mhurhangee/ep-ind-claims huggingface dataset:
A hot-melt anchor head, comprising an anchor ring, a guide wire, an electrical hot-melt member and a clamp piece, wherein the anchor ring is provided with at least one through hole; the guide wire can be electrified; the electrical hot-melt member is arranged on the anchor ring and connected with the guide wire; the clamp piece is arranged in the through hole to clamp an anchor cable reinforcement; a bearing plate is arranged at a bottom of the anchor ring, an opening opposite to the through hole is formed in the bearing plate, and the anchor ring is made of a metal material; the hot-melt anchor head further comprises a strain gauge connected with the guide wire and arranged on a surface of the anchor ring; the surface of the anchor ring is integrally formed with a coating layer by injection moulding with a hot-melt material, the strain gauge is coated by the coating layer and is in close contact with the surface of the anchor ring so as to be integrally formed, and an end, close to the bearing plate, of the anchor ring extends inwards and is provided with a flange, and the flange is used for holding a part, located inside the through hole, of the coating layer; when the hot-melt anchor head clamps the anchor cable reinforcement, the part, located inside the through hole, of the coating layer fills a space between the anchor ring and the clamp piece and is limited in the space in all directions; and when the part, located inside the through hole, of the coating layer is heated to be melted by the electrical hot-melt member, the hot-melt anchor head releases the anchor cable reinforcement.
Use of an oil-soluble titanium compound for reducing low speed pre-ignition events in a spark-ignited direct injection internal combustion engine operated under a load with a brake mean effective pressure (BMEP) of greater than or equal to 10 bars and at speeds less than or equal to 3,000 rpm, wherein the oil-soluble titanium compound is present in a lubricant composition comprising a base oil of lubricating viscosity, in an amount to deliver to the lubricant composition from 10 to 1000 parts per million of titanium, wherein the titanium compound is selected from the group consisting of titanium 2-ethyl-1, 3-hexanedioate, titanium citrate, titanium oleate and blends thereof, and wherein the lubricating composition further comprises a polyalkenyl succinimide dispersant in an amount from 0.5 to 4 weight % of the composition.
A speed-reduction/differential gear apparatus for electric vehicles, comprising: an electric motor; a planetary-gear speed reducer and a planetary-gear differential device which are disposed coaxially with the motor; a casing which houses the above-mentioned components; and a coaxially disposed first and second output shafts; the first output shaft penetrating a motor shaft of the electric motor, having its two end portions supported by the casing via respective output shaft support bearings (22, 26); driving force from the electric motor receiving speed reduction by the speed reducer and being outputted to the differential device; the speed-reduced driving force being outputted to two distribution members (45, 48) by the differential device in accordance with a size of load; one of the distribution members being connected with the first output shaft whereas the other of the distribution members being connected with the second output shaft; wherein the speed-reduction/differential gear apparatus for electric vehicles further comprises a speed-reducer-side carrier support bearing between a speed-reducer-side carrier which constitutes part of a planetary gear mechanism of the speed reducer, and the casing, and wherein the speed-reducer-side carrier has a boss; and the speed-reducer-side carrier support bearing is between an outer diameter surface of the boss and the casing, characterized in that a motor shaft support bearing is placed between an inner diameter surface of the boss and the motor shaft of the electric motor.
A method of manufacturing a composite anode material, the method comprising: a preparation step of mixing a carbonaceous material and solid silicon as raw materials; and a carbothermal shock step of heating the carbonaceous material, so that the solid silicon is melted using the heated carbonaceous material and is dispersed and attached in a form of particles to a surface of the carbonaceous material, wherein, in the carbothermal shock step, a size of silicon particles, which are attached to the surface of the carbonaceous material and grow, is adjusted by controlling the conditions and time of the carbothermal shock, wherein, in the carbothermal shock step, the carbonaceous material is heated to 1400°C or higher within 10 sec. a preparation step of mixing a carbonaceous material and solid silicon as raw materials; and a carbothermal shock step of heating the carbonaceous material, so that the solid silicon is melted using the heated carbonaceous material and is dispersed and attached in a form of particles to a surface of the carbonaceous material, wherein, in the carbothermal shock step, a size of silicon particles, which are attached to the surface of the carbonaceous material and grow, is adjusted by controlling the conditions and time of the carbothermal shock, wherein, in the carbothermal shock step, the carbonaceous material is heated to 1400°C or higher within 10 sec.
Height safety apparatus comprising a bracket profiled to seat in a profiled roof structure, and an anchor structure including a mount for rotatably mounting an energy absorber apparatus, the energy absorber apparatus comprising: an attachment element for securing to a personnel safety line; an energy absorber comprising a plastically deformable element having a curve-form arm portion; the energy absorber and attachment element being formed integrally with one another: and arranged to be mounted to be rotatable together about a central axis; the attachment element is provided at a distal end of the plastically deformable energy absorber curve-form arm portion which extends around the central axis on substantially one plane characterized in that the bracket includes a trough portion within which is positioned the anchor structure, wherein clearance is provided between the walls of the trough to permit the rotatably mounted energy absorber apparatus to rotate through 360 degrees in the trough. an attachment element for securing to a personnel safety line; an energy absorber comprising a plastically deformable element having a curve-form arm portion; the energy absorber and attachment element being formed integrally with one another: and arranged to be mounted to be rotatable together about a central axis; the attachment element is provided at a distal end of the plastically deformable energy absorber curve-form arm portion which extends around the central axis on substantially one plane characterized in that the bracket includes a trough portion within which is positioned the anchor structure, wherein clearance is provided between the walls of the trough to permit the rotatably mounted energy absorber apparatus to rotate through 360 degrees in the trough.
A vehicle-mounted crane, in particular mobile crane or crawler crane, having a main boom, a main boom extension and an adapter which is arranged between the main boom and the main boom extension and has a first connection plane and a second connection plane, the adapter being designed as a double rocker, the first connection plane being arranged such that it can be displaced laterally relative to the second connection plane, characterised in that the first connection plane is arranged such that it can be angled relative to the second connection plane.
A personal care composition, comprising: one or more of surfactants, and a guar derivative, wherein the guar derivative is selected from guar, hydroxypropyl guar, hydrophobe-modified guar, hydrophobe-modified hydroxypropyl guar, and carboxymethylguar, each substituted on a galactomannan polymer through an ethoxyl, propoxyl, or hydroxypropoxyl linking group with a group selected from: morpholinyl, imidazolyl, benzimidazolyl, piperazinyl, 4-methylpiperazinyl, 4-ethylpiperazinyl, piperidinyl, and pyrrolidinyl.
A pharmaceutical composition comprising an improved Cell-Permeable (iCP)-SOCS3 recombinant protein as an active ingredient and a pharmaceutically acceptable carrier, for use in the treatment, prevention, or delaying the onset of, pancreatic cancer, wherein the iCP-SOCS3 recombinant protein comprises an advanced macromolecule transduction domain (aMTD) and a SOCS3 protein, and wherein the aMTD is fused to one end or both ends of the SOCS3 protein and has an amino acid sequence of SEQ ID NO: 122.
A method for processing an input audio signal received by a hearing assistance device, comprising: high-pass filtering the input audio signal to generate a high frequency filtered signal, the filtering performed at a splitting frequency; transposing at least a portion of the audio spectrum of the filtered signal to a lower frequency range by a transposition process to produce a transposed audio signal; and summing the transposed audio signal with the unprocessed input audio signal to generate an output signal, wherein the transposition process includes: estimating an all-pole spectral envelope of the filtered signal from a plurality of line spectral frequencies; applying a warping function to the all-pole spectral envelope of the filtered signal to translate the poles above a specified knee frequency to lower frequencies, thereby producing a warped spectral envelope, the knee frequency being higher than the splitting frequency; exciting the warped spectral envelope with an excitation signal to synthesize the transposed audio signal, wherein the excitation signal is a prediction error signal, produced by filtering the high-pass signal with an inverse of the estimated all-pole spectral envelope; and processing the excitation signal using a phase randomization process. high-pass filtering the input audio signal to generate a high frequency filtered signal, the filtering performed at a splitting frequency; transposing at least a portion of the audio spectrum of the filtered signal to a lower frequency range by a transposition process to produce a transposed audio signal; and summing the transposed audio signal with the unprocessed input audio signal to generate an output signal, estimating an all-pole spectral envelope of the filtered signal from a plurality of line spectral frequencies; applying a warping function to the all-pole spectral envelope of the filtered signal to translate the poles above a specified knee frequency to lower frequencies, thereby producing a warped spectral envelope, the knee frequency being higher than the splitting frequency; exciting the warped spectral envelope with an excitation signal to synthesize the transposed audio signal, wherein the excitation signal is a prediction error signal, produced by filtering the high-pass signal with an inverse of the estimated all-pole spectral envelope; and processing the excitation signal using a phase randomization process.
Process for preparing a foundry shape by the cold box process, which comprises the following steps: a) forming a foundry mix with a binder and an aggregate, preferably sand, b) forming a foundry shape by introducing the foundry mix obtained from step (a) into a pattern, c) contacting the shaped foundry mix with a curing catalyst system consisting essentially of a blend of at least two tertiary amines displaying curing reactivity and/or odor difference, in a liquid or preferably in a gaseous form, optionally carried out with an inert carrier, d) hardening the aggregate-resins mix into a hard, solid, cured shape, e) removing the hardened foundry shape of step (d) from the pattern. a) forming a foundry mix with a binder and an aggregate, preferably sand, b) forming a foundry shape by introducing the foundry mix obtained from step (a) into a pattern, c) contacting the shaped foundry mix with a curing catalyst system consisting essentially of a blend of at least two tertiary amines displaying curing reactivity and/or odor difference, in a liquid or preferably in a gaseous form, optionally carried out with an inert carrier, d) hardening the aggregate-resins mix into a hard, solid, cured shape, e) removing the hardened foundry shape of step (d) from the pattern.
A recombinant adenoviral vector comprising a capsid comprising a fusion protein consisting of a protein IX and a fragment of a circumsporozoite protein of Plasmodium falciparum, wherein said fragment comprises the amino acid sequence of SEQ ID NO:1.
A method for facilitating migration of virtual machines among a plurality of physical machines, wherein the plurality of physical machines comprises a first subset of the plurality of physical machines and a second subset of the plurality of physical machines, a virtual machine executing on a first physical machine in the second subset of the plurality of physical machines, and wherein at least one physical resource is inaccessible by the first subset of the plurality of physical machines and is available to the second subset of the plurality of physical machines; the method comprising: associating the second subset of the plurality of physical machines with the at least one physical resource; associating the virtual machine with the at least one physical resource; receiving a request to migrate the virtual machine from the first physical machine in the second subset of the plurality of physical machines to a different physical machine in the first subset of the plurality of physical machines; determining that the different physical machine in the first subset of the plurality of physical machines that was identified in the request does not provide access to the physical resource; identifying, in response to determining that the different physical machine does not provide access to the physical resource, a second physical machine in the second subset of the plurality of physical machines; and migrating the virtual machine to the second physical machine. associating the second subset of the plurality of physical machines with the at least one physical resource; associating the virtual machine with the at least one physical resource; receiving a request to migrate the virtual machine from the first physical machine in the second subset of the plurality of physical machines to a different physical machine in the first subset of the plurality of physical machines; determining that the different physical machine in the first subset of the plurality of physical machines that was identified in the request does not provide access to the physical resource; identifying, in response to determining that the different physical machine does not provide access to the physical resource, a second physical machine in the second subset of the plurality of physical machines; and migrating the virtual machine to the second physical machine.
Filter system for filtering a fluid, comprising - a filter housing having a housing upper part and a housing lower part which extend along a housing axis, - an outlet port disposed at the housing upper part for discharging the filtered fluid, - a non-return valve disposed inside the outlet port, - a filter element separating a raw fluid side from a clean fluid side, wherein the filter element features a valve seat for the non-return valve, wherein the non-return valve, in a closed position, closes a fluid path through the outlet port and, in an open position, opens the fluid path through the outlet port, wherein the filter element comprises a filter bellows disposed around its longitudinal axis, wherein the filter element features a pipe connection having an opening in a longitudinal axis of the filter element for evacuating the filtered fluid from the interior of the filter bellows, wherein the pipe connection is designed as valve seat, wherein the pipe connection is provided as actuation member, wherein a valve holder is disposed inside the outlet port, the closure member resting in the removed state of the filter element on said valve holder, in particular wherein, in the installed state of the filter element, the pipe connection of the filter element projects through the valve holder. - a filter housing having a housing upper part and a housing lower part which extend along a housing axis, - an outlet port disposed at the housing upper part for discharging the filtered fluid, - a non-return valve disposed inside the outlet port, - a filter element separating a raw fluid side from a clean fluid side, wherein the filter element features a valve seat for the non-return valve,
A method for preparing adamantane-intercalated layered double-hydroxide particles, the method comprising: adding to an aqueous solution a first precursor and a second precursor to form an initial mixture, where: the first precursor is Al 3 or Al 2 O 3; the second precursor is a hydroxide M 2 or an oxide MO, where M is a metal of oxidation state +2; and the initial mixture has a M/Al molar ratio from 1 to 5; the initial mixture has a solid loading of less than 10 weight % solids, based on a total weight of the initial solution; adding to the initial mixture an amount of adamantane to form a reaction mixture having an Al/adamantane molar ratio from 0.5 to 2, where the adamantane is added as a carboxylic acid; and heating the reaction mixture to produce the adamantane-intercalated LDH particles, where the adamantane-intercalated LDH particles have an aspect ratio greater than 100, the aspect ratio defined by a width of an adamantane-intercalated LDH particle divided by a thickness of the adamantane-intercalated LDH particle. adding to an aqueous solution a first precursor and a second precursor to form an initial mixture, where: the first precursor is Al 3 or Al 2 O 3; the second precursor is a hydroxide M 2 or an oxide MO, where M is a metal of oxidation state +2; and the initial mixture has a M/Al molar ratio from 1 to 5; the initial mixture has a solid loading of less than 10 weight % solids, based on a total weight of the initial solution; the first precursor is Al 3 or Al 2 O 3; the second precursor is a hydroxide M 2 or an oxide MO, where M is a metal of oxidation state +2; and the initial mixture has a M/Al molar ratio from 1 to 5; the initial mixture has a solid loading of less than 10 weight % solids, based on a total weight of the initial solution; adding to the initial mixture an amount of adamantane to form a reaction mixture having an Al/adamantane molar ratio from 0.5 to 2, where the adamantane is added as a carboxylic acid; and heating the reaction mixture to produce the adamantane-intercalated LDH particles, where the adamantane-intercalated LDH particles have an aspect ratio greater than 100, the aspect ratio defined by a width of an adamantane-intercalated LDH particle divided by a thickness of the adamantane-intercalated LDH particle.
Method for controlling an electric motor as a drive motor of a two-wheeled vehicle, comprising the following method steps • sensor-based identification of the two-wheeled vehicle being pushed, • detection of an input by a user for activating a pushing aid operating mode, wherein the detection of the input by the user is made after the sensor-based identification, and • generation of a motor torque for driving the two-wheeled vehicle in the pushing aid operating mode depending on identified pushing and the detected input by the user. • sensor-based identification of the two-wheeled vehicle being pushed, • detection of an input by a user for activating a pushing aid operating mode, wherein the detection of the input by the user is made after the sensor-based identification, and • generation of a motor torque for driving the two-wheeled vehicle in the pushing aid operating mode depending on identified pushing and the detected input by the user.
A method of modification of bentonite by mixing bentonite with a modifier in the solid phase and the modified bentonite is sieved, characterized in that, into a mixer of granular products, there are introduced, at the temperature of 20 - 30 °C, a comminuted bentonite with a grain size of less than 0,006 mm, a comminuted modifier with a grain size of not more than 0,006 mm in an amount from 28 to 35 g per 100g of bentonite, wherein the following bentonite modifiers are used: a) quaternary ammonium salts with four aliphatic substituents or with one benzyl or phenyl and 3 alkyl: ethyl, or butyl, and/or b) salts with three aromatic substituents: phenyl or benzyl and one of alkyl: ethyl, or butyl, and/or c) derivatives of polyhedral oligomeric silsesquioxane (POSS) selected from oktakis(tetramethylammonium)octasilsesquioxane or oktakis{3-(N-(hydroxyethyl)-dimethylamino)propyl}octasilsesquioxane or aminopropylisobutyloctasilsesquioxane; and mixing process is carried out using a rotational speed of 35 to 45 rpm during 8-14 hours, depending on the modifier used, then the product is sieved on a sieve of a mesh size of 0,006 mm. a) quaternary ammonium salts with four aliphatic substituents or with one benzyl or phenyl and 3 alkyl: ethyl, or butyl, and/or b) salts with three aromatic substituents: phenyl or benzyl and one of alkyl: ethyl, or butyl, and/or c) derivatives of polyhedral oligomeric silsesquioxane (POSS) selected from oktakis(tetramethylammonium)octasilsesquioxane or oktakis{3-(N-(hydroxyethyl)-dimethylamino)propyl}octasilsesquioxane or aminopropylisobutyloctasilsesquioxane;
An arrangement comprising a multimode base station and an external entity being connected to the multimode base station, characterized by that, the multimode base station is comprising: a first-standard module and a second-standard module, wherein: the first-standard module and the second-standard module each comprises a first communication interface, and the first-standard module comprises a second communication interface through which the first-standard module connects with the external entity outside the multimode base station; wherein the first-standard module is configured to: receive data sent to the multimode base station through the second communication interface; if the data is associated with the second-standard module, send, through the first communication interfaces of the first-standard module and the second-standard module, the data to the second-standard module; and wherein the second-standard module is configured to: receive the data sent from the first-standard module, and process the received data; wherein an association between the data and a module of a standard comprises an association between a module of a standard and a destination address of the data. the first-standard module and the second-standard module each comprises a first communication interface, and the first-standard module comprises a second communication interface through which the first-standard module connects with the external entity outside the multimode base station; wherein the first-standard module is configured to: receive data sent to the multimode base station through the second communication interface; if the data is associated with the second-standard module, send, through the first communication interfaces of the first-standard module and the second-standard module, the data to the second-standard module; and wherein the second-standard module is configured to: receive the data sent from the first-standard module, and process the received data; wherein an association between the data and a module of a standard comprises an association between a module of a standard and a destination address of the data.