mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing an integrated magnetic device with variable inductance, comprising at least the implementation of the following steps: a) making of a piezoelectric element on a first substrate such that a second face of the piezoelectric element is arranged on the side of the first substrate ; b) making of a first electrically conductive element on the side of a first face , opposite the second face , of the piezoelectric element , and fastening of the ends of the piezoelectric element to a second substrate such that the first face of the piezoelectric element is arranged facing a first cavity formed between a portion of the second substrate and the piezoelectric element , the first electrically conductive element being arranged in and/or against the second substrate or against the piezoelectric element ; c) removing of at least one portion of the first substrate ; d) making of a second electrically conductive element on the side of the second face of the piezoelectric element ; and further comprising the making of an electrical and/or magnetic coupling of the first and second electrically conductive elements , and the making of at least one magnetic element arranged against and/or in the piezoelectric element and between the first and second electrically conductive elements . a) making of a piezoelectric element on a first substrate such that a second face of the piezoelectric element is arranged on the side of the first substrate ; b) making of a first electrically conductive element on the side of a first face , opposite the second face , of the piezoelectric element , and fastening of the ends of the piezoelectric element to a second substrate such that the first face of the piezoelectric element is arranged facing a first cavity formed between a portion of the second substrate and the piezoelectric element , the first electrically conductive element being arranged in and/or against the second substrate or against the piezoelectric element ; c) removing of at least one portion of the first substrate ; d) making of a second electrically conductive element on the side of the second face of the piezoelectric element ;
A lock assembly for an excavator wear assembly , the lock assembly comprising: a locking pin having a flange portion and a longitudinal axis; and a retaining assembly having a locking member, the retaining assembly being adapted to receive the locking pin ; wherein the locking member of the retaining assembly is adapted to deform perpendicularly to the longitudinal axis of the locking pin as the locking pin is inserted longitudinally into the retaining assembly ; wherein the locking member of the retaining assembly is adapted to engage with the flange portion of the locking pin to prevent withdrawal of the locking pin from the retaining assembly when the lock assembly is in a locked position; and wherein the locking member has a tab that is in the form of a segment of a circle generally across an inner wall and the tab engages the flange portion to prevent relative rotation therebetween. a locking pin having a flange portion and a longitudinal axis; and a retaining assembly having a locking member, the retaining assembly being adapted to receive the locking pin ; wherein the locking member of the retaining assembly is adapted to deform perpendicularly to the longitudinal axis of the locking pin as the locking pin is inserted longitudinally into the retaining assembly ; wherein the locking member of the retaining assembly is adapted to engage with the flange portion of the locking pin to prevent withdrawal of the locking pin from the retaining assembly when the lock assembly is in a locked position; and wherein the locking member has a tab that is in the form of a segment of a circle generally across an inner wall and the tab engages the flange portion to prevent relative rotation therebetween.
A meter apparatus , comprising a housing , characterized in that the housing has first and second housing portions , the first housing portion mounting meter circuitry arranged to be connected to a mains supply of electricity and arranged to monitor data associated with the mains supply, the meter apparatus is configured to connect to a communications apparatus mounted in the second housing portion and arranged for communicating data with the meter, the communications apparatus being electrically isolated from the mains supply of electricity to enable access to the communications apparatus without affecting the mains supply to the meter, the first and second housing portions comprising first and second access means respectively, such that access can be had to the second housing portion , to access the communication apparatus via the second access means, without requiring access to the first housing portion , wherein power is provided to the communications apparatus via a switch mode power supply that has a transformer with two separate windings from which two separate low voltage DC supplies are derivable wherein one winding supplies the power to run the meter circuitry and the other winding is provided to the communications apparatus .
NO supply device comprising: - a main gas circuit comprising at least one main NO line connecting at least one NO input port fluidically to a main output orifice , in order to convey an NO/N 2 mixture from the said at least one NO input port to the said main output orifice ; and - a backup circuit comprising a backup NO circuit and a backup O 2 circuit , wherein: the backup NO circuit comprises a backup NO line which is supplied with NO/N 2 mixture obtained from the said at least one NO input port ; and the backup O 2 circuit comprises a main O 2 line which is in fluid communication with an O 2 input port , the main O 2 line being connected fluidically to the backup NO line in order to form a common line which is in fluid communication with a secondary output , supplying an NO/N 2 /O 2 mixture, and wherein the main NO line comprises means for controlling the flow rate of NO/N 2 which are controlled by control means , characterized in that the main NO line is connected fluidically to the backup NO line , downstream from the means for controlling the flow rate of NO/N 2 , by means of a first solenoid valve with a plurality of ways. - a main gas circuit comprising at least one main NO line connecting at least one NO input port fluidically to a main output orifice , in order to convey an NO/N 2 mixture from the said at least one NO input port to the said main output orifice ; and - a backup circuit comprising a backup NO circuit and a backup O 2 circuit , wherein: the backup NO circuit comprises a backup NO line which is supplied with NO/N 2 mixture obtained from the said at least one NO input port ; and the backup O 2 circuit comprises a main O 2 line which is in fluid communication with an O 2 input port , the main O 2 line being connected fluidically to the backup NO line in order to form a common line which is in fluid communication with a secondary output , supplying an NO/N 2 /O 2 mixture, and wherein the main NO line comprises means for controlling the flow rate of NO/N 2 which are controlled by control means , characterized in that the main NO line is connected fluidically to the backup NO line , downstream from the means for controlling the flow rate of NO/N 2 , by means of a first solenoid valve with a plurality of ways. the backup NO circuit comprises a backup NO line which is supplied with NO/N 2 mixture obtained from the said at least one NO input port ; and the backup O 2 circuit comprises a main O 2 line which is in fluid communication with an O 2 input port , the main O 2 line being connected fluidically to the backup NO line in order to form a common line which is in fluid communication with a secondary output , supplying an NO/N 2 /O 2 mixture, and wherein the main NO line comprises means for controlling the flow rate of NO/N 2 which are controlled by control means , characterized in that the main NO line is connected fluidically to the backup NO line , downstream from the means for controlling the flow rate of NO/N 2 , by means of a first solenoid valve with a plurality of ways.
A beam transport line for a proton accelerator, arranged to guide the proton beam from the accelerator to a dose delivery system , wherein the accelerator, the proton beam transport line and the dose delivery system are arranged to be controllable by a control system, and wherein the beam transport line comprises a plurality of electromagnetic elements , characterized in that at least one of these electromagnetic elements is connected to either a 2-quadrant or a 4-quadrant power supply unit arranged to produce a current that can be varied by the control system in less than 50 milliseconds so that, when the beam energy is varied to move the beam spot along the beam direction, the beam is kept focused on a target with losses along the beam transport line and the dose delivery system not larger than 10% and variations of the transverse Full Widths at Half Maximum of the beam spot not larger than 10%.
A stable, solid protein formulation comprising bovine serum albumin (BSA), potassium phosphate, mannitol, sucrose, and polysorbate 20, wherein said protein is darbepoetin.
A method of drawing a yarn spun out from a spinning apparatus, using a spun yarn drawing apparatus comprising: at least one first roller; three or more second rollers located downstream of the first roller in a yarn running direction, each of which second rollers functions as a heating roller and has a yarn feeding speed higher than that of the first roller; a speed controller configured to control the yarn feeding speeds of the three or more second rollers; and a temperature controller configured to control temperatures of the three or more second rollers, wherein: the speed controller controls the yarn feeding speeds of the three or more second rollers so that between every two second rollers which are adjacent to each other in the yarn running direction, the yarn feeding speed of the second roller located downstream in the yarn running direction is lower than the yarn feeding speed of the second roller located upstream in the yarn running direction; and the temperature controller controls the temperatures of the three or more second rollers so that the temperature of the second roller located most downstream in the yarn running direction is higher than or equal to the temperature of each of the remaining second rollers. at least one first roller; three or more second rollers located downstream of the first roller in a yarn running direction, each of which second rollers functions as a heating roller and has a yarn feeding speed higher than that of the first roller; a speed controller configured to control the yarn feeding speeds of the three or more second rollers; and a temperature controller configured to control temperatures of the three or more second rollers, wherein: the speed controller controls the yarn feeding speeds of the three or more second rollers so that between every two second rollers which are adjacent to each other in the yarn running direction, the yarn feeding speed of the second roller located downstream in the yarn running direction is lower than the yarn feeding speed of the second roller located upstream in the yarn running direction; and the temperature controller controls the temperatures of the three or more second rollers so that the temperature of the second roller located most downstream in the yarn running direction is higher than or equal to the temperature of each of the remaining second rollers. the speed controller controls the yarn feeding speeds of the three or more second rollers so that between every two second rollers which are adjacent to each other in the yarn running direction, the yarn feeding speed of the second roller located downstream in the yarn running direction is lower than the yarn feeding speed of the second roller located upstream in the yarn running direction; and the temperature controller controls the temperatures of the three or more second rollers so that the temperature of the second roller located most downstream in the yarn running direction is higher than or equal to the temperature of each of the remaining second rollers.
Roflumilast for use in a method of treating a fungal infection in a subject in need thereof, comprising administering to the subject a therapeutically effective amount of roflumilast or a pharmaceutically acceptable salt thereof, wherein the fungal infection is caused by Malassezia spp.
A recording medium , in which is recorded data including a digital stream obtained by encoding video information, wherein a recording region of the recording medium has a first recording region where reading can be performed at a first read rate (LRR), and a second recording region where reading can be performed at a second read rate (HRR) that is faster than the first read rate, wherein the values for the maximum recording rate in the LRR zone and the maximum recording rate in the HRR zone are recorded in a lead-in/inner zone as minimum read rates necessary for a drive to read the streams recorded in the LRR zone and HRR zone, respectively, wherein the data includes a digital stream having real-time attributes and a data file having non-real-time attributes, and wherein the data file to be read in during playback of the digital stream is recorded in, of the first recording region (LRR) and the second recording region (HRR), the same recording region as the recording region where the digital stream to be played is recorded.
A valve bridge assembly for a valve train assembly , the valve bridge assembly comprising: a valve bridge ; a first cavity formed towards a first end portion of the valve bridge ; a hydraulic lash adjuster (HLA) disposed within the first cavity for engaging a first valve stem ; wherein the HLA comprises a first contact surface for engaging the first valve stem , wherein the first contact surface is curved characterized in that said curved surface is disposed inside the first cavity . a valve bridge ; a first cavity formed towards a first end portion of the valve bridge ; a hydraulic lash adjuster (HLA) disposed within the first cavity for engaging a first valve stem ; wherein the HLA comprises a first contact surface for engaging the first valve stem , wherein the first contact surface is curved characterized in that said curved surface is disposed inside the first cavity .
A method for producing microparticles suitable as support for fluorescent assays, comprising the steps of (a) providing a wafer having a sandwich structure comprising a bottom layer , an insulator layer and a top layer ; (b) etching the top layer to delineate microparticles; (c) etching away the insulator layer ; (d) depositing a layer on the wafer still holding the microparticles avoiding any forces that are capable of detaching the microparticles; and (e) lifting-off the microparticles from the wafer, wherein step (d) occurs after step (c) and before step (e). (a) providing a wafer having a sandwich structure comprising a bottom layer , an insulator layer and a top layer ; (b) etching the top layer to delineate microparticles; (c) etching away the insulator layer ; (d) depositing a layer on the wafer still holding the microparticles avoiding any forces that are capable of detaching the microparticles; and (e) lifting-off the microparticles from the wafer,
Process for the production of heat- and flame-resistant, low-emission nonwovens or nonwoven fabrics based on melamine/formaldehyde, with the following stages: a) provision of a melamine/formaldehyde resin with M:F ratio 1:2 and with almost complete etherification of the methylol groups with methanol, at least 80 % of the methylol groups being etherified; b) spinning of the melt at a mass flow rate of from 0.3 to 3.0 g/min per die at a melt temperature of from 80 to 200 °C in a melt-blow process; c) causing of a gas stream at a temperature of from 130 to 330 °C to flow onto the spun melt stream; d) laying of the flocs and/or fibres formed in stage c) to give a nonwoven or nonwoven fabric, with cooling to from 40 to 20 °C; e) treatment of the nonwoven or nonwoven fabric with gaseous hydrogen chloride; f) heating of the nonwoven or nonwoven fabric obtained in stage e) to from 260 to 340 °C, where air is caused to flow onto or through said nonwoven, and where the temperature in the range up to 160 °C is increased by at most 20 °C/min, and thereafter is increased by up to 100 °C/min; g) keeping of the nonwoven or nonwoven fabric for from 5 to 90 min at the temperature of from 260 to 340 °C reached in stage f), with from 5 to 50 % of the convection air being replaced by fresh air; and h) cooling of the nonwoven or nonwoven fabric to from 30 to 60 °C within from 5 s to 3 min by contact with material suitable for rapid heat exchange. a) provision of a melamine/formaldehyde resin with M:F ratio 1:2 and with almost complete etherification of the methylol groups with methanol, at least 80 % of the methylol groups being etherified; b) spinning of the melt at a mass flow rate of from 0.3 to 3.0 g/min per die at a melt temperature of from 80 to 200 °C in a melt-blow process; c) causing of a gas stream at a temperature of from 130 to 330 °C to flow onto the spun melt stream; d) laying of the flocs and/or fibres formed in stage c) to give a nonwoven or nonwoven fabric, with cooling to from 40 to 20 °C; e) treatment of the nonwoven or nonwoven fabric with gaseous hydrogen chloride; f) heating of the nonwoven or nonwoven fabric obtained in stage e) to from 260 to 340 °C, where air is caused to flow onto or through said nonwoven, and where the temperature in the range up to 160 °C is increased by at most 20 °C/min, and thereafter is increased by up to 100 °C/min; g) keeping of the nonwoven or nonwoven fabric for from 5 to 90 min at the temperature of from 260 to 340 °C reached in stage f), with from 5 to 50 % of the convection air being replaced by fresh air; and h) cooling of the nonwoven or nonwoven fabric to from 30 to 60 °C within from 5 s to 3 min by contact with material suitable for rapid heat exchange.
A pintle insertion tool comprising: a drive assembly including a controller connected to a power supply and configured to drive at least one motor, a first roller and a second roller defining at least a portion of a channel therebetween, the at least one motor configured to rotate the first roller and the second roller, and the channel is adapted to receive a pintle lead wire such that the pintle lead wire is driven by the first roller and the second roller through interdigitated seam loops on opposing ends of a textile so that a pintle can be pushed into position to complete a seam. a drive assembly including a controller connected to a power supply and configured to drive at least one motor, a first roller and a second roller defining at least a portion of a channel therebetween, the at least one motor configured to rotate the first roller and the second roller, and the channel is adapted to receive a pintle lead wire such that the pintle lead wire is driven by the first roller and the second roller through interdigitated seam loops on opposing ends of a textile so that a pintle can be pushed into position to complete a seam.
Assembly for the precision drilling of seed grains, comprising: a drilling machine with at least one row unit which is assigned a drive set up for instigating delivery of a seed grain into a furrow , and a control system , which is connected to a position-determining system , to a memory device for the two- or three-dimensional storage of desired delivery positions of seed grains , to the drive of the row unit and to a seed material sensor for detecting the actual delivery position of the seed grains in the furrow and which is set up to control the drive based on signals from the position-determining system , the desired delivery positions registered in the memory device and signals from the seed material sensor so that the seed grains are deposited successively at the desired delivery positions, wherein the control system is set up to evaluate on the basis of the signals from the seed material sensor a time stagger (Δt) between the activation of the drive and the moment the seed grain reaches its final position in the furrow and to take this into consideration together with the current forward drive speed (v) when controlling the drive . a drilling machine with at least one row unit which is assigned a drive set up for instigating delivery of a seed grain into a furrow , and a control system , which is connected to a position-determining system , to a memory device for the two- or three-dimensional storage of desired delivery positions of seed grains , to the drive of the row unit and to a seed material sensor for detecting the actual delivery position of the seed grains in the furrow and which is set up to control the drive based on signals from the position-determining system , the desired delivery positions registered in the memory device and signals from the seed material sensor so that the seed grains are deposited successively at the desired delivery positions, wherein the control system is set up to evaluate on the basis of the signals from the seed material sensor a time stagger (Δt) between the activation of the drive and the moment the seed grain reaches its final position in the furrow and to take this into consideration together with the current forward drive speed (v) when controlling the drive .
Series hybrid propulsion unit including a gas turbine driving a mechanical shaft of an electric generator having n output phases and supplying an AC busbar , and a system for monitoring the speed of the gas turbine , said AC busbar supplying a plurality of AC distribution channels each composed of an electric rectifier and of a battery sharing the power required to supply a DC bus , said DC bus in turn supplying a plurality of propulsion sub-channels composed of electric inverters supplying, under the monitoring of a control module , motors driving thrusters , which unit being characterized in that it further includes: . a battery charger for charging said battery from said DC bus, . a power management module delivering a power reference for said electric generator, . a hybridization rate management module for managing the power sharing between said electric generator and said battery by monitoring the voltage of said DC bus, and in that said battery is directly connected on said DC bus via a passive component and said electric rectifier is a passive converter. . a battery charger for charging said battery from said DC bus, . a power management module delivering a power reference for said electric generator, . a hybridization rate management module for managing the power sharing between said electric generator and said battery by monitoring the voltage of said DC bus,