mhurhangee/ep-ind-claims huggingface dataset:
A cubic boron nitride compact comprising: 30 to 70 volume % of a polycrystalline mass of cubic boron nitride particles, and 70 to 30 volume % of a matrix phase, the matrix phase comprising: a secondary hard phase selected from a transition metal carbide, nitride, carbonitride and a mixture thereof, and a superalloy, wherein the superalloy contains at least 40 weight % of one or more of a first element selected from the group: nickel, iron and cobalt, and two or more of a second element selected from a group of alloying elements: chromium, molybdenum, tungsten, lanthanum, cerium, yttrium, niobium, tantalum, zirconium, vanadium, hafnium, aluminium and titanium, wherein the superalloy is present in an amount of 1 to 10 volume % of the matrix phase. 30 to 70 volume % of a polycrystalline mass of cubic boron nitride particles, and 70 to 30 volume % of a matrix phase, the matrix phase comprising: a secondary hard phase selected from a transition metal carbide, nitride, carbonitride and a mixture thereof, and a superalloy, wherein the superalloy contains at least 40 weight % of one or more of a first element selected from the group: nickel, iron and cobalt, and two or more of a second element selected from a group of alloying elements: chromium, molybdenum, tungsten, lanthanum, cerium, yttrium, niobium, tantalum, zirconium, vanadium, hafnium, aluminium and titanium, wherein the superalloy is present in an amount of 1 to 10 volume % of the matrix phase. a secondary hard phase selected from a transition metal carbide, nitride, carbonitride and a mixture thereof, and a superalloy, wherein the superalloy contains at least 40 weight % of one or more of a first element selected from the group: nickel, iron and cobalt, and two or more of a second element selected from a group of alloying elements: chromium, molybdenum, tungsten, lanthanum, cerium, yttrium, niobium, tantalum, zirconium, vanadium, hafnium, aluminium and titanium, wherein the superalloy is present in an amount of 1 to 10 volume % of the matrix phase.
A sidelink transmission resource selection method performed by a terminal, comprising: determining a resource selection mode usable for a target operation, wherein the resource selection mode comprises a first resource selection mode and a second resource selection mode, and resource selection assistance information is not considered in the first resource selection mode, the resource selection assistance information is considered in the second resource selection mode, the resource selection assistance information comprises: indication information of a recommended resource set, the recommended resource set comprises discontinuous reception, DRX, cycle in time domain, resource set in time domain and/or in frequency domain; in a case that both the first resource selection mode and the second resource selection mode are usable for the target operation, determining a resource selection mode used for the target operation based on specification of a protocol, or configuration of a control node, or pre-configuration of a control node, or a content indicated by another terminal, or by the terminal, wherein the configuration of the control node or the content indicated by the another terminal comprises the resource selection assistance information; and performing the target operation by using the resource selection mode determined; wherein the target operation comprises at least one of the following: initial resource selection; resource selection re-evaluation; resource preemption detection; and resource re-selection. determining a resource selection mode usable for a target operation, wherein the resource selection mode comprises a first resource selection mode and a second resource selection mode, and resource selection assistance information is not considered in the first resource selection mode, the resource selection assistance information is considered in the second resource selection mode, the resource selection assistance information comprises: indication information of a recommended resource set, the recommended resource set comprises discontinuous reception, DRX, cycle in time domain, resource set in time domain and/or in frequency domain; in a case that both the first resource selection mode and the second resource selection mode are usable for the target operation, determining a resource selection mode used for the target operation based on specification of a protocol, or configuration of a control node, or pre-configuration of a control node, or a content indicated by another terminal, or by the terminal, wherein the configuration of the control node or the content indicated by the another terminal comprises the resource selection assistance information; and performing the target operation by using the resource selection mode determined; wherein the target operation comprises at least one of the following: initial resource selection; resource selection re-evaluation; resource preemption detection; and resource re-selection. initial resource selection; resource selection re-evaluation; resource preemption detection; and resource re-selection.
An induction heating cooker comprising: a plurality of heating coils disposed below a cooking plate; and a controller (3, 70) to determine whether a container is placed on the heating coils, characterized in that the controller (3, 70) determines whether a plurality of containers is placed on one of the heating coils and, when a plurality of containers is placed on one of the heating coils, adjusts a power of this heating coil on which the containers are placed based on calculated powers of the other heating coils occupied by the containers. a plurality of heating coils disposed below a cooking plate; and a controller (3, 70) to determine whether a container is placed on the heating coils, characterized in that the controller (3, 70) determines whether a plurality of containers is placed on one of the heating coils and, when a plurality of containers is placed on one of the heating coils, adjusts a power of this heating coil on which the containers are placed based on calculated powers of the other heating coils occupied by the containers.
Lid device for a waste collection container, in particular with a capacity of up to 10001, which is provided to close a filling opening of the waste collection container, wherein the lid device is designed in two parts and comprises two lid elements (11, 12), each lid element (11; 12) having a lid element face (13; 14) which is delimited by three or more lid element edges, wherein one lid element edge is designed as a first lid element edge (15; 16) which, in the closed operating state of the lid device, faces a first lid element edge (16; 15) of another lid element, wherein the first lid element edges (15, 16) of adjacent lid elements (11, 12) in particular have a mutually corresponding course, wherein one lid element edge is designed as a second lid element edge (21; 27), which is opposite to the first lid element edge (15; 16), wherein, in addition the lid element face (13; 14) is delimited by a third lid element edge (24; 30), which connects the first lid element edge (15; 16) and the second lid element edge (21; 27), wherein each lid element (11, 12) comprises at least one fastening device (22, 23; 28, 29) which is provided to, in particular pivotally, attach the lid element (11; 12) to the waste collection container, in particular to a container body of the waste collection container, and wherein the second lid element edge (21; 27) is designed as a fastening edge, and that the at least one fastening device (22, 23; 28, 29) is arranged or designed on the fastening edge, characterized in, that the first lid element edge (15; 16) and the second lid element edge (21; 27), over the extension (26; 32) of the second lid element edge (21; 27) have different distances from one another, and that the distances, over the extension (26; 32) of the second lid element edge (21; 27), vary in every point.
Device for processing a hard surfacing, the device comprising: - a frame to be mounted on a vehicle; - a support coupled to the frame; - a drive motor, mounted on the support, with drive shaft for rotating a hammering unit relative to the support; - a rotatable hammering unit configured to process the hard surfacing under the hammering unit with hammers, the hammering unit comprising: - a substantially flat first disc; characterized by - a substantially flat second disc coupled via one or more coupling elements to the first disc and extending parallel to the first disc; wherein the flat first disc is connected to the drive shaft of the drive motor for the purpose of rotating the first and second flat discs in the plane of the first disc, wherein the second disc comprises on the flat side remote from the first disc a plurality of hammer wheel holders with hammer wheels rotatable therein, wherein the hammer wheel holders are distributed substantially uniformly along a circular periphery, the central point of which corresponds to the central point of the second disc, and wherein rotation shafts of the hammer wheels are preferably oriented substantially along respective lines through the central point of the second disc; and wherein the one or more coupling elements are vibration-damping coupling elements configured to provide a vibration-damping coupling between the first and second disc (9, 10) and wherein the only coupling between the first and second disc (9, 10) is formed by the one or more vibration-damping coupling elements. - a frame to be mounted on a vehicle; - a support coupled to the frame; - a drive motor, mounted on the support, with drive shaft for rotating a hammering unit relative to the support; - a rotatable hammering unit configured to process the hard surfacing under the hammering unit with hammers, the hammering unit comprising: - a substantially flat first disc; - a substantially flat second disc coupled via one or more coupling elements to the first disc and extending parallel to the first disc; wherein the flat first disc is connected to the drive shaft of the drive motor for the purpose of rotating the first and second flat discs in the plane of the first disc, wherein the second disc comprises on the flat side remote from the first disc a plurality of hammer wheel holders with hammer wheels rotatable therein, wherein the hammer wheel holders are distributed substantially uniformly along a circular periphery, the central point of which corresponds to the central point of the second disc, and wherein rotation shafts of the hammer wheels are preferably oriented substantially along respective lines through the central point of the second disc; and wherein the one or more coupling elements are vibration-damping coupling elements configured to provide a vibration-damping coupling between the first and second disc (9, 10) and wherein the only coupling between the first and second disc (9, 10) is formed by the one or more vibration-damping coupling elements.
A process for producing a polyoxyalkylene polyol, which comprises: a first polymerization step of subjecting propylene oxide or a mixture of propylene oxide and ethylene oxide to ring-opening addition polymerization to an initiator in the presence of a double metal cyanide complex catalyst to obtain a first intermediate polyol; a second polymerization step of subjecting, after the first polymerization step, propylene oxide to ring-opening addition polymerization in the presence of a polymerization catalyst made of an alkali metal hydroxide and/or an alkali metal alcoholate compound to obtain a second intermediate polyol; and a third polymerization step of subjecting, after the second polymerization step, ethylene oxide to ring-opening addition polymerization in the presence of a polymerization catalyst made of an alkali metal hydroxide or an alkali metal alcoholate compound to obtain a polyoxyalkylene polyol. a first polymerization step of subjecting propylene oxide or a mixture of propylene oxide and ethylene oxide to ring-opening addition polymerization to an initiator in the presence of a double metal cyanide complex catalyst to obtain a first intermediate polyol; a second polymerization step of subjecting, after the first polymerization step, propylene oxide to ring-opening addition polymerization in the presence of a polymerization catalyst made of an alkali metal hydroxide and/or an alkali metal alcoholate compound to obtain a second intermediate polyol; and a third polymerization step of subjecting, after the second polymerization step, ethylene oxide to ring-opening addition polymerization in the presence of a polymerization catalyst made of an alkali metal hydroxide or an alkali metal alcoholate compound to obtain a polyoxyalkylene polyol.
A pick-up device comprising: 1.1 A height-adjustable pick-up unit; 1.2 at least one gas pressure spring which is designed to compensate for forces acting on the pick-up unit; 1.3 a brake which is designed to take up a first position and a second position, wherein 1.3.1 the brake in the first position locks the pick-up unit in such a way that the pick-up unit is not height-adjustable, and 1.3.2 the brake in the second position does not lock the pick-up unit, so that the pick-up unit is adjustable in height; 1.4 a sensor by means of which a measured variable can be determined which can be changed by forces acting on the pick-up unit when the brake takes up the first position; 1.5 control means by means of which the brake can be actuated to take up the first position or the second position, the control means being set up in such a way that the brake can be actuated by the control means as a function of the measured variable which can be determined by the sensor. 1.1 A height-adjustable pick-up unit; 1.2 at least one gas pressure spring which is designed to compensate for forces acting on the pick-up unit; 1.3 a brake which is designed to take up a first position and a second position, wherein 1.3.1 the brake in the first position locks the pick-up unit in such a way that the pick-up unit is not height-adjustable, and 1.3.2 the brake in the second position does not lock the pick-up unit, so that the pick-up unit is adjustable in height; 1.3.1 the brake in the first position locks the pick-up unit in such a way that the pick-up unit is not height-adjustable, and 1.3.2 the brake in the second position does not lock the pick-up unit, so that the pick-up unit is adjustable in height; 1.4 a sensor by means of which a measured variable can be determined which can be changed by forces acting on the pick-up unit when the brake takes up the first position; 1.5 control means by means of which the brake can be actuated to take up the first position or the second position, the control means being set up in such a way that the brake can be actuated by the control means as a function of the measured variable which can be determined by the sensor.
A water jet peening execution method for a reactor vessel lid, comprising: forming an underwater environment on the inner surface of the reactor vessel lid and an aerial environment on an outer surface of the reactor vessel lid; executing water jet peening on an inner surface of the reactor vessel lid, the method being characterized in that it further comprises: attaching a waterproof jig having a cylindrical shape extending at a side of the outer surface of the reactor vessel lid and constituting a vessel with the reactor vessel lid as a bottom portion thereof, and disposing the reactor vessel lid in water. forming an underwater environment on the inner surface of the reactor vessel lid and an aerial environment on an outer surface of the reactor vessel lid; executing water jet peening on an inner surface of the reactor vessel lid, the method being characterized in that it further comprises: attaching a waterproof jig having a cylindrical shape extending at a side of the outer surface of the reactor vessel lid and constituting a vessel with the reactor vessel lid as a bottom portion thereof, and disposing the reactor vessel lid in water. attaching a waterproof jig having a cylindrical shape extending at a side of the outer surface of the reactor vessel lid and constituting a vessel with the reactor vessel lid as a bottom portion thereof, and disposing the reactor vessel lid in water.
A cryosurgical instrument comprising: a shaft having a closed distal end defining an expansion chamber and an open proximal end adapted and configured to receive an inflow of cryogen and to exhaust a flow of expanded cryogen; and a heat exchanger comprising: a plurality of cryogen delivery tubes that spiral around a longitudinal axis thereof; and a diffuser having a plurality of branches, each of the branches supplying received cryogen to a respective one of the delivery tubes, wherein the cryogen delivery tubes, where they spiral, are spaced from each other and in fluid tight contact with the inner surface of the shaft so as to form spiraling cryogen exhaust pathways that extend along a portion of a length of the cryosurgical instrument from the distal end of the shaft. a shaft having a closed distal end defining an expansion chamber and an open proximal end adapted and configured to receive an inflow of cryogen and to exhaust a flow of expanded cryogen; and a heat exchanger comprising: a plurality of cryogen delivery tubes that spiral around a longitudinal axis thereof; and a diffuser having a plurality of branches, each of the branches supplying received cryogen to a respective one of the delivery tubes, a plurality of cryogen delivery tubes that spiral around a longitudinal axis thereof; and a diffuser having a plurality of branches, each of the branches supplying received cryogen to a respective one of the delivery tubes, wherein the cryogen delivery tubes, where they spiral, are spaced from each other and in fluid tight contact with the inner surface of the shaft so as to form spiraling cryogen exhaust pathways that extend along a portion of a length of the cryosurgical instrument from the distal end of the shaft.
An assembly configured to provide access to an interior volume (3, 3') of a breathing conduit (5, 6), wherein the assembly comprises a piercing portion and a body portion, wherein the piercing portion is configured to pierce through a wall (11, 11') of the breathing conduit (5, 6) to make an opening (13, 13') there through, wherein the piercing portion is configured to be inserted through the opening (13, 13'), into the interior volume (3, 3'), in a first direction, wherein the body portion is configured to extend through the opening (13, 13') when the piercing portion is inserted into the interior volume (3, 3'), wherein the body portion comprises a channel (15, 15') configured to provide fluid access to the interior volume (3, 3'), and wherein the assembly further comprises a sealing configured to seal an area between the opening (13, 13') and the body portion, characterised in that the piercing portion comprises an abutment surface configured to abut against an inner wall surface (21, 21') of the breathing conduit (5, 6). wherein the piercing portion is configured to be inserted through the opening (13, 13'), into the interior volume (3, 3'), in a first direction, wherein the body portion is configured to extend through the opening (13, 13') when the piercing portion is inserted into the interior volume (3, 3'), wherein the body portion comprises a channel (15, 15') configured to provide fluid access to the interior volume (3, 3'), and wherein the assembly further comprises a sealing configured to seal an area between the opening (13, 13') and the body portion, characterised in that the piercing portion comprises an abutment surface configured to abut against an inner wall surface (21, 21') of the breathing conduit (5, 6).
A heliport system, comprising: a helipad including a VTOL maintenance device configured to obtain maintenance data from a VTOL, a helipad controller, and a transport mechanism operably coupled to the helipad and the helipad controller, the system being characterised in that: the helipad includes: a VTOL fueling mechanism configured to provide the VTOL with combustible fuel or electricity; the helipad controller is operably coupled to the helipad, and includes: a helipad routing module adapted to determine a destination of the helipad and a route to the destination, a VTOL maintenance module adapted to receive the maintenance data from the VTOL maintenance device and generate an alert based upon the maintenance data, and a VTOL fueling module configured to control the amount of combustible fuel or electricity delivered to the VTOL aircraft by the fueling mechanism; and the transport mechanism is configured to transport the VTOL to the destination along the route. a helipad including a VTOL maintenance device configured to obtain maintenance data from a VTOL, a helipad controller, and a transport mechanism operably coupled to the helipad and the helipad controller, the system being characterised in that: the helipad includes: a VTOL fueling mechanism configured to provide the VTOL with combustible fuel or electricity; the helipad controller is operably coupled to the helipad, and includes: a helipad routing module adapted to determine a destination of the helipad and a route to the destination, a VTOL maintenance module adapted to receive the maintenance data from the VTOL maintenance device and generate an alert based upon the maintenance data, and a VTOL fueling module configured to control the amount of combustible fuel or electricity delivered to the VTOL aircraft by the fueling mechanism; and a helipad routing module adapted to determine a destination of the helipad and a route to the destination, a VTOL maintenance module adapted to receive the maintenance data from the VTOL maintenance device and generate an alert based upon the maintenance data, and a VTOL fueling module configured to control the amount of combustible fuel or electricity delivered to the VTOL aircraft by the fueling mechanism; and the transport mechanism is configured to transport the VTOL to the destination along the route.
An aqueous electrolyte comprising an aqueous solvent, a lithium salt and a zwitterionic compound; wherein the lithium salt and the zwitterionic compound are each present in an amount of 3 to 10 molal concentration(m); and wherein the lithium salt and zwitterionic compound are present in a molal concentration (m) ratio of 2: 1 to 1: 2. wherein the lithium salt and the zwitterionic compound are each present in an amount of 3 to 10 molal concentration(m); and wherein the lithium salt and zwitterionic compound are present in a molal concentration (m) ratio of 2: 1 to 1: 2.
Formwork tie receptacle for being arranged on a bearing element of a formwork element, comprising a receiving element which has a receiving opening for inserting a tie rod and a ball portion for being mounted on the bearing element of the formwork element, and comprising a securing means for securing the receiving element to the bearing element of the formwork element, the securing means having a spacer element for resting against the bearing element of the formwork element, the spacer element having a mounting opening for being held on the receiving element, the spacer element having, on the outer periphery thereof, a curved first contact surface for resting against the bearing element of the formwork element, the first contact surface of the spacer element having a first radial distance from the central axis of the receiving element and a second contact surface of the spacer element having a second radial distance from the central axis of the receiving element, characterised in that the first radial distance of the first contact surface is greater than the second radial distance of the second contact surface.