mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: (a) receiving antenna platform format information of a transmitting device having multiple antenna elements, wherein the antenna platform format information comprises antenna platform position and orientation information, a number of antenna elements, and phase center and polarization information for each antenna element, (b) receiving a plurality of direction finding, in the following also referred to as DF, sounding signals transmitted from the transmitting device via the multiple antenna elements; (c) estimating a DF solution by performing a DF algorithm by a receiving device based on the plurality of DF sounding signals and the antenna platform format information to produce an estimated DF solution; and (d) determining location information based on the estimated DF solution, characterized in that the antenna platform format information further comprises an antenna platform format indicator indicating a simplified antenna platform format information. (a) receiving antenna platform format information of a transmitting device having multiple antenna elements, wherein the antenna platform format information comprises antenna platform position and orientation information, a number of antenna elements, and phase center and polarization information for each antenna element, (b) receiving a plurality of direction finding, in the following also referred to as DF, sounding signals transmitted from the transmitting device via the multiple antenna elements; (c) estimating a DF solution by performing a DF algorithm by a receiving device based on the plurality of DF sounding signals and the antenna platform format information to produce an estimated DF solution; and (d) determining location information based on the estimated DF solution, characterized in that the antenna platform format information further comprises an antenna platform format indicator indicating a simplified antenna platform format information. characterized in that the antenna platform format information further comprises an antenna platform format indicator indicating a simplified antenna platform format information.
A head for supports of raised floors comprising: - at least one support body having an upper surface provided with a cavity at least partially counter-shaped on a spherical cap; - at least one protrusion emerging from said upper surface of said support body; - at least one tilting element having in its upper part at least one surface at least partially flat to support building elements and in its lower part at least one portion at least partially shaped like a spherical cap for being laid on said upper surface of said support body, said tilting element having a through hole which can at least partially house said protrusion of said support body, characterized in that said at least one protrusion has an at least partially threaded side wall and characterized in comprising at least one ring nut having at least one inner surface and at least one outer surface, said inner surface being at least partially threaded to mesh with said threaded portion of said side walls of said emerging protrusion, said outer surface of said ring nut being shaped to abut against at least one portion of inner surface of said through hole of said tilting element. - at least one support body having an upper surface provided with a cavity at least partially counter-shaped on a spherical cap; - at least one protrusion emerging from said upper surface of said support body; - at least one tilting element having in its upper part at least one surface at least partially flat to support building elements and in its lower part at least one portion at least partially shaped like a spherical cap for being laid on said upper surface of said support body, said tilting element having a through hole which can at least partially house said protrusion of said support body,
A triazine precondensate according to the general formula (Ia) wherein - R 1 means Q 1 or a moiety of the formula R 3 -N-R 4 connected with the nitrogen atom to the triazine ring of the structure of formula, - R 9 means Q 1 or a moiety of the formula R 7 -N-R 8 connected with the nitrogen atom to the triazine ring of the structure of formula, - R 2, R 3, R 4 and R 6 mean independently from each other H, or - R 7 and R 8 mean independently from each other H, or wherein at least one of R 2, R 3, R 4, R 6, R 7 and R 8 are a C 1 -C 6 alkyl comprising in one or more cases at least one OH substituent; - R 10 and R 11 mean independently from each other R 7 or R 8; - R 5 means linear or branched C 2 -C 20 -alkyl that can be interrupted by one or more oxygen atoms, sulphur atoms, substituted and non-substituted nitrogen atoms - R x, R y mean independently from each other H, OH, Q 1, -[C 1 -C 18]-OH or wherein - Q 1 means linear or branched C 1 -C 12 -alkyl, linear or branched C 2 -C 12 -alkenyl, C 3 -C 7 -cycloalkyl, C 6 -C 12 aryl; and wherein - n = 0-10, preferably 1-8, most preferably 1 - 5; - m = 0-8, preferably 1-7, most preferably 1 - 5; or mixtures thereof. - R 1 means Q 1 or a moiety of the formula R 3 -N-R 4 connected with the nitrogen atom to the triazine ring of the structure of formula, - R 9 means Q 1 or a moiety of the formula R 7 -N-R 8 connected with the nitrogen atom to the triazine ring of the structure of formula, - R 2, R 3, R 4 and R 6 mean independently from each other H, or - R 7 and R 8 mean independently from each other H, or wherein at least one of R 2, R 3, R 4, R 6, R 7 and R 8 are a C 1 -C 6 alkyl comprising in one or more cases at least one OH substituent; - R 10 and R 11 mean independently from each other R 7 or R 8; - R 5 means linear or branched C 2 -C 20 -alkyl that can be interrupted by one or more oxygen atoms, sulphur atoms, substituted and non-substituted nitrogen atoms - R x, R y mean independently from each other H, OH, Q 1, -[C 1 -C 18]-OH or wherein - Q 1 means linear or branched C 1 -C 12 -alkyl, linear or branched C 2 -C 12 -alkenyl, C 3 -C 7 -cycloalkyl, C 6 -C 12 aryl; and wherein - n = 0-10, preferably 1-8, most preferably 1 - 5; - m = 0-8, preferably 1-7, most preferably 1 - 5; - Q 1 means linear or branched C 1 -C 12 -alkyl, linear or branched C 2 -C 12 -alkenyl, C 3 -C 7 -cycloalkyl, C 6 -C 12 aryl; and wherein - n = 0-10, preferably 1-8, most preferably 1 - 5; - m = 0-8, preferably 1-7, most preferably 1 - 5; - n = 0-10, preferably 1-8, most preferably 1 - 5; - m = 0-8, preferably 1-7, most preferably 1 - 5;
A method of controlling the slewing gear of a slewing crane comprising at least one three-phase motor which is mechanically coupled to a slewable part of the crane and by which the slewable part of the crane is turned about a slewing axis, characterized in that when a change of loading of the three-phase motor occurs the speed of the three-phase motor is changed and the torque of the three-phase motor is kept constant or substantially constant, wherein one or more operating parameters of the three-phase motor are measured so that the occurrence of the change of loading is detected, wherein the one or more operating parameters includes at least the speed (n) and/or the operating current (Ib) consumed by the three-phase motor, wherein the change of loading is attenuated by the change in speed, wherein the speed is changed as a function of the loading, wherein the change in speed as a function of the loading simulates the action of an (imaginary) eddy current brake coupled to the three-phase motor.
A vehicle brake control device, comprising: operation amount acquisition means for acquiring an operation amount (Bpa) of a driver-operated braking operation member of a vehicle; braking means for causing an electric motor to generate a braking torque to a wheel of the vehicle; and control means for calculating a target energization amount (Imt) based on the operation amount (Bpa) and controlling the electric motor based on the target energization amount (Imt), characterized in that the control means is configured to: determine, based on the operation amount (Bpa), whether or not an inertia compensation control for compensating for an influence of an inertia of the braking means is necessary; calculate, in a case where the inertia compensation control is determined to be necessary, an inertia compensation energization amount (Ijt, Ikt) for compensating for the influence of the inertia of the braking means based on a time-series pattern (CHj, CHk) that is set in advance based on a maximum response from the braking means; and calculate the target energization amount (Imt) based on the inertia compensation energization amount (Ijt, Ikt). operation amount acquisition means for acquiring an operation amount (Bpa) of a driver-operated braking operation member of a vehicle; braking means for causing an electric motor to generate a braking torque to a wheel of the vehicle; and control means for calculating a target energization amount (Imt) based on the operation amount (Bpa) and controlling the electric motor based on the target energization amount (Imt), characterized in that the control means is configured to: determine, based on the operation amount (Bpa), whether or not an inertia compensation control for compensating for an influence of an inertia of the braking means is necessary; calculate, in a case where the inertia compensation control is determined to be necessary, an inertia compensation energization amount (Ijt, Ikt) for compensating for the influence of the inertia of the braking means based on a time-series pattern (CHj, CHk) that is set in advance based on a maximum response from the braking means; and calculate the target energization amount (Imt) based on the inertia compensation energization amount (Ijt, Ikt). determine, based on the operation amount (Bpa), whether or not an inertia compensation control for compensating for an influence of an inertia of the braking means is necessary; calculate, in a case where the inertia compensation control is determined to be necessary, an inertia compensation energization amount (Ijt, Ikt) for compensating for the influence of the inertia of the braking means based on a time-series pattern (CHj, CHk) that is set in advance based on a maximum response from the braking means; and calculate the target energization amount (Imt) based on the inertia compensation energization amount (Ijt, Ikt).
- A coffee machine that is suitable for use with capsules that contain coffee and that comprise a folio to close the capsule, said coffee machine comprising a body; a housing for placing a single use capsule, the housing being disposed in the upper portion of the body; an opening apparatus for opening the capsule placed on the housing by cutting the folio; a seating surface for bearing/seating the edges of the capsule when the capsule is placed into the housing, wherein the seating surface is configured to fully surround the opening apparatus and wherein the seating surface is adapted to move downwards by means of the pressure exerted on the capsule such that the folio contacts the opening apparatus, and the seating surface is further adapted to move upwards into an upward position above the level of the opening apparatus when the pressure on the capsule is removed, after the capsule is opened and the coffee contained therein is discharged such that the seating surface is further adapted to conceal the opening apparatus when the seating surface is in the upward position, characterized by the opening apparatus being configured to enable the coffee contained in the capsule to be transferred for brewing, the opening apparatus consisting of a cutter configured to cut the folio and a stripper configured to fold the folio, wherein the stripper is below the lowermost level of the cutter.
Part for a turbine engine, this part having a general annular shape about an axis of revolution, this part comprising a first annular shrink-fitted fastening flange and comprising an annular row of orifices for the passage of screws, this part being made by casting and comprising protruding pads necessary for the control and the manufacture of the part by casting, characterised in that said pads are located on said flange and in that each comprises an thread configured to engage with an extraction screw of the flange.
A lubricating oil composition comprising: a) major amount of a base oil of lubricating viscosity; b) from 0.1 to 10 wt % of an overbased alkaline earth metal alkyl aryl sulfonate detergent having a total base number of 250 to 500 as determined by ASTM Standard No. D2896; c) from 0.02 to 10 wt % of a oxymolybdenum-containing complex; d) from 0.1 to 5.0 wt % of an ester friction modifier; and e) from 0.2 to 10.0 wt % of an antioxidant selected from the group consisting of a diphenylamine type, a sulfur-containing compound and mixtures thereof; wherein the total concentration of the oxymolybdenum-containing complex and antioxidant must be at least 1.3 wt %, based on the total weight of the lubricating oil composition and wherein the phosphorus content of the total lubricating oil composition is 0.08 wt % or less, based on the total weight of the lubricating oil composition; and wherein the ester friction modifer is a boric acid derivative of an ester of a carboxylic acid and a polyhydric alcohol, wherein the carboxylic acid has from one to four carboxylic acid groups and from 8 to 50 carbon atoms and the polyhydric alcohol as from 2 to 50 carbon atoms and from 2 to 6 hydroxy groups. a) major amount of a base oil of lubricating viscosity; b) from 0.1 to 10 wt % of an overbased alkaline earth metal alkyl aryl sulfonate detergent having a total base number of 250 to 500 as determined by ASTM Standard No. D2896; c) from 0.02 to 10 wt % of a oxymolybdenum-containing complex; d) from 0.1 to 5.0 wt % of an ester friction modifier; and e) from 0.2 to 10.0 wt % of an antioxidant selected from the group consisting of a diphenylamine type, a sulfur-containing compound and mixtures thereof;
A cutting member (1, 101) for a shaving cartridge comprising: a front side; a back side opposing the front side; a flat cutting portion having a cutting edge portion; a first bent portion, an intermediate portion, a second bent portion and a base portion made out of one single piece of material, wherein said first bent portion is between said flat cutting portion and said intermediate portion, said cutting edge portion is being opposite to the first bent portion, and said first bent portion being integral with said flat cutting portion; said second bent portion is between said intermediate portion and said base portion; said first bent portion is convex on the back side of the cutting member, and said second bent portion is concave on the back side of the cutting member; characterized in that: a first angle (α) formed between said flat cutting portion and said intermediate portion is between 45° and 80°. a front side; a back side opposing the front side; a flat cutting portion having a cutting edge portion; a first bent portion, an intermediate portion, a second bent portion and a base portion made out of one single piece of material, wherein said first bent portion is between said flat cutting portion and said intermediate portion, said cutting edge portion is being opposite to the first bent portion, and said first bent portion being integral with said flat cutting portion; said second bent portion is between said intermediate portion and said base portion; said first bent portion is convex on the back side of the cutting member, and said second bent portion is concave on the back side of the cutting member; characterized in that: a first angle (α) formed between said flat cutting portion and said intermediate portion is between 45° and 80°.
A computer-implemented method for managing packet scheduling on a client device comprising: receiving a packet to be transmitted; enqueuing the packet in a queue at a network stack level; determining whether packet scheduling is currently being performed at a driver level or at a networking stack level; selecting the packet for transmission from the queue at the network stack level if scheduling is currently being performed at the network stack level; selecting the packet for transmission from the queue at the driver level if scheduling is currently being performed at the driver level; attaching an interface to the networking stack; and responsively declaring an interface type and an indication as to whether packet scheduling is to be performed for the interface at the network stack level or the driver level. receiving a packet to be transmitted; enqueuing the packet in a queue at a network stack level; determining whether packet scheduling is currently being performed at a driver level or at a networking stack level; selecting the packet for transmission from the queue at the network stack level if scheduling is currently being performed at the network stack level; selecting the packet for transmission from the queue at the driver level if scheduling is currently being performed at the driver level; attaching an interface to the networking stack; and responsively declaring an interface type and an indication as to whether packet scheduling is to be performed for the interface at the network stack level or the driver level.
A computer-implemented method of using a dynamic virtual articulator (208, 708, 1108, 2208), for simulating occlusion of teeth (206, 707), when performing computer-aided designing of one or more dental restorations for a patient, where the method comprises the steps of: - providing the virtual articulator (208, 708, 1108, 2208) comprising a virtual three-dimensional model of the upper jaw (204, 1304) and a virtual three-dimensional model of the lower jaw resembling the upper jaw (204, 1304) and lower jaw (205, 1305), respectively, of the patient's mouth; - providing movement of the virtual upper jaw (204, 1304) and the virtual lower jaw (205, 1305) relative to each other for simulating dynamic occlusion, whereby collisions between teeth in the virtual upper and virtual lower jaw (204, 205, 1304, 1305) occur; wherein the method further comprises: - providing that the teeth (206, 707) in the virtual upper jaw (204, 1304) and virtual lower jaw (205, 1305) are blocked from penetrating each other's virtual surfaces in the collisions and wherein the virtual surfaces of the one or more restorations are penetrable. - providing the virtual articulator (208, 708, 1108, 2208) comprising a virtual three-dimensional model of the upper jaw (204, 1304) and a virtual three-dimensional model of the lower jaw resembling the upper jaw (204, 1304) and lower jaw (205, 1305), respectively, of the patient's mouth; - providing movement of the virtual upper jaw (204, 1304) and the virtual lower jaw (205, 1305) relative to each other for simulating dynamic occlusion, whereby collisions between teeth in the virtual upper and virtual lower jaw (204, 205, 1304, 1305) occur; - providing that the teeth (206, 707) in the virtual upper jaw (204, 1304) and virtual lower jaw (205, 1305) are blocked from penetrating each other's virtual surfaces in the collisions and wherein the virtual surfaces of the one or more restorations are penetrable.
A valve gear for a cylinder head including a first oil path (52a, 52b) and a second oil path (54a, 54b), the valve gear comprising: a rocker shaft; a first support (58a, 142a) that supports a first end region of the rocker shaft; a second support (58b, 142b) that supports a second end region of the rocker shaft; a rocker arm including a first arm portion supported pivotably by the rocker shaft and pivoted by a cam (42a, 42b), and a second arm portion supported pivotably by the rocker shaft to drive a valve (26a, 26b); a switch provided in the rocker arm to hydraulically connect and disconnect the first arm portion and the second arm portion to/from each other; a third oil path extending through the first support (58a, 142a), the rocker shaft, and the rocker arm to the switch to supply a hydraulic pressure to the switch; and a fourth oil path extending through the second support (58b, 142b) and the rocker shaft to a region between the rocker shaft and the rocker arm to lubricate areas between the cam (42a, 42b) and the rocker arm; wherein the first support (58a, 142a) includes, on its outer surface, a first concave portion (78a, 146a) located at an inlet of the third oil path and to connect to the first oil path (52a, 52b), and a second concave portion (80a, 148a) to connect to the second oil path (54a, 54b); and the second support (58b, 142b) includes, on its outer surface, a third concave portion (78b, 146b) to connect to the first oil path (52a, 52b), and a fourth concave portion (80b, 148b) located at an inlet of the fourth oil path and to connect to the second oil path (54a, 54b). a rocker shaft; a first support (58a, 142a) that supports a first end region of the rocker shaft; a second support (58b, 142b) that supports a second end region of the rocker shaft; a rocker arm including a first arm portion supported pivotably by the rocker shaft and pivoted by a cam (42a, 42b), and a second arm portion supported pivotably by the rocker shaft to drive a valve (26a, 26b); a switch provided in the rocker arm to hydraulically connect and disconnect the first arm portion and the second arm portion to/from each other; a third oil path extending through the first support (58a, 142a), the rocker shaft, and the rocker arm to the switch to supply a hydraulic pressure to the switch; and a fourth oil path extending through the second support (58b, 142b) and the rocker shaft to a region between the rocker shaft and the rocker arm to lubricate areas between the cam (42a, 42b) and the rocker arm; wherein the first support (58a, 142a) includes, on its outer surface, a first concave portion (78a, 146a) located at an inlet of the third oil path and to connect to the first oil path (52a, 52b), and a second concave portion (80a, 148a) to connect to the second oil path (54a, 54b); and the second support (58b, 142b) includes, on its outer surface, a third concave portion (78b, 146b) to connect to the first oil path (52a, 52b), and a fourth concave portion (80b, 148b) located at an inlet of the fourth oil path and to connect to the second oil path (54a, 54b).
An end effector for use with a surgical instrument, comprising: an anvil shaft; a first anvil assembly disposed at a distal portion of the anvil shaft: and a second anvil assembly mountable on the anvil shaft proximally of the first anvil assembly. wherein the first anvil assembly has a first plurality of anvil pockets arranged in a substantially annular row to deform fasteners fired from a first fastener cartridge; characterised in that the second anvil assembly has a second plurality of anvil pockets arranged in a substantially annular row to deform fasteners fired from a second fastener cartridge. an anvil shaft; a first anvil assembly disposed at a distal portion of the anvil shaft: and a second anvil assembly mountable on the anvil shaft proximally of the first anvil assembly. wherein the first anvil assembly has a first plurality of anvil pockets arranged in a substantially annular row to deform fasteners fired from a first fastener cartridge; characterised in that the second anvil assembly has a second plurality of anvil pockets arranged in a substantially annular row to deform fasteners fired from a second fastener cartridge.