mhurhangee/ep-ind-claims huggingface dataset:
Method for pressing a reinforcing sleeve onto a rotor of an electric motor, the method comprising: affixing a press ring having a stop to the reinforcing sleeve, so that the stop abuts an end face of the reinforcing sleeve, and at least one ring-segment-shaped section of the press ring embraces at least one annular and/or ring-segment-shaped section of the reinforcing sleeve that terminates at the end face of the reinforcing sleeve, wherein the press ring has at least one slot connecting a first end face of the press ring to a second end face of the press ring opposite the first end face; and pressing the reinforcing sleeve onto the rotor, the reinforcing sleeve being centered relative to the rotor so that a longitudinal axis of the reinforcing sleeve is aligned with a longitudinal axis of the rotor, and a pressing force being applied to the press ring affixed to the reinforcing sleeve in the direction of the aligned longitudinal axes so that the pressing force is introduced into the reinforcing sleeve via the stop. affixing a press ring having a stop to the reinforcing sleeve, so that the stop abuts an end face of the reinforcing sleeve, and at least one ring-segment-shaped section of the press ring embraces at least one annular and/or ring-segment-shaped section of the reinforcing sleeve that terminates at the end face of the reinforcing sleeve, wherein the press ring has at least one slot connecting a first end face of the press ring to a second end face of the press ring opposite the first end face; and pressing the reinforcing sleeve onto the rotor, the reinforcing sleeve being centered relative to the rotor so that a longitudinal axis of the reinforcing sleeve is aligned with a longitudinal axis of the rotor, and a pressing force being applied to the press ring affixed to the reinforcing sleeve in the direction of the aligned longitudinal axes so that the pressing force is introduced into the reinforcing sleeve via the stop.
A medical laser system for the treatment of a target tissue with a laser beam, said target tissue being immersed in a liquid medium within a body lumen, the system comprising: a laser device for generating a laser beam; an optical fiber or optical waveguide having a delivery end for guiding the laser beam to the target tissue; a controller configured for controlling the laser device and for causing the laser device to generate one or more laser pulses substantially along the same longitudinal axis; wherein the one or more laser pulses are configured by the controller to have an energy sufficient to form a vapor bubble in the liquid medium at the delivery end of the fiber; the one or more pulses being selected to allow the vapor bubble to expand an amount sufficient to displace a substantial portion of the liquid medium from the space between the delivery end of the fiber and the target tissue, the one or more pulses being delivered to the target tissue through the vapor bubble after the vapor bubble has reached its maximum extent and has begun to collapse; and, whereby the collapsing bubble causes the target tissue to remain substantially stationary as the one or more laser pulses are being delivered, thus reducing retropulsion of the tissue portion. a laser device for generating a laser beam; an optical fiber or optical waveguide having a delivery end for guiding the laser beam to the target tissue; a controller configured for controlling the laser device and for causing the laser device to generate one or more laser pulses substantially along the same longitudinal axis; wherein the one or more laser pulses are configured by the controller to have an energy sufficient to form a vapor bubble in the liquid medium at the delivery end of the fiber; the one or more pulses being selected to allow the vapor bubble to expand an amount sufficient to displace a substantial portion of the liquid medium from the space between the delivery end of the fiber and the target tissue, the one or more pulses being delivered to the target tissue through the vapor bubble after the vapor bubble has reached its maximum extent and has begun to collapse; and, whereby the collapsing bubble causes the target tissue to remain substantially stationary as the one or more laser pulses are being delivered, thus reducing retropulsion of the tissue portion.
Procedure to prepare foodstuff in gel format from quinoa starch and enriched with peptides and maltodextrins, wherein quinoa starch is turned into gel and enriched with peptides and maltodextrins at 80°C under constant stirring and then cooled at room temperature, turned into gel, and then sized and packaged, having previously added optional colorants, flavors and preservatives or mixtures of them, wherein quinoa starch is enriched with peptides up to a 10% concentration and enriched with maltodextrins up to a 20% concentration based on the total weight and, wherein peptides are obtained through two or more enzymatic hydrolysis from a concentrate obtained from a supernatant containing quinoa soluble protein, wherein the supernatant is obtained by centrifuging the solution that was extracted through an alkaline solution under constant stirring at room temperature from quinoa flour with 100-300 μm granulometry from which lipids have not been previously extracted; and wherein maltodextrins are obtained from enzymatic hydrolysis of quinoa flour with a <100 μm granulometry and a precipitate obtained by centrifuging the solution resulting from the extraction mentioned above.
A manufacturing method of a component (21, 31; 25, 35) of a module of a wind turbine blade divided in at least two longitudinal modules, said component (21, 31; 25, 35) having joining elements with a complementary component (31, 21; 35, 25) in another module, characterized by comprising the following steps: a) manufacturing a Joint laminate (23, 33; 27, 37) of a composite material having embedded into it the joining elements, said joint laminate (23, 33; 27, 37) being configured for becoming a part of the component (21, 31; 25, 35); b) manufacturing the component (21, 31; 25, 35) using as a preform said joint laminate (23, 33; 27, 37). a) manufacturing a Joint laminate (23, 33; 27, 37) of a composite material having embedded into it the joining elements, said joint laminate (23, 33; 27, 37) being configured for becoming a part of the component (21, 31; 25, 35); b) manufacturing the component (21, 31; 25, 35) using as a preform said joint laminate (23, 33; 27, 37).
Apparatus comprising a control device, wherein the apparatus is for earthing the control device and for measuring temperature, in particular for a gearbox and/or clutch of a motor vehicle, wherein the control device has a supporting plate and a housing, wherein a temperature sensor which is mounted on the supporting plate of the control device is provided, and wherein a heat and current conducting connection can be provided between the control device and a measured unit, in particular the gearbox and/or the clutch, such that a temperature of the measured unit can be measured by the temperature sensor and an earth connection can be established between the control device and the measured unit, characterized in that the housing has a mounting sleeve, and that the heat and current conducting connection is embodied as a stamped part which is pressed onto the mounting sleeve of the housing (1, 9) of the control device, and that the heat and current conducting connection has two tabs (7a, 7b), wherein a first tab serves as a heat path and a second tab serves as a current path.
Lift axle valve unit for a commercial vehicle comprising an air suspension, characterised in that the lift axle valve unit comprises a heating device by which it is possible to heat the lift axle valve unit according to the needs.
A pulling tool for pulling a slick line or a fibre optic cable within a wellbore or a tubing comprising a propulsion module having a main section and a propulsion arm hinged to the main section, wherein: the propulsion arm includes a propulsion wheel with a gear system, the gear system of the propulsion wheel comprising an eccentric, internally toothed gear system with a fixed inner gear and a moving outer gear, the moving outer gear exhibiting the internal toothing and constituting the propulsion wheel of the pulling tool, and an electric motor for driving the propulsion wheel via the gear system.
A partially implantable hearing system, the system comprising: a hair clamp including: a first magnet; and a magnet support coupled to the first magnet; and an external component of the partially implantable hearing device, the external component including a housing having a second magnet; and an implantable component of the partially implantable hearing device, the implantable component including a third magnet; wherein when the second magnet is juxtaposed and aligned with the first magnet, the magnet support extends beyond the housing of the external component. a hair clamp including: a first magnet; and a magnet support coupled to the first magnet; and a first magnet; and a magnet support coupled to the first magnet; and an external component of the partially implantable hearing device, the external component including a housing having a second magnet; and an implantable component of the partially implantable hearing device, the implantable component including a third magnet;
A process for producing 2-chloro-3,3,3-trifluoropropene (CF 3 -CCl=CH 2) comprising mixing in a liquid state a compound of the formula CF 3 -CHCl-CH 2 X, wherein X is halogen, with an aqueous solution containing at least one metal hydroxide selected from alkali metal hydroxides and alkali earth metal hydroxides in the presence of at least one catalyst selected from quaternary ammonium salts and aprotic solvents to dehydrohalogenate the CF 3 -CHCl-CH 2 X, wherein the dehydrohalogenation is continuously performed while the produced CF 3 -CCl=CH 2 is collected by distillation.
A method for determining a material decomposition using a CT system, the method comprising the steps of: a) imaging an object with the CT system using at least two different energy levels to acquire CT data associated with each of the energy levels; b) reconstructing the acquired CT data associated with each of the energy levels to produce image data associated with each of the energy levels; c) converting the image data associated with each of the energy levels to attenuation coefficients associated with each of the energy levels; d) calculating a ratio of the attenuation coefficients associated with one energy level to the attenuation coefficients associated with another energy level; the method being characterized by the steps of: e) correlating the ratio calculated in step d) to indicate a concentration of a constituent material in the imaged object; and f) correlating the concentration of a constituent material to the image data to create an image showing a distribution of the concentrations of the constituent material. a) imaging an object with the CT system using at least two different energy levels to acquire CT data associated with each of the energy levels; b) reconstructing the acquired CT data associated with each of the energy levels to produce image data associated with each of the energy levels; c) converting the image data associated with each of the energy levels to attenuation coefficients associated with each of the energy levels; d) calculating a ratio of the attenuation coefficients associated with one energy level to the attenuation coefficients associated with another energy level; the method being characterized by the steps of: e) correlating the ratio calculated in step d) to indicate a concentration of a constituent material in the imaged object; and f) correlating the concentration of a constituent material to the image data to create an image showing a distribution of the concentrations of the constituent material. e) correlating the ratio calculated in step d) to indicate a concentration of a constituent material in the imaged object; and f) correlating the concentration of a constituent material to the image data to create an image showing a distribution of the concentrations of the constituent material.
A method for performing sidelink communication by a first device, comprising: reserving periodic resources including a first sidelink, SL, resource based on a first priority value; generating a medium access control, MAC, protocol data unit, PDU, related to a second priority value; determining a pre-emption of the first SL resource for the MAC PDU to transmit, based on the second priority value; selecting a second SL resource different from the first SL resource based on the pre-emption of the first SL resource; and transmitting, to a second device through the second SL resource, the MAC PDU and sidelink control information, SCI, comprising the second priority value, wherein the determining of the pre-emption of the first SL resource comprises: identifying a candidate resource set for resource selection based on sensing; determining whether the first SL resource is excluded from the candidate resource set based on the second priority value; and determining a pre-emption of the first SL resource based on the first SL resource being excluded from the candidate resource set. reserving periodic resources including a first sidelink, SL, resource based on a first priority value; generating a medium access control, MAC, protocol data unit, PDU, related to a second priority value; determining a pre-emption of the first SL resource for the MAC PDU to transmit, based on the second priority value; selecting a second SL resource different from the first SL resource based on the pre-emption of the first SL resource; and transmitting, to a second device through the second SL resource, the MAC PDU and sidelink control information, SCI, comprising the second priority value, wherein the determining of the pre-emption of the first SL resource comprises: identifying a candidate resource set for resource selection based on sensing; determining whether the first SL resource is excluded from the candidate resource set based on the second priority value; and determining a pre-emption of the first SL resource based on the first SL resource being excluded from the candidate resource set. identifying a candidate resource set for resource selection based on sensing; determining whether the first SL resource is excluded from the candidate resource set based on the second priority value; and determining a pre-emption of the first SL resource based on the first SL resource being excluded from the candidate resource set.
A biomolecule conjugate comprising a cytokine and a peptide comprising or consisting of the sequence set forth in SEQ ID NO: 1 or a conservative variant thereof.
A process comprising: (a) providing an initial cellulose ether powder comprising 0.5 to 10 weight-percent water based on total cellulose ether powder weight; (b) heating the initial cellulose ether powder to a temperature in a range of 30 to 130 degrees Celsius; (c) before, during and/or after heating in step (b), adding solid base selected from the group consisting of bicarbonate salts, carbonate salts, basic alumina, weak basic resins and strong basic resins to the cellulose ether powder and mixing with the initial cellulose ether powder to form a cellulose ether/base mixture; (d) adding volatile acid to the cellulose ether/base mixture and mixing; and (e) allowing the volatile acid to hydrolyze the initial cellulose ether to form a final cellulose ether having a lower viscosity than the initial cellulose ether. (a) providing an initial cellulose ether powder comprising 0.5 to 10 weight-percent water based on total cellulose ether powder weight; (b) heating the initial cellulose ether powder to a temperature in a range of 30 to 130 degrees Celsius; (c) before, during and/or after heating in step (b), adding solid base selected from the group consisting of bicarbonate salts, carbonate salts, basic alumina, weak basic resins and strong basic resins to the cellulose ether powder and mixing with the initial cellulose ether powder to form a cellulose ether/base mixture; (d) adding volatile acid to the cellulose ether/base mixture and mixing; and (e) allowing the volatile acid to hydrolyze the initial cellulose ether to form a final cellulose ether having a lower viscosity than the initial cellulose ether.
A catalyst precursor composition comprising: a support comprising alumina and magnesium aluminate; and magnesium oxide and mixed metal oxides on a surface of the support, wherein the mixed metal oxides are selected from the group consisting of Co x Fe y MoO 4, Fe 2 (MoO 4) 3 and blends thereof, wherein x is from 1.6 to 6.5, and y is from 0.1 to 10.5. a support comprising alumina and magnesium aluminate; and magnesium oxide and mixed metal oxides on a surface of the support, wherein the mixed metal oxides are selected from the group consisting of Co x Fe y MoO 4, Fe 2 (MoO 4) 3 and blends thereof, wherein x is from 1.6 to 6.5, and y is from 0.1 to 10.5.
A method for providing a Moving Pictures Experts Group, MPEG, Media Transport, MMT, media content, the method comprising: receiving, by an MMT aware network entity, MANE, an MMT media content and a signaling message related to the MMT media content from an MMT sending entity, the signaling message including a flag indicating that particular media data in the MMT media content is replaced or modified or changed[claim 2]; receiving, by the MANE, a modification request message to request to modify particular media data of at least part of the MMT media content, the modification request message including at least one of information related to the particular media data to be modified and change type information of the particular media data [claim 7]; updating, by the MANE, the information related to the particular media data in the signaling message based on the modification request message; and transmitting, by the MANE, the updated signaling message to an MMT receiving entity. receiving, by an MMT aware network entity, MANE, an MMT media content and a signaling message related to the MMT media content from an MMT sending entity, the signaling message including a flag indicating that particular media data in the MMT media content is replaced or modified or changed[claim 2]; receiving, by the MANE, a modification request message to request to modify particular media data of at least part of the MMT media content, the modification request message including at least one of information related to the particular media data to be modified and change type information of the particular media data [claim 7]; updating, by the MANE, the information related to the particular media data in the signaling message based on the modification request message; and transmitting, by the MANE, the updated signaling message to an MMT receiving entity.
A fibre bundle confocal microscope or endoscope, comprising: a light source (142, 372) for providing a beam of excitation light (160, 264, 374), wherein preferably the source is a laser source adapted to provide a beam of coherent light; a coherent fibre bundle (152, 262) of optical fibres having a proximal end (162, 266) and a distal end of said bundle; a scanner for receiving said beam and scanning said beam over said proximal end of said bundle, so that said beam is launched into a plurality of said fibres sequentially, each of said fibres thereby acting sequentially as a central delivery fibre (204, 268) for transmitting said beam from the proximal end to the distal end of said bundle; a spatial filter defining an aperture (172, 182, 190, 284, 302, 352, 378); and a photodetector (174, 222, 240a, 240b, 290a, 290b, 306, 342) operatively associated with said spatial filter to receive return light from one or more of said fibres; characterised by an occlusion (178, 186, 194, 178, 286, 386, 400) operatively associated with said spatial filter; wherein said scanner is configured to receive and de-scan return light from said bundle, said spatial filter being configured to receive said return light from said scanner, and said occlusion being located to intercept at least the light portion returning from the central delivery fibre at said proximal end of the bundle at any time.
A system for providing an improved start in a welding process, the system comprising: a power circuit for generating welding output power for a welding process; and characterised by: a control circuit in communication with the power circuit to control the start of the welding process, wherein the control circuit is configured to: receive a selection of at least one of a voltage setting or a run in percentage; and provide a current pulse at a start of the welding process for a pre-determined period of time determined by the received selection of at least one of the voltage setting or the run in percentage, wherein the current pulse has a peak magnitude that is based on the received selection of at least one of the voltage setting or the run in percentage. receive a selection of at least one of a voltage setting or a run in percentage; and provide a current pulse at a start of the welding process for a pre-determined period of time determined by the received selection of at least one of the voltage setting or the run in percentage, wherein the current pulse has a peak magnitude that is based on the received selection of at least one of the voltage setting or the run in percentage.
Method for obtaining a yeast strain of the genus Saccharomyces producing a lower amount of SO 2, hydrogen sulphide and acetaldehyde than that produced by the parent strain from which it is derived, said method being characterized in that it comprises: - selecting a parent strain containing an allele of the SKP2 gene, hereafter designated SKP2 (350/357)x, encoding a Skp2 protein wherein the amino acid at position 350 and/or the amino acid at position 357 is (are) other than isoleucine(s); - inserting in said parent strain an allele of the SKP2 gene, hereafter designated SKP2 350/357)I, encoding a Skp2 protein wherein the amino acid at position 350 and the amino acid at position 357 are isoleucines. - selecting a parent strain containing an allele of the SKP2 gene, hereafter designated SKP2 (350/357)x, encoding a Skp2 protein wherein the amino acid at position 350 and/or the amino acid at position 357 is (are) other than isoleucine(s); - inserting in said parent strain an allele of the SKP2 gene, hereafter designated SKP2 350/357)I, encoding a Skp2 protein wherein the amino acid at position 350 and the amino acid at position 357 are isoleucines.