part to the cylinder head exclusively either in the first aligning direction or in the second aligning direction . - with at least one engine block , which contains a plurality of cylinders and has at least one flange component , - with at least one attachment part which is fastened to the flange component , - wherein an alignment device is provided to align the attachment part relative to the flange component when attaching the attachment part to the flange component , - wherein the alignment device has at least three separate alignment units , spaced apart from one another, - wherein at least one such alignment unit brings about an aligning of the attachment part to the cylinder head with regard to a first aligning direction , which is oriented perpendicularly to an attaching direction , in which the attachment part is attached to the cylinder head , characterized in - that at least one other such alignment unit brings about an aligning of the attachment part to the cylinder head with respect to a second aligning direction , which is oriented perpendicularly to the attaching direction and inclined to the first aligning direction , - that each alignment unit brings about an aligning of the attachment part to the cylinder head exclusively either in the first aligning direction or in the second aligning direction .
A method of determining a correction function (v) for a wind energy installation , by means of which a windward side wind speed (WSa) can be determined on the basis of a leeward side wind speed (WSb) measured by a leeward side anemometer of the wind energy installation , wherein windward side and leeward side relate to a rotor of the wind energy installation , wherein the method comprises the following steps of operation: measuring (S1) a windward side wind speed (WSa), a leeward side wind speed (WSb) and a leeward side wind direction (μ), wherein a plurality of measurement values are respectively recorded in a defined period of time; and determining (S2) the correction function (v) on the basis of the recorded measurement values by means of a model, wherein the recorded measurement values are set in relation to one another in the model, and the correction function (v) assigns a windward side wind speed (WSa) to a leeward side wind speed (WSb) as a function of a leeward side wind direction (μ); and outputting the determined correction function (v). measuring (S1) a windward side wind speed (WSa), a leeward side wind speed (WSb) and a leeward side wind direction (μ), wherein a plurality of measurement values are respectively recorded in a defined period of time; and determining (S2) the correction function (v) on the basis of the recorded measurement values by means of a model, wherein the recorded measurement values are set in relation to one another in the model, and the correction function (v) assigns a windward side wind speed (WSa) to a leeward side wind speed (WSb) as a function of a leeward side wind direction (μ); and outputting the determined correction function (v).
A method of obtaining location information performed by a user equipment, UE , comprising: receiving from a location server a request for location information for a first and second Radio Access Technology, RAT, wherein the UE has dual connectivity to the first and second RATs; obtaining at least some of the location information for the first and second RATs; and transmitting the at least some of the location information to the location server; wherein the request for location information is received from the location server using the first RAT, wherein the at least some of the location information is transmitted to the location server using the second RAT. receiving from a location server a request for location information for a first and second Radio Access Technology, RAT, wherein the UE has dual connectivity to the first and second RATs; obtaining at least some of the location information for the first and second RATs; and transmitting the at least some of the location information to the location server; wherein the request for location information is received from the location server using the first RAT, wherein the at least some of the location information is transmitted to the location server using the second RAT.
Saccharomyces cerevisiae SPC-SNU 70-1 (KCTC 12776BP).
A fuel composition imparting a lubricant property, the fuel composition comprising: fuel having a sulphur concentration less than 50 ppm; and an additive comprising palmitic acid (A), oleic acid (B), linoleic acid (C) and linolenic acid (D), wherein the weight ratio of A:B:C:D in the composition is 8:80:10:2 and wherein the additive is comprised in the fuel composition at a concentration range of 50 to 150 ppm by weight of the fuel. fuel having a sulphur concentration less than 50 ppm; and an additive comprising palmitic acid (A), oleic acid (B), linoleic acid (C) and linolenic acid (D), wherein the weight ratio of A:B:C:D in the composition is 8:80:10:2 and wherein the additive is comprised in the fuel composition at a concentration range of 50 to 150 ppm by weight of the fuel.
A monitoring unit adapted for monitoring a patient during operation of a high-frequency surgery apparatus , the high-frequency surgery apparatus being configured to separate and/or coagulate biological tissue by means of electrical high-frequency energy, the monitoring unit comprising: - sensing electrodes which are disposed in a periphery of the patient and - an evaluation and control unit which is adapted for impressing a predetermined alternating voltage for measuring purposes or a predetermined alternating current for measuring purposes into the sensing electrodes and measuring an impedance which decreases between the sensing electrodes , monitoring a chronological sequence of the impedance and/or a temporal change thereof, characterised in that the sensing electrodes are incorporated into a removable cover of a patient rest. - sensing electrodes which are disposed in a periphery of the patient and - an evaluation and control unit which is adapted for impressing a predetermined alternating voltage for measuring purposes or a predetermined alternating current for measuring purposes into the sensing electrodes and measuring an impedance which decreases between the sensing electrodes , monitoring a chronological sequence of the impedance and/or a temporal change thereof, characterised in that the sensing electrodes are incorporated into a removable cover of a patient rest. impressing a predetermined alternating voltage for measuring purposes or a predetermined alternating current for measuring purposes into the sensing electrodes and measuring an impedance which decreases between the sensing electrodes , monitoring a chronological sequence of the impedance and/or a temporal change thereof, characterised in that the sensing electrodes are incorporated into a removable cover of a patient rest.
An aircraft engine comprising: gas powered turbine core (30; 130; 330; 435); a first fan (50; 150; 350; 450) connected to said turbine core (30...435) via a shaft (34; 134; 434), the fan (50...450) being positioned aft of the turbine (30...435); and a second fan connected to said first fan (50...450) via a geared connection ; characterised in that the first fan (50...450) is directly driven by the shaft (34; 134; 434). gas powered turbine core (30; 130; 330; 435); a first fan (50; 150; 350; 450) connected to said turbine core (30...435) via a shaft (34; 134; 434), the fan (50...450) being positioned aft of the turbine (30...435); and a second fan connected to said first fan (50...450) via a geared connection ; characterised in that the first fan (50...450) is directly driven by the shaft (34; 134; 434).
A method for manufacturing a package lid member , the method comprising: a metalizing step of forming a metalized layer at a bonding portion provided on a surface of a glass member ; a paste applying step of applying an Au-Sn paste on the metalized layer; a reflow step of heating and reflowing the Au-Sn paste after the paste applying step; and a cooling step of cooling the reflowed Au-Sn paste, wherein the cooling step includes a holding step of holding the reflowed Au-Sn paste in a holding temperature range of 150°C or higher and 190°C or lower for a holding time of 2 minutes or longer, and an Au-Sn layer formed of an Au-Sn alloy obtained by melting and solidifying the Au-Sn paste is formed at the bonding portion of the glass member . a metalizing step of forming a metalized layer at a bonding portion provided on a surface of a glass member ; a paste applying step of applying an Au-Sn paste on the metalized layer; a reflow step of heating and reflowing the Au-Sn paste after the paste applying step; and a cooling step of cooling the reflowed Au-Sn paste, wherein the cooling step includes a holding step of holding the reflowed Au-Sn paste in a holding temperature range of 150°C or higher and 190°C or lower for a holding time of 2 minutes or longer, and an Au-Sn layer formed of an Au-Sn alloy obtained by melting and solidifying the Au-Sn paste is formed at the bonding portion of the glass member .