mhurhangee/ep-ind-claims huggingface dataset:
A drilling tool (100, 200) comprising: a circular-cylindrical casing pipe; an annular ring bit that is disposed at a leading end of the casing pipe so as to be coaxial with the casing pipe and rotatable around a central axis of the casing pipe; and a pilot bit that is inserted into the casing pipe from a rear end side of the casing pipe and has a leading end disposed at an inner peripheral part of the ring bit, wherein the ring bit is engaged with the pilot bit in a rotational direction during drilling, and thereby is rotatable integrally with the pilot bit around the central axis and is locked to the leading end of the pilot bit in a direction of the central axis, a plurality of drilling tips (3, 3A, 5, 5A) are mounted on the leading ends of the pilot bit and the ring bit so as to protrude therefrom, characterized in that a first drilling tip positioned at an outermost periphery of the pilot bit and a second drilling tip positioned at an innermost periphery of the ring bit overlap each other in a rotational trajectory around the central axis during drilling. a circular-cylindrical casing pipe; an annular ring bit that is disposed at a leading end of the casing pipe so as to be coaxial with the casing pipe and rotatable around a central axis of the casing pipe; and a pilot bit that is inserted into the casing pipe from a rear end side of the casing pipe and has a leading end disposed at an inner peripheral part of the ring bit, wherein the ring bit is engaged with the pilot bit in a rotational direction during drilling, and thereby is rotatable integrally with the pilot bit around the central axis and is locked to the leading end of the pilot bit in a direction of the central axis, a plurality of drilling tips (3, 3A, 5, 5A) are mounted on the leading ends of the pilot bit and the ring bit so as to protrude therefrom, characterized in that a first drilling tip positioned at an outermost periphery of the pilot bit and a second drilling tip positioned at an innermost periphery of the ring bit overlap each other in a rotational trajectory around the central axis during drilling.
A lyase, wherein the amino acid isoleucine in the protein Ap PDC-E469G, which is modified compared to the wild type from Acetobacterpasteurianus, in position no. 468 is replaced by an amino acid which is less space-filling than isoleucine, characterized in that it has an amino acid sequence according to one of the sequences no. 1 or 2.
A toothpaste composition comprising: (i) 30 to 60wt% a Calcium based abrasive; (ii) 0.1 to 2wt% a copolymer of vinylmethyl ether and maleic acid; and, (iii) 0.2 to 3wt% a clay wherein ratio of said Calcium based abrasive to said copolymer of vinyl methyl ether and maleic acid is at least 1:0.0075 and ratio of said Calcium based abrasive to said clay is at least 1:0.02. (i) 30 to 60wt% a Calcium based abrasive; (ii) 0.1 to 2wt% a copolymer of vinylmethyl ether and maleic acid; and, (iii) 0.2 to 3wt% a clay
Method for synchronising a plurality of measuring devices (1, 1', 1") with at least two measuring channel assemblies (2, 3, 4) in each case with the following method steps: - generation of a system synchronisation signal by a measuring device; - feeding of the system synchronisation signal to each further measuring device (1', 1") and to the measuring device for generating the system synchronisation signal itself, wherein the transit times of the system synchronisation signal to all the measuring devices (1, 1', 1") are the same; - generation of a clock signal in each of the measuring devices (1, 1', 1"); and - correction of the phase position of the clock signal of each measuring device (1, 1', 1") to the phase position of the system synchronisation signal, wherein the system synchronisation signal is fed back to the measuring device for generating the system synchronisation signal externally via a measuring device output and via a measuring device input; and characterised in that the system synchronisation signal is fed to the measuring device for generating the system synchronisation signal via the measuring device input to a phase correction element; and in that for synchronisation of the measuring channel assemblies (2, 3, 4) in the measuring devices (1, 1', 1"), an additional method step of feeding the phase-corrected clock signal to the measuring channel assemblies (2, 3, 4) is carried out, wherein the transit times of the clock signal to the measuring channel assemblies (2, 3, 4) are the same length. - generation of a system synchronisation signal by a measuring device; - feeding of the system synchronisation signal to each further measuring device (1', 1") and to the measuring device for generating the system synchronisation signal itself, wherein the transit times of the system synchronisation signal to all the measuring devices (1, 1', 1") are the same; - generation of a clock signal in each of the measuring devices (1, 1', 1"); and - correction of the phase position of the clock signal of each measuring device (1, 1', 1") to the phase position of the system synchronisation signal,
Puncturing device comprising a band-shaped lancet carrier carrying a plurality of lancets, a transport mechanism (6, 7, 8) for positioning the lancets sequentially in a launch position by moving the band-shaped lancet carrier, a lancet drive for accelerating a lancet from the launch position for a puncturing movement, the lancet drive comprising an energy storage including a drive spring for providing energy for the acceleration of the lancet, a trigger element for triggering the lancet drive to release energy form the energy storage to accelerate the lancet for a puncturing movement, and a housing which comprises at least two housing parts and encloses the band-shaped lancet carrier and the lancet drive, the housing having an opening, against which a body part is pressed for puncturing by a lancet positioned in the launch position, wherein the transport mechanism (6, 7, 8) comprises at least one part (6, 7, 8) which is arranged in a fixed position with respect to the housing, characterized in that the puncturing device is adapted for disposable use in that an irreversible connection between the housing parts is formed upon enclosing the band-shaped lancet carrier thereby enclosing the band-shaped lancet carrier irremovably in the housing, the lancets are aligned across the longitudinal direction of the band-shaped lancet carrier, and the drive spring is coupled to the transport mechanism in such a way that transportation of a lancet to the launch position causes a tensioning of the drive spring.
An edible energy composition comprising: caffeine in an amount less than 0.00045 g/ml; choline in an amount from 0.0004 g/ml to 0.009 g/ml; amino acids or an amino acid derivative in an amount from 0.01 to 0.03 g/ml; vitamins in an amount from 0.0003 to 0.01 g/ml; glucuronolactone in an amount from 0.003 to 0.01 g/ml; and at least one flavorant in a sufficient amount to render the energy composition palatable. caffeine in an amount less than 0.00045 g/ml; choline in an amount from 0.0004 g/ml to 0.009 g/ml; amino acids or an amino acid derivative in an amount from 0.01 to 0.03 g/ml; vitamins in an amount from 0.0003 to 0.01 g/ml; glucuronolactone in an amount from 0.003 to 0.01 g/ml; and at least one flavorant in a sufficient amount to render the energy composition palatable.
A method for conducting drilling and completion operations in a borehole for the recovery of hydrocarbons in a subterranean formation, wherein the subterranean formation has one or more narrow fracture gradient zones, wherein the narrow fracture gradient zones are areas of the subterranean formation where the formation has a formation-fracture pressure and a pore pressure that differ by less than 1 lb/gal (120 kg/m 3) in equivalent weight and the method comprises the steps of: drilling the borehole in the subterranean formation using an oil based drilling fluid having a known rheology and density, at least in drilling through one or more of the narrow fracture gradient zones of the formation; providing a resin composition having a rheology and a density approximating that of the oil-based drilling fluid; using the resin composition instead of cement in the completion operation without fracturing the narrow gradient zones; and allowing the resin composition to harden in place in the borehole. drilling the borehole in the subterranean formation using an oil based drilling fluid having a known rheology and density, at least in drilling through one or more of the narrow fracture gradient zones of the formation; providing a resin composition having a rheology and a density approximating that of the oil-based drilling fluid; using the resin composition instead of cement in the completion operation without fracturing the narrow gradient zones; and allowing the resin composition to harden in place in the borehole.
A plurality of distinctly element stained particles, usable by a Mass Spectrometer-based Flow Cytometer (FC-MS), each particle having a Mass Spectrometer readable elemental code characterized by having differing ratios of at least two staining elements, said staining elements being selected such that upon FC-MS interrogation of each individual particle, a distinct MS signal is obtained from said at least two staining elements, wherein the intensity of said signal is proportional to the amount of said at least two staining elements, whereby said signal represents the MS readable elemental code.
A current sensing system, comprising: a silicon die; and a conductor, part of the conductor shaped to carry a target current in a way such that the target current flows through said part of the conductor in a first current path and a second current path with opposite current directions, so that a first magnetic region and a second magnetic region with opposite magnetic field directions crossed therethrough are created at the silicon die, the silicon die having N Hall effect devices in each of the magnetic regions, half of the N Hall effect devices in each of the magnetic regions being placed at one side of a mid-line, another half of the N Hall effect devices in each of the magnetic regions being placed at the other side of the mid-line, the respective two halves of the Hall effect devices being placed symmetrically with each other along the mid-line, N being a positive even number, each Hall effect device being applied with a bias current to provide a Hall voltage, wherein the silicon die further comprises: two process circuits, configured to respectively process the Hall voltages from each side of the mid-line, to generate two processed signals; and an operational unit, configured to execute a subtraction operation or an add operation on the two processed signals to generate an operational signal. a silicon die; and a conductor, part of the conductor shaped to carry a target current in a way such that the target current flows through said part of the conductor in a first current path and a second current path with opposite current directions, so that a first magnetic region and a second magnetic region with opposite magnetic field directions crossed therethrough are created at the silicon die, the silicon die having N Hall effect devices in each of the magnetic regions, half of the N Hall effect devices in each of the magnetic regions being placed at one side of a mid-line, another half of the N Hall effect devices in each of the magnetic regions being placed at the other side of the mid-line, the respective two halves of the Hall effect devices being placed symmetrically with each other along the mid-line, N being a positive even number, each Hall effect device being applied with a bias current to provide a Hall voltage, wherein the silicon die further comprises: two process circuits, configured to respectively process the Hall voltages from each side of the mid-line, to generate two processed signals; and an operational unit, configured to execute a subtraction operation or an add operation on the two processed signals to generate an operational signal. two process circuits, configured to respectively process the Hall voltages from each side of the mid-line, to generate two processed signals; and an operational unit, configured to execute a subtraction operation or an add operation on the two processed signals to generate an operational signal.
Device (100, 200) for performing a chemical reaction in a process fluid in a production plant which has at least one ground terminal connected to the ground for grounding production plant components, the device comprising a reactor (110, 210) having one or more reaction pipes which are guided into the reactor or guided out of the reactor via at least one supply portion (152, 252) and at least one discharge portion (154, 254) and have a number of electrically heatable pipe sections which are connected to one another in a power delivery region by an electrically conductive neutral bridge; and at least one power source which is configured to provide a multiphase alternating current having N phases at N phase lines (U, V, W) with a predetermined voltage, N being an integer greater than or equal to 2, and, for each two phases, a phase shift between the two phases being 2π·k/N, k being an integer in the range of from 1 to N-1; a number N of power terminals being provided for each of the at least one power sources, each of which terminals is connected to at least one of the pipe sections in a power supply region, each of the power terminals being connected to one of the phase lines of the power source; and a neutral point at which the phase lines of the power source are connected being formed in the at least one power source, characterized in that the neutral point is not connected to a ground terminal. a reactor (110, 210) having one or more reaction pipes which are guided into the reactor or guided out of the reactor via at least one supply portion (152, 252) and at least one discharge portion (154, 254) and have a number of electrically heatable pipe sections which are connected to one another in a power delivery region by an electrically conductive neutral bridge; and at least one power source which is configured to provide a multiphase alternating current having N phases at N phase lines (U, V, W) with a predetermined voltage, N being an integer greater than or equal to 2, and, for each two phases, a phase shift between the two phases being 2π·k/N, k being an integer in the range of from 1 to N-1; a number N of power terminals being provided for each of the at least one power sources, each of which terminals is connected to at least one of the pipe sections in a power supply region, each of the power terminals being connected to one of the phase lines of the power source; and a neutral point at which the phase lines of the power source are connected being formed in the at least one power source, characterized in that the neutral point is not connected to a ground terminal.
A method for producing a polymeric composition, preferably in the form of a water-based composition, particularly to be used as or in a pressure-sensitive adhesive, wherein the method comprises producing, via polymerization, preferably via emulsion polymerization, especially in a two-stage radical polymerization process, a copolymer obtainable by copolymerizing moieties (monomers) (i), (ii) and (iii) according to the following definition and each being different from one another: (i) at least one first ethylenically unsaturated monomer, the homopolymer of which has a glass transition temperature Tg (i) ranging from 30 °C to 200 °C, especially from 40 °C to 150 °C, in accordance with DIN EN ISO 11357-2: 2014, (ii) at least one second ethylenically unsaturated monomer, the homopolymer of which has a glass transition temperature Tg (ii) ranging from -100 °C to -10 °C, especially from -60 °C to -20 °C, in accordance with DIN EN ISO 11357-2: 2014, (iii) at least one crosslinker, especially at least one crosslinking (macro)monomer or oligomer, which crosslinker comprises moieties (units) derived from ε-caprolactone (1-oxa-2-oxocycloheptane) and lactide (3,6-dimethyl-1,4-dioxan-2,5-dion) and which crosslinker additionally comprises two ethylenically unsaturated bonds. (i) at least one first ethylenically unsaturated monomer, the homopolymer of which has a glass transition temperature Tg (i) ranging from 30 °C to 200 °C, especially from 40 °C to 150 °C, in accordance with DIN EN ISO 11357-2: 2014, (ii) at least one second ethylenically unsaturated monomer, the homopolymer of which has a glass transition temperature Tg (ii) ranging from -100 °C to -10 °C, especially from -60 °C to -20 °C, in accordance with DIN EN ISO 11357-2: 2014, (iii) at least one crosslinker, especially at least one crosslinking (macro)monomer or oligomer, which crosslinker comprises moieties (units) derived from ε-caprolactone (1-oxa-2-oxocycloheptane) and lactide (3,6-dimethyl-1,4-dioxan-2,5-dion) and which crosslinker additionally comprises two ethylenically unsaturated bonds.
An installation for surface treating, in particular painting, objects, in particle vehicle body parts, having a) a treatment booth which defines a treatment space in which a booth atmosphere prevails; b) a transport system by means of which the objects can be transported into the treatment space and out of it again; c) at least one treatment unit by means of which a treatment of the objects can be carried out in the treatment space and which requires a process gas for the operation, d) a supply device by means of which the process gas can be supplied to the at least one treatment unit, wherein the process gas arrives in the treatment space during the treatment procedure and thus contributes to the booth atmosphere, characterised in that e) a separating system is provided, to which booth atmosphere can be supplied and by means of which process gas can be separated from the booth atmosphere. a) a treatment booth which defines a treatment space in which a booth atmosphere prevails; b) a transport system by means of which the objects can be transported into the treatment space and out of it again; c) at least one treatment unit by means of which a treatment of the objects can be carried out in the treatment space and which requires a process gas for the operation, d) a supply device by means of which the process gas can be supplied to the at least one treatment unit, wherein the process gas arrives in the treatment space during the treatment procedure and thus contributes to the booth atmosphere, e) a separating system is provided, to which booth atmosphere can be supplied and by means of which process gas can be separated from the booth atmosphere.
A method for a mobile communication device registering in a second radio cell of a mobile communication network based on a deactivation of a first radio cell the mobile communication device was located in, the method comprising: randomly determining a time interval by the mobile communication device, determining expiration of the time interval starting from a predetermined point in time by the mobile communication device; and registering by the mobile communication device in the second radio cell, only after the expiration of the time interval has been determined, if it has been registered in the first radio cell before, wherein the method is characterized by receiving a message notifying about the deactivation of the first radio cell in the mobile communication device, blocking an initiation of mobile-originating speech and/or data connections from the mobile communication device after having received the message notifying about the deactivation of the first radio cell. randomly determining a time interval by the mobile communication device, determining expiration of the time interval starting from a predetermined point in time by the mobile communication device; and registering by the mobile communication device in the second radio cell, only after the expiration of the time interval has been determined, if it has been registered in the first radio cell before, wherein the method is characterized by receiving a message notifying about the deactivation of the first radio cell in the mobile communication device, blocking an initiation of mobile-originating speech and/or data connections from the mobile communication device after having received the message notifying about the deactivation of the first radio cell.
Pulverulent surface-postcrosslinked addition polymer capable of absorbing water, aqueous or serous fluids and also blood and obtainable by surface crosslinking at least one partly neutralized carboxyl-containing polysaccharide, characterized in that the polycarboxypolysaccharide is aqueously preswollen in uncrosslinked form and redried before the surface crosslinking, in that the surface postcrosslinking utilizes ionic crosslinkers, in that the ionic surface crosslinkers are salts of at least divalent cations, in that the polyvalent cation is formed from Al 3+, wherein the addition polymer powder has a surface crosslinking index of greater than 40, where the SCI is calculated from the amount of Al 3+ added in the course of the surficial crosslinking, based on the superabsorbent resin (= C SAP), and the Al 3+ concentration of the fine particles found after mechanical exposure (= C F) in accordance with the equation SCI = (C F -C SAP) *100, where C F and C SAP are inserted in % Al 3+.
A method of handling an uplink timing of a timing advance group for a mobile device in a wireless communication system, the mobile device being configured with a plurality of secondary cells (SCell) in the TA group by a network of the wireless communication system, and the method comprising: - maintaining the UL timing of the TA group according to a downlink timing of a first timing reference cell of the plurality of SCells, if a time alignment timer of the TA group does not expire; and - maintaining the UL timing of the TA group according to a DL timing of a second timing reference cell of the plurality of SCells, when the first timing reference cell is deactivated and the time alignment timer of the TA group does not expire. - maintaining the UL timing of the TA group according to a downlink timing of a first timing reference cell of the plurality of SCells, if a time alignment timer of the TA group does not expire; and - maintaining the UL timing of the TA group according to a DL timing of a second timing reference cell of the plurality of SCells, when the first timing reference cell is deactivated and the time alignment timer of the TA group does not expire.