mhurhangee/patent-ind-claim-en huggingface dataset:
A rolling device for a device to enable the moving of the device along a surface, where the rolling device comprises: - a wheel axle carrying a wheel , where the wheel has two side faces , - a lead screw with a nut , - at least one axle support member rotatably connected in one end in a fixed pivot point and in the other end connected to the lead screw nut , wherein each axle support member supports an end portion of the wheel axle , and characterized by - a drive motor connected to the lead screw to rotate the lead screw for displacing the lead screw nut and thereby displacing the wheel between an extended position and a retracted position, wherein the lead screw is arranged tangentially to the rotational direction of the wheel between the two side faces of the wheel at a distance from the wheel axle larger than the radius of the wheel. - a wheel axle carrying a wheel , where the wheel has two side faces , - a lead screw with a nut , - at least one axle support member rotatably connected in one end in a fixed pivot point and in the other end connected to the lead screw nut , wherein each axle support member supports an end portion of the wheel axle , and characterized by wherein each axle support member supports an end portion of the wheel axle , and characterized by - a drive motor connected to the lead screw to rotate the lead screw for displacing the lead screw nut and thereby displacing the wheel between an extended position and a retracted position,
A cut-resistant composite yarn structure , comprising: a first core-spun yarn comprising a first cut-resistant core filament and first staple fibers spun over the first cut-resistant core filament ; a covering yarn comprising a second cut-resistant core filament and a first covering layer wound over the second cut-resistant core filament , where the first covering layer comprises a first filament; a second core-spun yarn comprising a third cut-resistant core filament and second staple fibers spun over the third cut-resistant core filament ; and a second covering layer wound over the first core-spun yarn , the second core-spun yarn , and the covering yarn , where the second covering layer comprises a second filament. a first core-spun yarn comprising a first cut-resistant core filament and first staple fibers spun over the first cut-resistant core filament ; a covering yarn comprising a second cut-resistant core filament and a first covering layer wound over the second cut-resistant core filament , where the first covering layer comprises a first filament; a second core-spun yarn comprising a third cut-resistant core filament and second staple fibers spun over the third cut-resistant core filament ; and a second covering layer wound over the first core-spun yarn , the second core-spun yarn , and the covering yarn , where the second covering layer comprises a second filament.
A side-reinforcing rubber for run-flat tires, comprising a vulcanized rubber which is formed from a rubber composition comprising a rubber component containing a dienic rubber, a vulcanizing agent, and a carbon black having a dibutyl phthalate oil absorption of 120 mL/100 g or more, and has a specific surface area according to a nitrogen adsorption method of 20 to 80 m 2 /g, with a ratio of an Sx bond (where x is 3 or more) to all sulfide bonds in the side-reinforcing rubber for run-flat tires being 40% or less, wherein the ratio of an Sx bond is determined as specified in the description.
A marker delivery device comprising: (a) a housing ; (b) a flexible push rod , the push rod including a first transverse drive surface and a deployer tip , the deployer tip being configured to receive a biopsy site marker ; and (c) a first wheel having a second transverse drive surface, the first transverse drive surface being configured to be driven by the second transverse drive surface to translate the push rod distally; (d) a first shaft and a spring , the first shaft being configured to rotatably couple the first wheel to the housing ; characterized by (e) a drive including the first shaft and the spring , the spring including a first end and a second end, the first end being coupled to the first shaft and the second end being coupled to the first wheel , the spring being biased between a first position and a second position, the spring in the second position being configured to rotate the first wheel and translate the push rod in a coordinated linear and rotational movement relative to the housing to deploy the marker ; and (f) a release mechanism , the release mechanism being configured to hold the spring in the first position and to begin the deployment sequence upon actuation by an operator. (a) a housing ; (b) a flexible push rod , the push rod including a first transverse drive surface and a deployer tip , the deployer tip being configured to receive a biopsy site marker ; and (c) a first wheel having a second transverse drive surface, the first transverse drive surface being configured to be driven by the second transverse drive surface to translate the push rod distally; (d) a first shaft and a spring , the first shaft being configured to rotatably couple the first wheel to the housing ; characterized by (e) a drive including the first shaft and the spring , the spring including a first end and a second end, the first end being coupled to the first shaft and the second end being coupled to the first wheel , the spring being biased between a first position and a second position, the spring in the second position being configured to rotate the first wheel and translate the push rod in a coordinated linear and rotational movement relative to the housing to deploy the marker ; and (f) a release mechanism , the release mechanism being configured to hold the spring in the first position and to begin the deployment sequence upon actuation by an operator.
A process for selective production of 2-butanol from γ-valerolactone (GVL) comprising: a. Providing in a reactor at least one transition metal catalyst selected from the group consisting of iron, ruthenium, cobalt, rhodium and iridium; b. Heating a feedstock containing GVL, thereby forming a heated GVL feedstock; c. Forming a reaction mixture by feeding into the reactor: i. The heated GVL feedstock; and ii. Hydrogen gas; and d. Maintaining the temperature of the reaction mixture in the range 220-300 °C to allow selective production of reaction products comprising 2-butanol; wherein no water is added during the process. a. Providing in a reactor at least one transition metal catalyst selected from the group consisting of iron, ruthenium, cobalt, rhodium and iridium; b. Heating a feedstock containing GVL, thereby forming a heated GVL feedstock; c. Forming a reaction mixture by feeding into the reactor: i. The heated GVL feedstock; and ii. Hydrogen gas; and i. The heated GVL feedstock; and ii. Hydrogen gas; and d. Maintaining the temperature of the reaction mixture in the range 220-300 °C to allow selective production of reaction products comprising 2-butanol;
A method of preparing a hydrophobic metal oxide-silica composite aerogel, the method comprising steps of: adding a metal ion solution to a water glass solution and mixing together to prepare a metal oxide-silica composite gel agglomerate; primarily drying the agglomerate to prepare a powdery metal oxide-silica composite gel; surface-modifying the metal oxide-silica composite gel to prepare a hydrophobic metal oxide-silica composite wet gel; and secondarily drying the hydrophobic metal oxide-silica composite wet gel, wherein the primary drying of step is performed by atmospheric pressure drying at a temperature of 100°C to 150°C for 1 hour to 2 hours. adding a metal ion solution to a water glass solution and mixing together to prepare a metal oxide-silica composite gel agglomerate; primarily drying the agglomerate to prepare a powdery metal oxide-silica composite gel; surface-modifying the metal oxide-silica composite gel to prepare a hydrophobic metal oxide-silica composite wet gel; and secondarily drying the hydrophobic metal oxide-silica composite wet gel,
A vehicle comprising: an electric power source ; a motor housing accommodating motors for driving wheels; and a power control unit fixed on the motor housing , the power control unit being configured to control drive electric power of the motors by using electric power of the electric power source , wherein the power control unit includes reactors , and a stacked unit in which multiple power modules and multiple coolers are stacked, the multiple power modules accommodating power semiconductor elements for electric power conversion, the stacked unit is arranged such that in a case of the power control unit , a stacking direction of the power modules and the coolers is directed toward a longitudinal direction of the vehicle , characterized in that the reactors are disposed, in the case , at positions where the reactors do not overlap with the stacked unit as viewed from the stacking direction. an electric power source ; a motor housing accommodating motors for driving wheels; and a power control unit fixed on the motor housing , the power control unit being configured to control drive electric power of the motors by using electric power of the electric power source , wherein the power control unit includes reactors , and a stacked unit in which multiple power modules and multiple coolers are stacked, the multiple power modules accommodating power semiconductor elements for electric power conversion, the stacked unit is arranged such that in a case of the power control unit , a stacking direction of the power modules and the coolers is directed toward a longitudinal direction of the vehicle , characterized in that the reactors are disposed, in the case , at positions where the reactors do not overlap with the stacked unit as viewed from the stacking direction.
Arrangement for connecting a first electrical conductor to a second electrical conductor , having a press-on adapter which has a receptacle for the first conductor and at least one press-on member which can be actuated from outside, and having a housing-like finger-proof protection with a receptacle for the second conductor , the finger-proof protection being insertable into a chamber of the press-on adapter along an insertion direction (E) and having at least one contacting slot running parallel to the insertion direction (E) which exposes an interior of the finger-proof protection for contacting to the outside, characterized in that the at least one press-on member has an actuating section electrically insulated from the rest of the press-on member for actuating the press-on member , and in that the finger-proof protection is closed at a front end pointing in the insertion direction (E).
A method of wireless communication for a first base station, BS, comprising: determining a first reference signal for at least one of discovery or measurement, and a second reference signal for synchronization, wherein both the first reference signal and the second reference signal are based on a cell-specific reference signal, CRS, a primary synchronization signal, PSS, a secondary synchronization signal, SSS, or a positioning reference signal, PRS; transmitting the first reference signal in one or more symbols of a first set of subframes; transmitting the second reference signal in one or more symbols of a second set of subframes, where the first set of subframes and the second set of subframes differ at least by one subframe; the method is characterised in : refraining from transmitting during at least one of a first symbol or a second symbol in at least a subset of subframes in the second set of subframes, wherein the first symbol precedes the one or more symbols in which the second reference signal is transmitted and the second symbol is subsequent to the one or more symbols in which the second reference signal is transmitted. determining a first reference signal for at least one of discovery or measurement, and a second reference signal for synchronization, wherein both the first reference signal and the second reference signal are based on a cell-specific reference signal, CRS, a primary synchronization signal, PSS, a secondary synchronization signal, SSS, or a positioning reference signal, PRS; transmitting the first reference signal in one or more symbols of a first set of subframes; transmitting the second reference signal in one or more symbols of a second set of subframes, where the first set of subframes and the second set of subframes differ at least by one subframe; the method is characterised in : refraining from transmitting during at least one of a first symbol or a second symbol in at least a subset of subframes in the second set of subframes, wherein the first symbol precedes the one or more symbols in which the second reference signal is transmitted and the second symbol is subsequent to the one or more symbols in which the second reference signal is transmitted. refraining from transmitting during at least one of a first symbol or a second symbol in at least a subset of subframes in the second set of subframes, wherein the first symbol precedes the one or more symbols in which the second reference signal is transmitted and the second symbol is subsequent to the one or more symbols in which the second reference signal is transmitted.
A method for guiding a product in a stretch blow molding and/or filling machine , wherein blank parameters (RP1 - RP3) of blanks (A - G) provided for stretch blow molding are automatically measured for acquiring and storing initial data (ID1 - ID3) for stretch blow molding, wherein bottle parameters (FP1 - FP3) of bottles (A', C', F', G') produced during stretch blow molding and/or filled thereafter are measured and, in particular, machine error conditions (FZ1, FZ2) occurring during stretch blow molding and/or filling are automatically detected, and wherein respective result data (ED1 - ED5) acquired during stretch blow molding and/or filling are individually assigned to the blanks and stored, wherein at least one rejection criterion (AK1 - AK5) applicable during the following production process is calculated on the basis of a data analysis of the stored initial data and result data to be used when deciding about the rejection of defective blanks or bottles, and wherein the calculation of the rejection criterion is updated taking into account initial data and result data additionally acquired during the production process. wherein blank parameters (RP1 - RP3) of blanks (A - G) provided for stretch blow molding are automatically measured for acquiring and storing initial data (ID1 - ID3) for stretch blow molding, wherein bottle parameters (FP1 - FP3) of bottles (A', C', F', G') produced during stretch blow molding and/or filled thereafter are measured and, in particular, machine error conditions (FZ1, FZ2) occurring during stretch blow molding and/or filling are automatically detected, and wherein respective result data (ED1 - ED5) acquired during stretch blow molding and/or filling are individually assigned to the blanks and stored, wherein at least one rejection criterion (AK1 - AK5) applicable during the following production process is calculated on the basis of a data analysis of the stored initial data and result data to be used when deciding about the rejection of defective blanks or bottles, and wherein the calculation of the rejection criterion is updated taking into account initial data and result data additionally acquired during the production process.
A liquid offset printing composition vehicle comprising a solvent composition, which solvent composition comprises at least one ester of a polyhydric alcohol with at least one carboxylic acid, characterised in that the solvent composition comprises at least 50 wt. % of a monomeric ester of isosorbide as a polyhydric alcohol with at least one carboxylic acid having a hydrocarbon chain containing from 4 up to 26 carbon atoms as a component of the solvent composition.
Holder spring for fixing a mounting body of a light to a mounting rail of the light, the mounting rail having two side walls spaced apart from each other in a transverse direction (Y) and each having a fixing projection extending in the transverse direction (Y), the holder spring comprising a bottom portion for mounting on the mounting body and, at both transverse ends of the bottom portion , a retaining portion extending upwardly and away from the bottom portion along a vertical direction (Z), on which retaining portion a retaining projection extending in the transverse direction (Y) is provided, wherein the retaining portions opposite one another in the transverse direction (Y) are movable to one another from an initial position against a spring device acting in the transverse direction (Y), wherein the holder spring has at least two separate elements, a first element of which is designed as a base element which forms the bottom portion and a second element is designed as a retaining element which forms a first one of the two retaining portions of the holder spring , wherein the retaining element is guided displaceably relative to the base element by means of a guide along the transverse direction (Y), wherein the spring device is at least partially formed by a spring portion which is integrated in the retaining element and/or base element by the retaining element and/or base element being produced from a metal sheet and shaped to form the spring portion, characterized in that the guide has a transverse limitation of path formed by corresponding stops of the base element and the retaining element , wherein in the initial position, the spring device presses the stops of the base element and the retaining element against each other.
A thermoelectric module, comprising: a pair of insulating substrates , each insulating substrate of the pair of insulating substrates comprising a one main surface in a plan view, and a rectangular facing region of the one main surface, the rectangular facing regions of the pair of insulating substrates facing each other; wiring conductors located on the one main surfaces of the pair of insulating substrates , respectively; a pair of metal plates located on other main surfaces opposite to the one main surfaces of the pair of insulating substrates , respectively; and a plurality of thermoelectric elements located between the one main surfaces of the pair of insulating substrates , characterized in that at least one insulating substrate of the pair of insulating substrates and at least one metal plate of the pair of metal plates comprises a protrusion protruding from a one side of the rectangular facing region in the plan view, and a metal pattern located on the one main surface of the protrusion , the metal pattern not electrically connected to any one of the wiring conductors . a pair of insulating substrates , each insulating substrate of the pair of insulating substrates comprising a one main surface in a plan view, and a rectangular facing region of the one main surface, the rectangular facing regions of the pair of insulating substrates facing each other; wiring conductors located on the one main surfaces of the pair of insulating substrates , respectively; a pair of metal plates located on other main surfaces opposite to the one main surfaces of the pair of insulating substrates , respectively; and a plurality of thermoelectric elements located between the one main surfaces of the pair of insulating substrates , characterized in that at least one insulating substrate of the pair of insulating substrates and at least one metal plate of the pair of metal plates comprises a protrusion protruding from a one side of the rectangular facing region in the plan view, and a metal pattern located on the one main surface of the protrusion , the metal pattern not electrically connected to any one of the wiring conductors .
A method for producing a gold catalyst comprising clusters of gold atoms having a particle diameter of 10nm or less on a carrier, wherein the particle diameter means the longest particle diameter of a gold cluster particle, and wherein the method comprising steps of: mixing a carrier and a plurality of gold cluster compounds wherein each of the gold cluster compound has a predetermined number of gold atoms that are stabilized by an organic ligand; subjecting the mixture of the carrier and the gold cluster compounds to an oxygen plasma treatment; and firing the mixture in air at a temperature ranging of 100°C to 800°C to form the gold catalyst comprising the carrier and clusters of gold atoms; wherein 90 % or more of the organic ligand is removed by the step(s) of oxygen plasma treatment and/or firing in air.
An integrated hydroprocessing, steam pyrolysis and catalytic cracking process for production of olefinic and aromatic petrochemicals from a crude oil feed, the process comprising: a. charging the crude oil and hydrogen to a hydroprocessing zone operating under conditions effective to produce a hydroprocessed effluent having a reduced content of contaminants, an increased paraffinicity, reduced Bureau of Mines Correlation Index, and an increased American Petroleum Institute gravity; b. thermally cracking hydroprocessed effluent in the presence of steam in a steam pyrolysis zone to produce a stream of thermally cracked mixed products; c. catalytically cracking heavy components to produce catalytically cracked products, the heavy components derived from one or more of the hydroprocessed effluent, a heated stream within the steam pyrolysis zone, or the stream of thermally cracked mixed product; d. separating a combined product stream including thermally cracked mixed products and catalytically cracked products, and recovering olefins and aromatics from the separated combined product stream; and f. separating hydrogen from the combined product stream, purifying said hydrogen and recycling it to step (a). a. charging the crude oil and hydrogen to a hydroprocessing zone operating under conditions effective to produce a hydroprocessed effluent having a reduced content of contaminants, an increased paraffinicity, reduced Bureau of Mines Correlation Index, and an increased American Petroleum Institute gravity; b. thermally cracking hydroprocessed effluent in the presence of steam in a steam pyrolysis zone to produce a stream of thermally cracked mixed products; c. catalytically cracking heavy components to produce catalytically cracked products, the heavy components derived from one or more of the hydroprocessed effluent, a heated stream within the steam pyrolysis zone, or the stream of thermally cracked mixed product; the hydroprocessed effluent, a heated stream within the steam pyrolysis zone, or the stream of thermally cracked mixed product; d. separating a combined product stream including thermally cracked mixed products and catalytically cracked products, and recovering olefins and aromatics from the separated combined product stream; and f. separating hydrogen from the combined product stream, purifying said hydrogen and recycling it to step (a).
A heat delivery element for a shaving razor comprising: a heater having a heater track positioned between an upper dielectric layer and a lower dielectric layer , characterized in that the heater track is secured between the upper dielectric layer and the lower dielectric layer by an adhesive layer bonded to the upper dielectric layer and the lower dielectric layer.