mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for determining a resistivity parameter of an earth formation, the apparatus comprising: (a) a logging tool in a borehole in the earth formation, the logging tool having at least one measurement electrode configured to convey a measure current into the earth formation; (b) at least one guard electrode associated with the at least one measurement electrode configured to focus the measure current; (c) a first shielding electrode interposed between the at least one guard electrode and the at least one measurement electrode for preventing direct current from the measurement electrode to the guard electrode; and (d) circuitry that minimizes a first current flow between the at least one measurement electrode and the first shielding electrode, wherein the circuitry includes a processor configured to alter at least one of (i) a potential of the at least one measurement electrode, (ii) an impedance between the at least one guard electrode and the at least one measurement electrode, and (iii) a potential of at least one guard electrode, characterized in that the circuitry also minimizes at least one second current flow between at least one second shielding electrode and the at least one guard electrode, wherein the at least one second shielding electrode surrounds the at least one guard electrode. (a) a logging tool in a borehole in the earth formation, the logging tool having at least one measurement electrode configured to convey a measure current into the earth formation; (b) at least one guard electrode associated with the at least one measurement electrode configured to focus the measure current; (c) a first shielding electrode interposed between the at least one guard electrode and the at least one measurement electrode for preventing direct current from the measurement electrode to the guard electrode; and (d) circuitry that minimizes a first current flow between the at least one measurement electrode and the first shielding electrode, wherein the circuitry includes a processor configured to alter at least one of (i) a potential of the at least one measurement electrode, (ii) an impedance between the at least one guard electrode and the at least one measurement electrode, and (iii) a potential of at least one guard electrode,
A handrail friction checking device configured to check the frictional driving force for a handrail of a passenger conveyor, comprising: a handrail gripper for gripping the handrail and movable together with the handrail; a first spring, one end of said first spring being fixed and the other end being connected to the handrail gripper so that said first spring can apply a spring force which is opposed to the direction of handrail movement to the handrail gripper when the handrail gripper moves along with the handrail; and a sensor which is disposed in a way that it is distanced from said handrail gripper and can be triggered by the handrail gripper when the handrail gripper moves along with the handrail; characterized in that it is determined there is slippage between the handrail and a handrail drive mechanism when the sensor is not triggered. a handrail gripper for gripping the handrail and movable together with the handrail; a first spring, one end of said first spring being fixed and the other end being connected to the handrail gripper so that said first spring can apply a spring force which is opposed to the direction of handrail movement to the handrail gripper when the handrail gripper moves along with the handrail; and a sensor which is disposed in a way that it is distanced from said handrail gripper and can be triggered by the handrail gripper when the handrail gripper moves along with the handrail; characterized in that it is determined there is slippage between the handrail and a handrail drive mechanism when the sensor is not triggered.
A key derivation apparatus, comprising: in a first handover of a User Equipment, UE, from Evolved Universal Terrestrial Radio Access Network, EUTRAN, to a UTRAN, means for receiving a Handover Required message from a source base station, BS; means for deriving a key CK' || IK' in the UTRAN, according to a Key Derivation Function, KDF, a root key Kasme, a current Non-Access Stratum, NAS, downlink COUNT value in a current security context, and CK' is a ciphering key and IK' is an integrity key; means for sending the current NAS downlink COUNT value by a Handover Command message to the source BS; and means for adding a certain value to the current NAS downlink COUNT value to obtain a changed NAS downlink COUNT value, wherein the certain value is 1; wherein the changed NAS downlink COUNT value is for use for a key derivation in a second handover of the UE.
A beer-taste beverage comprising a saponin and a colorant, wherein the saponin content is at least 1 mg/L but not greater than 50 mg/L, and wherein the colorant is a caramel color.
A method of obtaining a doped semiconductor layer, comprising the successive steps of: a) performing, in a first single-crystal layer made of a semiconductor alloy of at least a first element A1 and a second element A2, an ion implantation of a first element B which is a dopant for said alloy and of a second element C which is not a dopant for said alloy, to make an upper portion of the first layer amorphous and to preserve the crystal structure of a lower portion of the first layer; and b) performing a solid phase recrystallization anneal of the upper portion of the first layer, resulting in transforming the upper portion of the first layer into a doped single-crystal layer of said alloy, wherein the dopant and non-dopant elements B and C substitute to atoms of element A1. a) performing, in a first single-crystal layer made of a semiconductor alloy of at least a first element A1 and a second element A2, an ion implantation of a first element B which is a dopant for said alloy and of a second element C which is not a dopant for said alloy, to make an upper portion of the first layer amorphous and to preserve the crystal structure of a lower portion of the first layer; and b) performing a solid phase recrystallization anneal of the upper portion of the first layer, resulting in transforming the upper portion of the first layer into a doped single-crystal layer of said alloy,
An antibody or a fragment thereof that recognises an epitope of a HER2 receptor truncated form, said epitope being defined by a sequence included in SEQ ID NO: 2, wherein said antibody or fragment thereof is capable of discriminating between the truncated variant of HER2 CTF-611 represented by SEQ ID NO:1 and CTF-616 represented by SEQ ID NO:7, between the truncated variant of HER2 CTF-611 represented by SEQ ID NO:1 and the HER2 receptor, between the truncated variant of HER2 CTF-611 represented by SEQ ID NO:1 and the HER2 receptor truncated form 648-CTF/p95 and between the truncated variant of HER2 CTF-611 represented by SEQ ID NO:1 and CTF-613 represented by SEQ ID NO:6.
A method of collecting data for diagnosing prostate cancer, the method comprising: detecting expression of a plurality of genes in a biological sample obtained from a patient, wherein the patient is of African descent and wherein the plurality of genes is selected because the patient is of African descent and comprises at least three of the following genes: COL10A1, HOXC4, ESPL1, MMP9, ABCA13, PCDHGA1, and AGSK1, wherein the at least three genes comprise COL10A1. detecting expression of a plurality of genes in a biological sample obtained from a patient, wherein the patient is of African descent and wherein the plurality of genes is selected because the patient is of African descent and comprises at least three of the following genes: COL10A1, HOXC4, ESPL1, MMP9, ABCA13, PCDHGA1, and AGSK1, wherein the at least three genes comprise COL10A1.
Spray-arm bearing for rotatably mounting a spray arm on a liquid inflow, having a bearing element for bearing the spray arm, and having a flow-guide device, which is connected to the bearing element, wherein the bearing element has a through-opening for the through-passage of liquid, the surface area of the flow-guide device corresponds to the surface area of the through-opening, or is located within the surface area of the through-opening, and the flow-guide device is connected to the bearing element via at least one crosspiece, characterized in that the spray-arm bearing is produced in one piece, i.e. it is formed in a single injection-moulding operation.
The crystal form B of 4-(7-hydroxy-2-isopropyl-4-oxo-4H-quinazolin-3-yl)-benzonitrile having structural formula I; characterized by an X-ray diffraction pattern obtained using CuK α radiation and having three or more peaks at 2θ values selected from 9.3, 10.6 and 14.4 ± 0.2 °2θ.
A method for manufacturing a cap including a cap body (4, 300) and an inside plug, the cap body (4, 300) having a circular top panel wall (12, 302) and a cylindrical skirt wall (14, 304) extending downwardly from a peripheral edge of the top panel wall (12, 302), the inside plug having a circular metallic sheet member having an annular flat region in an outer peripheral part thereof, and a synthetic resin liner disposed on a lower surface of the sheet member, an inside plug holding protruding portion protruded radially inwardly being formed in an upper end part of the skirt wall (14, 304) of the cap body (4, 300), characterized in that an annular protruding portion protruding on a lower surface side or an upper surface side is formed in the annular flat region of the sheet member; and after or at the same time that the sheet member is inserted into and installed in an inside plug holding region above the inside plug holding protruding portion inside the skirt wall (14, 304) of the cap body (4, 300), the annular protruding portion is pressed in an axial direction of the cap body (4, 300) toward the top panel wall (12, 302) and deformed so as to become close to a flat shape, whereby an outer diameter of the sheet member is enlarged, so that the inside plug is held to be inseparable from inside the skirt wall (14, 304) and to be axially movable between the inside plug holding protruding portion and an inner surface of the top panel wall (12, 302).
Packaging for medical containers, comprising a tub having a peripheral wall, a sealing cover sealable on an opening of the tub and a sealing envelope adapted to protect the sealing cover against perforation, characterized in that said sealing envelope comprises: - a lower sealing part, having a frame adapted to be sealed to the peripheral wall of the tub, and a bonding surface (4b") that extends outwards from the frame, and - an upper sealing part adapted to be sealed on said bonding surface (4b") to cover the opening of the tub and said sealing cover. - a lower sealing part, having a frame adapted to be sealed to the peripheral wall of the tub, and a bonding surface (4b") that extends outwards from the frame, and a frame adapted to be sealed to the peripheral wall of the tub, and a bonding surface (4b") that extends outwards from the frame, and - an upper sealing part adapted to be sealed on said bonding surface (4b") to cover the opening of the tub and said sealing cover.
Control system for passenger transport vehicles, said system comprising: - at least one door associated with a door reference mark, - transmitter means (40; 41; 42; 41') positioned on a traffic roadway or close to such a roadway, upstream of at least one stop (31; 32; 31') with a predetermined distance between a stop reference mark associated with the stop and a transmitter reference mark associated with the transmitter means, - receiver means positioned on each vehicle and configured to receive a deceleration control signal originated by said transmitter means (40; 41; 42; 41') at the transmitter reference mark, said control signal being originated upon the passage of said vehicle over the zone where said transmitter means (40; 41; 42; 41') are positioned; - control means positioned on each vehicle and configured to control a deceleration of the vehicle as a function, on the one hand, of the receipt of said control signal by the receiver means and, on the other hand, of at least one travelling parameters of the vehicle characterized in that said travelling parameter or parameters of each vehicle are chosen from the following: speed of travel of the vehicle, distance between the stop (31; 32; 31') and the corresponding transmitter means (40; 41; 42; 41'), distance remaining to be travelled for the vehicle to the stop, maximum deceleration accepted for the comfort of the passengers, the deceleration being a value as a function of the predetermined distance and the speed of the vehicle, the control means controlling automatically the deceleration of the vehicle up to the stop, the vehicle being stopped automatically at the stop by said control means, with the door reference mark associated with the door being positioned at the stop reference mark associated with the stop.
An aluminum alloy consisting of: 3.1 - 4.1 wt. % Cu; 0.7 - 1.3 wt. % Mg; wherein the combined amount of copper and magnesium is in the range of from 4,1 wt. % to 5.1 wt. %; and wherein the ratio copper to magnesium is in the range of from 2.6 to 5.5; 0.01 - 0.16 wt. % V; 0.01 - 0.7 wt. % Mn; 0.01 - 0.4 wt. % of at least one grain structure control element, the grain structure control elements being chosen from the group consisting of Zr, Sc, Cr and Hf; optionally 0.3 - 1.0 wt.-% Zn as an alloying element or up to 0.25 wt.-% Zn as an impurity; optionally 0.01 - 0.6 wt.-% Ag as an alloying element or less than 0.01 wt.-% Ag as an impurity; up to 0.25 wt. % Fe; and up to 0.25 wt. % Si; optionally a TiB or a TiC grain refiner, where the wt. % Ti in the alloy is from 0.01 to 0.1 wt. %; optionally at least one deoxidizer chosen from the group of Ca and Sr in an amount of from 0.001 to 0.05 wt.-% each and/or Be in an amount of up to 20 ppm; the balance being aluminum and impurities. 3.1 - 4.1 wt. % Cu; 0.7 - 1.3 wt. % Mg; wherein the combined amount of copper and magnesium is in the range of from 4,1 wt. % to 5.1 wt. %; and wherein the ratio copper to magnesium is in the range of from 2.6 to 5.5; 0.01 - 0.16 wt. % V; 0.01 - 0.7 wt. % Mn; 0.01 - 0.4 wt. % of at least one grain structure control element, the grain structure control elements being chosen from the group consisting of Zr, Sc, Cr and Hf; optionally 0.3 - 1.0 wt.-% Zn as an alloying element or up to 0.25 wt.-% Zn as an impurity; optionally 0.01 - 0.6 wt.-% Ag as an alloying element or less than 0.01 wt.-% Ag as an impurity; up to 0.25 wt. % Fe; and up to 0.25 wt. % Si; optionally a TiB or a TiC grain refiner, where the wt. % Ti in the alloy is from 0.01 to 0.1 wt. %; optionally at least one deoxidizer chosen from the group of Ca and Sr in an amount of from 0.001 to 0.05 wt.-% each and/or Be in an amount of up to 20 ppm; the balance being aluminum and impurities.
A computer-implemented method of performing Electronic System Level simulation using a multi-core computing system, said Electronic System Level simulation comprising a plurality of concurrent processes, the method comprising the steps of: A) Running a Discrete Event Simulation kernel on a core of said multi-core computing system, within a dedicated OS-kernel-level thread; B) Using said Discrete Event Simulation kernel for generating a plurality of OS-kernel-level threads, each associated to a respective core (CPU1 - CPU5) of the multi-core computing system other than the core on which said Discrete Event Simulation kernel is running, and for distributing the plurality of concurrent processes of said Electronic System Level simulation among said OS-kernel-level threads others than the one within which the Discrete Event Simulation kernel is running; C) Carrying out parallel evaluation of said concurrent processes within the corresponding OS-kernel-level threads, using respective cores of the multi-core computing system other than the core on which said Discrete Event Simulation kernel is running; and then D) Using said Discrete Event Simulation kernel for updating signals and ports ensuring communication between processes, processing event notifications, updating a simulation time and scheduling next processes to be evaluated; said steps C) and D) being carried out iteratively until the end of the simulation. A) Running a Discrete Event Simulation kernel on a core of said multi-core computing system, within a dedicated OS-kernel-level thread; B) Using said Discrete Event Simulation kernel for generating a plurality of OS-kernel-level threads, each associated to a respective core (CPU1 - CPU5) of the multi-core computing system other than the core on which said Discrete Event Simulation kernel is running, and for distributing the plurality of concurrent processes of said Electronic System Level simulation among said OS-kernel-level threads others than the one within which the Discrete Event Simulation kernel is running; C) Carrying out parallel evaluation of said concurrent processes within the corresponding OS-kernel-level threads, using respective cores of the multi-core computing system other than the core on which said Discrete Event Simulation kernel is running; and then D) Using said Discrete Event Simulation kernel for updating signals and ports ensuring communication between processes, processing event notifications, updating a simulation time and scheduling next processes to be evaluated; said steps C) and D) being carried out iteratively until the end of the simulation.
An article of manufacture for protecting a capacitive power transfer system from electrical breakdowns, comprising: a non-conductive layer (210, 500) made of a first type of non-conductive material; and a protection layer made of a second type of non-conductive material, wherein a breakdown voltage of the second type of non-conductive material is higher than a breakdown voltage of the first type of non-conductive material, wherein the protection layer covers only a portion of the non-conductive layer (210, 500), wherein the non-conductive layer (210, 500) and the protection layer form an insulating layer of the capacitive power transfer system. a non-conductive layer (210, 500) made of a first type of non-conductive material; and a protection layer made of a second type of non-conductive material, wherein a breakdown voltage of the second type of non-conductive material is higher than a breakdown voltage of the first type of non-conductive material, wherein the protection layer covers only a portion of the non-conductive layer (210, 500), wherein the non-conductive layer (210, 500) and the protection layer form an insulating layer of the capacitive power transfer system.
A traverse device which may be suitably used on yarn winding machines, or other machines in which traverse mechanisms are useful, comprising a longitudinally extending stator having a ferromagnetic core material provided with coil members (2,3); a moving element having permanent magnets forced by the coil members (2,3) and moved along the longitudinal direction of the stator, characterized in that the moving element is co-axially and outwardly or radially outwardly mounted on the coil members (2,3) which surround the ferromagnetic core material; each coil member (2,3) comprising a number of winding units in a manner that the current to flow in clockwise direction while in the next winding of the same phase to flow in counterclockwise; and winding units of each coil member (2,3) being spaced apart from one another allowing the winding units of the other coil member can be placed within respective spaces.
Asphalt pavements having high solar reflectance, with an SR index equal to or greater than 33 %, in accordance with LEED v4 BD+C certification, for both types of hot bituminous mixtures commonly used as asphalt wearing layers on streets and highways: bituminous concrete AC-type mixtures, according to UNE-EN 13108-1, and discontinuous BBTM-type mixtures, according to UNE-EN 13108-2, developed on the basis of physicochemical parameters that determine the type and composition of the mixtures: limestone aggregates for coarse and fine, or porphyry aggregates for coarse and limestone aggregates for fine, smaller maximum size of coarse aggregate, light or colourless pigmentable synthetic binder, white titanium oxides, red iron oxides and/or yellow iron oxides as additives, dense/semidense granulometry, type D or S for AC mixtures, or type A or B for discontinuous BBTM mixtures, less number of holes and less surface texture characterized by asphalt wearing mixtures of type: - AC16 SURF D, with a maximum aggregate size of 16 mm, white titanium dioxide (TiO 2) as an additive, granulometry type D, a maximum number of holes of 7 %, and pigmentable synthetic binder in a minimum binder allowance of 5.5 % by mass over the total of the mixture, - BBTM 5A or BBTM 8A, discontinuous mixtures with a maximum aggregate size of 8 mm, white titanium dioxide (TiO 2) as an additive, granulometry type A, a maximum number of holes of 16 %, and pigmentable synthetic binder in a minimum binder allowance of 5.5 % by mass over the total of the mixture. - AC16 SURF D, with a maximum aggregate size of 16 mm, white titanium dioxide (TiO 2) as an additive, granulometry type D, a maximum number of holes of 7 %, and pigmentable synthetic binder in a minimum binder allowance of 5.5 % by mass over the total of the mixture, - BBTM 5A or BBTM 8A, discontinuous mixtures with a maximum aggregate size of 8 mm, white titanium dioxide (TiO 2) as an additive, granulometry type A, a maximum number of holes of 16 %, and pigmentable synthetic binder in a minimum binder allowance of 5.5 % by mass over the total of the mixture.
A method for controlling a recirculation pump assembly, the method comprising: receiving a process-dependent characteristic; determining a recirculation flow rate of adhesive that flows to the recirculation pump assembly based on the process-dependent characteristic; determining, based on the recirculation flow rate of adhesive, a recirculation pump speed of the recirculation pump assembly configured to pump the adhesive to a supply channel that supplies the adhesive to at least one pump assembly (20a-20f) and at least one dispensing module; and adjusting an operating speed of the recirculation pump assembly to match the recirculation pump speed. receiving a process-dependent characteristic; determining a recirculation flow rate of adhesive that flows to the recirculation pump assembly based on the process-dependent characteristic; determining, based on the recirculation flow rate of adhesive, a recirculation pump speed of the recirculation pump assembly configured to pump the adhesive to a supply channel that supplies the adhesive to at least one pump assembly (20a-20f) and at least one dispensing module; and adjusting an operating speed of the recirculation pump assembly to match the recirculation pump speed.
An electromagnetic device, in particular an electromagnetic actuator and/or magnetic valve, comprising at least one magnetic coil, and at least one first yoke element and at least one second yoke element, wherein the first yoke element and the second yoke element each have at least one first end portion (22, 42), wherein the first yoke element and the second yoke element can be arranged together in a yoke arrangement, the magnetic coil has two magnetic poles in a current-carrying state, said poles defining a magnetic axis connecting the magnetic poles, the first end portions (22, 42) of the first yoke element and the second yoke element can be arranged together in a region of a first pole of the two magnetic poles in the yoke arrangement, and the first end portions (22, 42) are arranged overlapping each other at least in regions along a direction parallel to the magnetic axis in the yoke arrangement, characterized in that the first yoke element and the second yoke element have at least one positioning device (24, 25, 44, 45) in the form of a beading.