mhurhangee/ep-ind-claims huggingface dataset:
A system (100, 200) for providing corrosion protection of a metallic structure using time varying electromagnetic wave, comprising: a metallic structure to be protected against corrosion; a generator (120, 220) for generating electromagnetic wave having a time varying frequency, said generator (120, 220) having at least two output terminals (122, 124) in electrical connection respectively with first and second excitation sites which are positioned in a spaced manner on the metallic structure, allowing for subjecting the metallic structure to the electromagnetic wave; and an electric power source connected to the generator (120, 220), characterized in that the generator (120, 220) is powered to apply a driving voltage to the generator to drive the generation of the electromagnetic wave; and the driving voltage is applied in the range of 5V to 50V and/or the frequency of the electromagnetic wave is operating in the range of 100 Hz to 1 MHz, such that the metallic structure is energized to form in-situ a passive oxidized species of the metal on a surface of the metallic structure, which species is insusceptible to corrosion and is self-repairing. a metallic structure to be protected against corrosion; a generator (120, 220) for generating electromagnetic wave having a time varying frequency, said generator (120, 220) having at least two output terminals (122, 124) in electrical connection respectively with first and second excitation sites which are positioned in a spaced manner on the metallic structure, allowing for subjecting the metallic structure to the electromagnetic wave; and an electric power source connected to the generator (120, 220), characterized in that the generator (120, 220) is powered to apply a driving voltage to the generator to drive the generation of the electromagnetic wave; and the driving voltage is applied in the range of 5V to 50V and/or the frequency of the electromagnetic wave is operating in the range of 100 Hz to 1 MHz, such that the metallic structure is energized to form in-situ a passive oxidized species of the metal on a surface of the metallic structure, which species is insusceptible to corrosion and is self-repairing.
A quick-coupling device (10, 100) for a milking module of a milking system for milking dairy animals, wherein the quick-coupling device (10, 100) forms a releasable and re-establishable connection between the milking module and a milk pipe and comprises a valve mechanism (14, 114) which is able to be moved from a closed state into an open state and vice versa, wherein the quick-coupling device (10, 100) comprises a feeding port (11, 110), a discharge port (12, 112) and two articulated clamps (4, 5), characterized in that the feeding port (11, 110) at one end forms with an articulated clamp a releasable and re-establishable connection between the milking module and the feeding port (11, 110) and in that the feeding port (11, 110) at its other end forms with the other of the articulated clamps (4, 5) a further releasable and re-establishable connection between the discharge port and the feeding port.
An inductive power transmitter operable in at least two modes, said transmitter comprising: at least one primary inductor configured to couple inductively with a secondary inductor connected to an electric load such that power is transferred to said electric load; and at least one driver configured to provide an oscillating electric potential across said primary inductor; characterised by at least one alignment mechanism configured to align said secondary inductor to said primary inductor when said inductive power transmitter is operating in a first mode; and at least one frequency selector configured to select a driving frequency for said oscillating electrical potential selected to match a resonant frequency of a reception circuit associated with said secondary inductor when said inductive power transmitter is operating in a second mode. at least one primary inductor configured to couple inductively with a secondary inductor connected to an electric load such that power is transferred to said electric load; and at least one driver configured to provide an oscillating electric potential across said primary inductor; characterised by at least one alignment mechanism configured to align said secondary inductor to said primary inductor when said inductive power transmitter is operating in a first mode; and at least one frequency selector configured to select a driving frequency for said oscillating electrical potential selected to match a resonant frequency of a reception circuit associated with said secondary inductor when said inductive power transmitter is operating in a second mode.
Bottle made of polymer material comprising a base, on said base a plurality of ribs being provided, each rib consisting of a curvature of the base of the bottle which forms a protuberance in the longitudinal direction directed towards the inside of the bottle; said ribs extending in a radial direction along a line of radial extension the projection, in a transverse plane, of said line of radial extension of at least one of said ribs being curved; characterized in that said projection, in a transverse plane, of said line of radial extension has at least one flexing point.
A hemispherical resonator gyroscope comprising: a resonator including a stem extending along an axis and a shell extending from the stem, the shell having a hemispherical portion extending from the stem and a cylindrical portion extending from the hemispherical portion, the cylindrical portion having an outer surface and an inner surface and terminating at an axial end surface that is perpendicular to the outer surface and the inner surface; and an inner cylindrical substrate (30, 62, 91) that extends along an axis and includes a set of inner electrodes arranged annularly about the axis, and a passage (34, 84, 94) that extends along the axis through a central region of the inner cylindrical substrate (30, 62, 91), wherein the stem extends through the passage (34, 84, 94) to position the inner cylindrical substrate (30, 62, 91) within the inner surface of the cylindrical portion of the resonator forming gaps between the set of inner electrodes (32, 66, 92) and the inner surface of the cylindrical portion; characterized in that the gyroscope further comprises an outer cylindrical substrate (36, 64, 100) that extends along an axis and includes a top surface and a bottom surface with a set of rim electrodes arranged circumferentially about the top surface, the outer cylindrical substrate (36, 64, 100) being positioned such that the set of rim electrodes are positioned about and spaced apart from the axial end surface of the cylindrical portion of the shell forming gaps between the set of rim electrodes and the axial end surface. a resonator including a stem extending along an axis and a shell extending from the stem, the shell having a hemispherical portion extending from the stem and a cylindrical portion extending from the hemispherical portion, the cylindrical portion having an outer surface and an inner surface and terminating at an axial end surface that is perpendicular to the outer surface and the inner surface; and an inner cylindrical substrate (30, 62, 91) that extends along an axis and includes a set of inner electrodes arranged annularly about the axis, and a passage (34, 84, 94) that extends along the axis through a central region of the inner cylindrical substrate (30, 62, 91), wherein the stem extends through the passage (34, 84, 94) to position the inner cylindrical substrate (30, 62, 91) within the inner surface of the cylindrical portion of the resonator forming gaps between the set of inner electrodes (32, 66, 92) and the inner surface of the cylindrical portion; characterized in that the gyroscope further comprises an outer cylindrical substrate (36, 64, 100) that extends along an axis and includes a top surface and a bottom surface with a set of rim electrodes arranged circumferentially about the top surface, the outer cylindrical substrate (36, 64, 100) being positioned such that the set of rim electrodes are positioned about and spaced apart from the axial end surface of the cylindrical portion of the shell forming gaps between the set of rim electrodes and the axial end surface.
A method of encapsulating an active comprising: preparing a first mixture comprising the active, a compound that functions as a Michael donor, and a compound that functions as a Michael acceptor, preparing a second mixture comprising water and an emulsifier; preparing a reaction mixture by combining the first mixture, the second mixture, and a compound that functions as a Michael catalyst; agitating the reaction mixture; wherein the active has a water solubility of at most 0.5% (w/w) at 25 °C; wherein the compound that functions as the Michael donor is selected from the group consisting of acetoacetate esters, cyanoacetate esters and malonic acid esters; and wherein the compound that functions as the Michael acceptor is a multifunctional acrylate. preparing a first mixture comprising the active, a compound that functions as a Michael donor, and a compound that functions as a Michael acceptor, preparing a second mixture comprising water and an emulsifier; preparing a reaction mixture by combining the first mixture, the second mixture, and a compound that functions as a Michael catalyst; agitating the reaction mixture; wherein the active has a water solubility of at most 0.5% (w/w) at 25 °C; wherein the compound that functions as the Michael donor is selected from the group consisting of acetoacetate esters, cyanoacetate esters and malonic acid esters; and wherein the compound that functions as the Michael acceptor is a multifunctional acrylate.
A coating composition comprising a hydroxyl group-containing acrylic resin, a polyisocyanate compound, a matting agent, an organic solvent and an organic solvent, wherein: the organic solvent is an organic solvent with a boiling point in the range of 190 to 250°C and a solubility parameter of 9 to 11, the organic solvent is an organic solvent with a boiling point in the range of 100 to 140°C and a solubility parameter of 8 or greater and less than 9, and the content of the organic solvent is in the range of 5 to 40 parts by mass and the content of the organic solvent is in the range of 35 to 75 parts by mass, based on 100 parts by mass as the total solid content of the hydroxyl group-containing acrylic resin and polyisocyanate compound. the organic solvent is an organic solvent with a boiling point in the range of 190 to 250°C and a solubility parameter of 9 to 11, the organic solvent is an organic solvent with a boiling point in the range of 100 to 140°C and a solubility parameter of 8 or greater and less than 9, and the content of the organic solvent is in the range of 5 to 40 parts by mass and the content of the organic solvent is in the range of 35 to 75 parts by mass, based on 100 parts by mass as the total solid content of the hydroxyl group-containing acrylic resin and polyisocyanate compound.
Method for producing a prechamber spark plug with an external thread and a cap with at least one through opening, comprising the following steps: - providing of the prechamber spark plug without cap and with a cylindrical circumferential surface for the external thread, - mounting of the cap, which has at least one through opening, in any desired orientation on the prechamber spark plug, and characterized by the - production of the external thread on the circumferential surface in such a way that a thread start and/or thread end of the external thread is oriented at a predefined position in relation to the through opening. - providing of the prechamber spark plug without cap and with a cylindrical circumferential surface for the external thread, - mounting of the cap, which has at least one through opening, in any desired orientation on the prechamber spark plug, and characterized by the - production of the external thread on the circumferential surface in such a way that a thread start and/or thread end of the external thread is oriented at a predefined position in relation to the through opening.
An emulsifier for emulsion polymerization comprising a compound represented by the following formula. wherein in formula, D represents a polymerizable unsaturated group represented by either the following chemical formula D-1 or chemical formula D-2; m1 represents a number of 1 or larger; R 1 represents an alkyl group having 1-12 carbon atoms; m2 represents a number of 0 to 4; and the sum of m1 and m2 is 1 to 5; R 2 represents a hydrocarbon group having 6-30 carbon atoms; A represents either an alkylene group or a substituted alkylene group which has 2 to 4 carbon atoms; and n, which indicates the average number of moles of the alkylene oxide that has added, is in the range of 0 to 1,000; X represents a hydrogen atom or an anionic hydrophilic group represented by any of - (CH 2) a -SO 3 M, -(CH 2) b -COOM, -PO 3 M 2, -P O 2 M, and -CO-CH 2 -CH(SO 3 M)-COOM (in the formulae, a and b each represent a number of 0 to 4; Z is the residue formed by removing X from the formula; and each M represents a hydrogen atom, an alkali metal atom, an alkaline earth metal atom, an ammonium residue, or an alkanolamine residue), wherein in chemical formula D-1 and chemical formula D-2, R 3 represents a hydrogen atom or a methyl group.
A method of monitoring a fluid reductant introduced into an exhaust stream of an internal combustion engine having a Selective Catalyst Reduction,SCR, device, said method comprising: periodically determining a NOx conversion efficiency in the SCR device by comparing values of NOx in the exhaust gas stream both upstream and downstream of said device, determining a long term average value of said conversion efficiency, and periodically determining a short term average value of conversion efficiency, wherein the method is characterised by determining the difference between each new short term average value and the current long term average value. periodically determining a NOx conversion efficiency in the SCR device by comparing values of NOx in the exhaust gas stream both upstream and downstream of said device, determining a long term average value of said conversion efficiency, and periodically determining a short term average value of conversion efficiency, wherein the method is characterised by determining the difference between each new short term average value and the current long term average value.
Rotor blade of a wind turbine having two rotor blade half-shells (1, 21) each having a leading edge periphery and a trailing edge periphery (8a, 22a), which are bonded to one another along the leading and trailing edge peripheries (8a, 22a) and which each have a trailing edge chord (3, 25), wherein the two trailing edge chords (3, 25) have, at least along a section in a longitudinal direction, a rectangular cross-section transversely to the longitudinal direction and the two trailing edge chords (3, 25) are adhered to an inner side of the rotor blade half-shells (1, 21) and are connected to one another by a stringer via adhered connections, and a distance of the respective trailing edge chord (3, 25) in an aerodynamic region of the rotor blade from the trailing edge periphery (8a, 22a) is greater than in a region of a root-side end, wherein the respective trailing edge chord (3, 25) in the section in which the trailing edge chord (3, 25) is rectangular in cross-section is further away from the associated trailing edge periphery (8a, 22a) than in other sections.
A monitoring system comprising a supplementary device and a mobile device, wherein the supplementary device is configured to: capture an image of a medicament dosage indicated by a medicament dispensing device by an image capturing component of the supplementary device; display the image of the medicament dosage on a display of the supplementary device; and transmit data representing the image of the medicament dosage to the mobile device; and wherein the mobile device comprises a computer code and is configured to execute the computer code to: receive the data representing the image of the medicament dosage sent by the supplementary device; perform optical character recognition on the data of the medicament dosage thereby to identify the dosage indicated by the medicament dispensing device; display the identified medicament dosage on a display of the mobile device; allow the user to vary the medicament dosage indicated by the medicament dispensing device from that identified from the optical character recognition; and make a non-transient record of dosage information based at least in part on the identified medicament dosage. capture an image of a medicament dosage indicated by a medicament dispensing device by an image capturing component of the supplementary device; display the image of the medicament dosage on a display of the supplementary device; and transmit data representing the image of the medicament dosage to the mobile device; and wherein the mobile device comprises a computer code and is configured to execute the computer code to: receive the data representing the image of the medicament dosage sent by the supplementary device; perform optical character recognition on the data of the medicament dosage thereby to identify the dosage indicated by the medicament dispensing device; display the identified medicament dosage on a display of the mobile device; allow the user to vary the medicament dosage indicated by the medicament dispensing device from that identified from the optical character recognition; and make a non-transient record of dosage information based at least in part on the identified medicament dosage. receive the data representing the image of the medicament dosage sent by the supplementary device; perform optical character recognition on the data of the medicament dosage thereby to identify the dosage indicated by the medicament dispensing device; display the identified medicament dosage on a display of the mobile device; allow the user to vary the medicament dosage indicated by the medicament dispensing device from that identified from the optical character recognition; and make a non-transient record of dosage information based at least in part on the identified medicament dosage.
An implantable prosthesis for mending a groin hernia, the implantable prosthesis comprising: a patch of repair fabric including a medial portion, a lateral portion, a lateral end and a transition region, the medial portion configured to be positioned at a first tissue plane, the lateral portion configured to be positioned at a second tissue plane offset from the first tissue plane, the transition region configured to be positioned through an opening in tissue and/or muscle separating the first and second tissue planes; and a support member located along the medial portion, the lateral portion and the transition region to help deploy and/or hold the patch in a spread out configuration, the support member including a transition segment associated with the transition region of the patch, the transition segment being located from at least 2.5cm to at least 5.1cm from the lateral end of the patch and having an outer width that does not exceed 4.2cm. a patch of repair fabric including a medial portion, a lateral portion, a lateral end and a transition region, the medial portion configured to be positioned at a first tissue plane, the lateral portion configured to be positioned at a second tissue plane offset from the first tissue plane, the transition region configured to be positioned through an opening in tissue and/or muscle separating the first and second tissue planes; and a support member located along the medial portion, the lateral portion and the transition region to help deploy and/or hold the patch in a spread out configuration, the support member including a transition segment associated with the transition region of the patch, the transition segment being located from at least 2.5cm to at least 5.1cm from the lateral end of the patch and having an outer width that does not exceed 4.2cm.
A hybrid module for a drive train of a motor vehicle, wherein the hybrid module has: a housing, an electric machine accommodated in the housing which has a stator and a rotor arranged radially inside the stator, and a hydraulically cooled friction clutch (6, 7) arranged radially inside the rotor, characterized by a cooling device designed to cool a plurality of friction surfaces of the friction clutch (6, 7), which has an annular collecting area, which is non-rotatably coupled to the rotor and entrains a hydraulic medium during operation, and has a scoop section (10; 10a, 10b) which is fixed to the housing and protrudes into the collecting area, via which scoop section the hydraulic medium is fed to a retention space during operation. a housing, an electric machine accommodated in the housing which has a stator and a rotor arranged radially inside the stator, and a hydraulically cooled friction clutch (6, 7) arranged radially inside the rotor, characterized by a cooling device designed to cool a plurality of friction surfaces of the friction clutch (6, 7), which has an annular collecting area, which is non-rotatably coupled to the rotor and entrains a hydraulic medium during operation, and has a scoop section (10; 10a, 10b) which is fixed to the housing and protrudes into the collecting area, via which scoop section the hydraulic medium is fed to a retention space during operation.
A method for wireless communications, comprising: determining setup information of a user equipment, UE, wherein the setup information includes identification of a plurality of radios and network protocols the plurality of radios is configured to communicate over, wherein each radio of the plurality of radios is configured to communicate over a separate network protocol, wherein the plurality of radios includes a first radio configured to communicate using a long term evolution, LTE, protocol and a second radio configured to communicate using a wireless fidelity, Wi-Fi, protocol; transmitting the setup information of the UE to an evolved node B, eNode-B; receiving configuration information from the eNode-B, wherein the configuration information comprises LTE discontinuous reception, DRX, parameters to allow the UE to operate the first radio during a first duration and to operate the second radio during a second duration; receiving a first signal using the LTE protocol by the first radio and receiving a second signal using the Wi-Fi protocol by the second radio based at least in-part on the configuration information; and transmitting a measurement report to the eNode-B if a time difference drift exceeds a threshold, the time difference drift comprising a drift in gap between an active time of the first radio in the first duration and an active time of the second radio in the second duration. determining setup information of a user equipment, UE, wherein the setup information includes identification of a plurality of radios and network protocols the plurality of radios is configured to communicate over, wherein each radio of the plurality of radios is configured to communicate over a separate network protocol, wherein the plurality of radios includes a first radio configured to communicate using a long term evolution, LTE, protocol and a second radio configured to communicate using a wireless fidelity, Wi-Fi, protocol; transmitting the setup information of the UE to an evolved node B, eNode-B; receiving configuration information from the eNode-B, wherein the configuration information comprises LTE discontinuous reception, DRX, parameters to allow the UE to operate the first radio during a first duration and to operate the second radio during a second duration; receiving a first signal using the LTE protocol by the first radio and receiving a second signal using the Wi-Fi protocol by the second radio based at least in-part on the configuration information; and transmitting a measurement report to the eNode-B if a time difference drift exceeds a threshold, the time difference drift comprising a drift in gap between an active time of the first radio in the first duration and an active time of the second radio in the second duration.