mhurhangee/ep-ind-claims huggingface dataset:
A suspension system for a suspended marine platform on a high-speed water vessel having a usual direction of travel, the suspension system comprising: a shock absorbing assembly suitable for resiliently suspending a marine platform relative to a vessel, wherein the shock absorbing assembly tends to cause the marine platform to remain in an upper at-rest position and to return to the at-rest position on cessation of a force causing the marine platform to move generally vertically towards a bottom position; a first spar assembly (270, 302, 304) and a second spar assembly (270, 302, 304), wherein one spar assembly is forward of the other spar assembly (270, 302, 304), and each spar assembly (270, 302, 304) comprises a first spar and a second spar, each spar pivotally attached at a proximal end to the vessel and at a distal end to the marine platform, characterised in that: the proximal ends are aft of the distal ends in said direction of travel; and the proximal ends of the spars are spaced athwart one from the other a greater distance than the distal ends of the spars are spaced athwart one from the other; and a roll-attenuation assembly interconnected between the marine platform and the vessel. a shock absorbing assembly suitable for resiliently suspending a marine platform relative to a vessel, wherein the shock absorbing assembly tends to cause the marine platform to remain in an upper at-rest position and to return to the at-rest position on cessation of a force causing the marine platform to move generally vertically towards a bottom position; a first spar assembly (270, 302, 304) and a second spar assembly (270, 302, 304), wherein one spar assembly is forward of the other spar assembly (270, 302, 304), and each spar assembly (270, 302, 304) comprises a first spar and a second spar, each spar pivotally attached at a proximal end to the vessel and at a distal end to the marine platform, characterised in that: the proximal ends are aft of the distal ends in said direction of travel; and the proximal ends of the spars are spaced athwart one from the other a greater distance than the distal ends of the spars are spaced athwart one from the other; and a roll-attenuation assembly interconnected between the marine platform and the vessel. the proximal ends are aft of the distal ends in said direction of travel; and the proximal ends of the spars are spaced athwart one from the other a greater distance than the distal ends of the spars are spaced athwart one from the other; and a roll-attenuation assembly interconnected between the marine platform and the vessel.
A method for draining the tank space of a supply tank in a pneumatic material conveying system, such as a waste conveying system, from material, such as waste material, said conveying system comprising at least one supply tank; said tank comprising a tank space and an outlet aperture; in which method the tank space is drained to a conveyor pipe (2, 100) by opening a drain valve, so that the underpressure prevailing in the conveyor pipe, together with the ambient pressure prevailing in the supply tank, conveys material from the supply tank to the conveyor pipe (2, 100), characterized in that in the method, makeup air is brought to the bottom part of the material space, to the section left between a bottom part of a partition wall and the drain valve via a path that at least partly surrounds the partition wall, at least its bottom part, and through one or several gaps arranged in a circular range, so that the makeup air is directed towards the outlet aperture, and that the material is guided by the partition wall element towards the outlet aperture, so that the makeup air affects the material to be discharged in the vicinity of the outlet aperture, at least during the draining step, and that the access of makeup air to the vicinity of the outlet aperture is adjusted.
Method to coat at least a subarea from a substrate surface, respectively to produce substrates having surface areas with a decorative hard coating in a coating compartment, whereat a reactive HIPIMS-process making use of at least one reactive gas is applied and at least one target from a material is used, which by performing the HIPIMS-process with the reactive gas can react in a such a way that a given coating color can be produced, whereat the HIPIMS-process is performed with an energy input per target surface of at least 0.2 Joule/cm 2 per power pulse and/or per power pulse sequence, characterized in that the target comprises titanium, or titanium and aluminium, or zirkonium.
A method of policy optimization in a communication network, the method comprising: sending, by a network data analytics function, NWDA, an instruction to a plurality of network entities of the communication network to generate and store a measurement report containing measurement data; receiving, by the network data analytics function, an acknowledgement message from each of the plurality of network entities; requesting (850, 1030), by the network data analytics function, measurement data from a data storage function, wherein the data storage function has stored the measurement data received from the plurality of network entities; receiving (860, 1040), by the network data analytics function, the requested measurement data from the data storage function; and sending (350, 1060), by the network data analytics function, a policy recommendation to at least one control plane function (233, 234, 235) based on an analysis of the received measurement data. sending, by a network data analytics function, NWDA, an instruction to a plurality of network entities of the communication network to generate and store a measurement report containing measurement data; receiving, by the network data analytics function, an acknowledgement message from each of the plurality of network entities; requesting (850, 1030), by the network data analytics function, measurement data from a data storage function, wherein the data storage function has stored the measurement data received from the plurality of network entities; receiving (860, 1040), by the network data analytics function, the requested measurement data from the data storage function; and sending (350, 1060), by the network data analytics function, a policy recommendation to at least one control plane function (233, 234, 235) based on an analysis of the received measurement data.
A test instrument (IOOB) to detect a phase slip 24 on a parallel data link, comprising: an interface to couple to the parallel data link; and a reference phase bit counter (RPBC), characterised in that the reference phase bit counter is configured to: increment RPBC values based on respective bit positions of incoming words on the parallel data link, the incoming words each having a fixed word size, wherein each RPBC value is generated based on a current word count of a current word, a current position of a bit within the current word, and the fixed word size; and a controller to: latch a respective one of the RPBC values responsive to a detected event of each incoming data frame; and determine whether a phase slip has occurred on the parallel data link based on a comparison between a first latched value and a second latched value of the RPBC values. an interface to couple to the parallel data link; and a reference phase bit counter (RPBC), characterised in that the reference phase bit counter is configured to: increment RPBC values based on respective bit positions of incoming words on the parallel data link, the incoming words each having a fixed word size, wherein each RPBC value is generated based on a current word count of a current word, a current position of a bit within the current word, and the fixed word size; and a controller to: latch a respective one of the RPBC values responsive to a detected event of each incoming data frame; and determine whether a phase slip has occurred on the parallel data link based on a comparison between a first latched value and a second latched value of the RPBC values. increment RPBC values based on respective bit positions of incoming words on the parallel data link, the incoming words each having a fixed word size, wherein each RPBC value is generated based on a current word count of a current word, a current position of a bit within the current word, and the fixed word size; and a controller to: latch a respective one of the RPBC values responsive to a detected event of each incoming data frame; and determine whether a phase slip has occurred on the parallel data link based on a comparison between a first latched value and a second latched value of the RPBC values. latch a respective one of the RPBC values responsive to a detected event of each incoming data frame; and determine whether a phase slip has occurred on the parallel data link based on a comparison between a first latched value and a second latched value of the RPBC values.
A radiometric measuring apparatus, comprising: a detector arrangement (101, 102) for converting radioactive radiation into an electrical signal; a voltage supply comprising a push-pull control circuit (301, 302) for providing a supply voltage; a voltage converter having a transformer; characterized in that said push-pull control circuit is configured to generate a pulsating AC voltage signal from the supply voltage with a duty cycle of less than 1% which is supplied to the transformer to generate therefrom the supply voltage for the detector arrangement; wherein the duty cycle is the ratio of pulse width and period duration of the AC voltage signal. a detector arrangement (101, 102) for converting radioactive radiation into an electrical signal; a voltage supply comprising a push-pull control circuit (301, 302) for providing a supply voltage; a voltage converter having a transformer; characterized in that said push-pull control circuit is configured to generate a pulsating AC voltage signal from the supply voltage with a duty cycle of less than 1% which is supplied to the transformer to generate therefrom the supply voltage for the detector arrangement;
A method for operating an acceleration controller of a vehicle, comprising the steps: predicting a value of a longitudinal acceleration of the vehicle, using a trained machine learning algorithm, based on a longitudinal force set by the acceleration controller; measuring a value of the longitudinal acceleration of the vehicle; adjusting the longitudinal force set by the acceleration controller, based on the predicted value of the longitudinal acceleration of the vehicle and based on the measured value of the longitudinal acceleration of the vehicle. predicting a value of a longitudinal acceleration of the vehicle, using a trained machine learning algorithm, based on a longitudinal force set by the acceleration controller; measuring a value of the longitudinal acceleration of the vehicle; adjusting the longitudinal force set by the acceleration controller, based on the predicted value of the longitudinal acceleration of the vehicle and based on the measured value of the longitudinal acceleration of the vehicle.
A multi-dye fluorescence photometer head, comprising: first and second excitation sources having respective first and second excitation filters configured such that the first and second excitation sources emit excitation energies of different wavelengths for exciting at least two fluorophores; an objective lens configured to pass the excitation energies from said first and second excitation sources (21, 22), and emission energies originating from the excitation of fluorophores; a first emission detector having a first emission filter configured such that the first emission detector can detect both first and second emission energies of different wavelengths originating from excitation of first and second respective fluorophores; and first, second and third beam splitters, the first beam splitter configured to reflect the excitation energy from the first excitation source and pass the excitation energy from the second excitation source, the second beam splitter configured to reflect the excitation energies from the first beam splitter onto the objective lens, and pass the first and second emission energies from excitation of the first and second respective fluorophores, and the third beam splitter configured to reflect the first and second emission energies from the second beam splitter for detection by the first emission detector. first and second excitation sources having respective first and second excitation filters configured such that the first and second excitation sources emit excitation energies of different wavelengths for exciting at least two fluorophores; an objective lens configured to pass the excitation energies from said first and second excitation sources (21, 22), and emission energies originating from the excitation of fluorophores; a first emission detector having a first emission filter configured such that the first emission detector can detect both first and second emission energies of different wavelengths originating from excitation of first and second respective fluorophores; and first, second and third beam splitters, the first beam splitter configured to reflect the excitation energy from the first excitation source and pass the excitation energy from the second excitation source, the second beam splitter configured to reflect the excitation energies from the first beam splitter onto the objective lens, and pass the first and second emission energies from excitation of the first and second respective fluorophores, and the third beam splitter configured to reflect the first and second emission energies from the second beam splitter for detection by the first emission detector.
A mixing drum blade structure of truck-mounted concrete mixer, comprising a first blade part connected to the inner wall of the drum body of a mixing drum, the mixing drum blade structure further comprising a second blade part which is intersect-connected to the first blade part, wherein, a plurality of first flow-through holes are arranged on the first blade part, wherein, a plurality of second flow-through holes are arranged on the second blade part, and wherein the ratio of the distance from the center of the second flow-through hole to the connection point of the second blade parts and the first blade part to the width of the second blade part is 0.25-0.4, wherein the first blade part extends inwardly from the inner wall of the drum body, forming a first side and a second side that are opposite to each other, characterised in that the first side is connected to the inner wall of the mixing drum, and the second blade part is arranged on the second side or arranged between the first side and the second side, and wherein both the first side and the second side extend in a helical structure along the inner wall of the drum body of the mixing drum, and the second blade part is arranged continuously or intermittently along the helical structure.
A benzocarbazole-based compound represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, R1 to R10 are each independently hydrogen or deuterium, or R1 and R2, R2 and R3, or R3 and R4 among R1 to R10 bond to each other to form a benzene ring, and the rest are each independently hydrogen or deuterium, L1 is a direct bond; or a substituted or unsubstituted arylene group having 6 to 40 carbon atoms, and Ar1 is represented by any one of the following Chemical Formula 3 and 6: in Chemical Formulae 3 and 6, R31 to R35 and R46 to R50 are the same as or different from each other, and each independently hydrogen; a substituted or unsubstituted aryl group having 6 to 40 carbon atoms; or a substituted or unsubstituted heteroaryl group having 2 to 40 carbon atoms, wherein at least one of R31 to R35 and at least one of R46 to R50 are a substituted or unsubstituted heteroaryl group having N, O or S atom; provided that the following compound is excluded: R1 to R10 are each independently hydrogen or deuterium, or R1 and R2, R2 and R3, or R3 and R4 among R1 to R10 bond to each other to form a benzene ring, and the rest are each independently hydrogen or deuterium, L1 is a direct bond; or a substituted or unsubstituted arylene group having 6 to 40 carbon atoms, and Ar1 is represented by any one of the following Chemical Formula 3 and 6: in Chemical Formulae 3 and 6, R31 to R35 and R46 to R50 are the same as or different from each other, and each independently hydrogen; a substituted or unsubstituted aryl group having 6 to 40 carbon atoms; or a substituted or unsubstituted heteroaryl group having 2 to 40 carbon atoms, wherein at least one of R31 to R35 and at least one of R46 to R50 are a substituted or unsubstituted heteroaryl group having N, O or S atom; provided that the following compound is excluded:
A composition comprising: i) at least one active chosen from at least one antiperspirant active and at least one deodorant active; ii) a first gellant comprising at least one fatty alcohol; iii) at least one soybean oil having an iodine value of 1 to 5 present in an amount of 3 to 7% by weight of the composition, wherein the iodine value is measured by ASTM D5554-95; and iv) at least one volatile silicone. i) at least one active chosen from at least one antiperspirant active and at least one deodorant active; ii) a first gellant comprising at least one fatty alcohol; iii) at least one soybean oil having an iodine value of 1 to 5 present in an amount of 3 to 7% by weight of the composition, wherein the iodine value is measured by ASTM D5554-95; and iv) at least one volatile silicone.
A hydrocyclone for separating a liquid mixture into a heavy fraction including heavy particles and a light fraction, comprising a housing forming an elongated separation chamber having a circumferential wall, a base end, an apex end, at least one inlet member for supplying a liquid mixture into the separation chamber, at least one of the inlet member/s being positioned at the base end, a first outlet member for discharging separated light fraction from the separation chamber at the base end, a second outlet member for discharging separated heavy fraction from the separation chamber at the apex end, means for supplying the liquid mixture to the separation chamber via the at least one inlet member, so that during operation a liquid stream is generated as a helical vortex about a centre axis in the separation chamber, said helical vortex extending from the base end to the apex end, and a first flow deflection means arranged in the circumferential wall, characterized in that the first flow deflection means comprises at least one member in the path of the liquid stream showing a decrease of the radius of the separation chamber, followed by an increase of the radius of the separation chamber, the at least one member comprising a rounded curve portion for transporting the heavy particles.
A plug assembly, in particular for use in a vehicle, comprising a tube, a sealing element and a plug connector, which comprises a connector body, wherein the connector body comprises an annulus located between a sleeve-shaped first casing section annularly surrounding a central longitudinal axis of the plug connector in cross section and a sleeve-shaped second casing section of the plug connector annularly surrounding the central longitudinal axis, wherein the first casing section is surrounded by the second casing section and the first casing section of the connector body is connected to the second casing section on a first end section by a first front wall section and the casing sections (12, 15) are open to one another on a second end section, thereby forming a tube receiving side of the connector body, wherein a connection section of the tube is introduced into the annulus of the connector body from the tube receiving side and the sealing element is arranged between the first casing section and the connection section of the tube, wherein the first casing section of the connector body is deformed in such a way that an interlocking connection is established between a shaping region of the first casing section of the connector body and the tube, wherein the sealing element protrudes at least partially into the shaping region of the first casing section, such that the sealing element is clamped at least sectionally between the first casing section and the tube, wherein the first casing section directly rests on the tube at least sectionally in a contact region, characterized in that the sealing element is arranged at a distance to the center of the contact region, said distance being selected such that the sealing element is clamped between a first flank of the deformed first casing section adjoining the contact region and the tube, however, does not protrude into a second flank adjoining the contact region and opposing the first flank.
A process for manufacturing a hybrid biocompatible carrier (hybridosome), said process comprising: (a) providing a first vesicle comprising a membrane and one or more therapeutic and/or diagnostic agents encapsulated within said first vesicle, wherein said first vesicle has been produced in vitro, wherein said first vesicle is selected from the group consisting of lipid-based nanoparticles (LNPs), liposomes, polymer-stabilized LNPs, cerasomes, sphingosomes, niosomes, polymersomes, synthetic-nanoparticle stabilized LNPs, core-shell lipid-polymer hybrid nanoparticles, natural membrane-derived LNPs, and natural membrane-coated LNPs, and wherein said first vesicle comprises at least one fusogenic moiety enabling or enhancing the disruption of a membrane or lipid mixing between a membrane and a lipid bilayer, wherein the at least one fusogenic moiety is an ionizable cationic lipid having at least one protonatable or deprotonatable group, such that the lipid is positively charged at a pH at or below physiological pH, and neutral at or above physiological pH; (b) providing a second vesicle comprising a lipid bilayer, which is produced in vivo and is released into the extracellular environment; and (c) contacting said first vesicle with said second vesicle at a pH below 7.4 and at a temperature of between 0°C and 60°C, thereby uniting said first vesicle with said second vesicle and producing said hybridosome. (a) providing a first vesicle comprising a membrane and one or more therapeutic and/or diagnostic agents encapsulated within said first vesicle, wherein said first vesicle has been produced in vitro, wherein said first vesicle is selected from the group consisting of lipid-based nanoparticles (LNPs), liposomes, polymer-stabilized LNPs, cerasomes, sphingosomes, niosomes, polymersomes, synthetic-nanoparticle stabilized LNPs, core-shell lipid-polymer hybrid nanoparticles, natural membrane-derived LNPs, and natural membrane-coated LNPs, and wherein said first vesicle comprises at least one fusogenic moiety enabling or enhancing the disruption of a membrane or lipid mixing between a membrane and a lipid bilayer, wherein the at least one fusogenic moiety is an ionizable cationic lipid having at least one protonatable or deprotonatable group, such that the lipid is positively charged at a pH at or below physiological pH, and neutral at or above physiological pH; (b) providing a second vesicle comprising a lipid bilayer, which is produced in vivo and is released into the extracellular environment; and (c) contacting said first vesicle with said second vesicle at a pH below 7.4 and at a temperature of between 0°C and 60°C, thereby uniting said first vesicle with said second vesicle and producing said hybridosome.