mhurhangee/patent-ind-claim-en huggingface dataset:
A method for monitoring an aircraft , the method comprising: receiving a pilot control input signal ; monitoring a response of a control surface system controlled by a flight control model using the pilot control input signal , the control surface system comprising a control surface that controls movement of the aircraft ; generating an alert when the control surface reaches a threshold position with respect to the control surface becoming saturated, wherein the control surface is saturated when any additional input from a pilot does not affect the movement of the control surface ; displaying, via a first indicator on a graphical user interface , the pilot control input signal ; displaying, via a second indicator on the graphical user interface , a command sent to the control surface system in response to the pilot control input signal ; and displaying, via a third indicator on the graphical user interface , the response of the aircraft to the command sent to the control surface system . receiving a pilot control input signal ; monitoring a response of a control surface system controlled by a flight control model using the pilot control input signal , the control surface system comprising a control surface that controls movement of the aircraft ; generating an alert when the control surface reaches a threshold position with respect to the control surface becoming saturated, wherein the control surface is saturated when any additional input from a pilot does not affect the movement of the control surface ; displaying, via a first indicator on a graphical user interface , the pilot control input signal ; displaying, via a second indicator on the graphical user interface , a command sent to the control surface system in response to the pilot control input signal ; and displaying, via a third indicator on the graphical user interface , the response of the aircraft to the command sent to the control surface system .
Method for producing a decorated element for a timepiece or piece of jewellery, the method including the steps of: - taking a base substrate , and micromachining on said base substrate a mould or decorative partitions in a programmed pattern, and - filling the mould or decorative partitions with at least one filler material to obtain the decorated element, characterised in that the mould or the decorative partitions are obtained by the selective melting or selective sintering of a powder on the base substrate in a selective melting or selective sintering machine using a laser beam or an electron beam or in an additive fabrication machine of a metal, ceramic or ceramo-metallic layer, such as cermet, along a stored line of the pattern to be created. - taking a base substrate , and micromachining on said base substrate a mould or decorative partitions in a programmed pattern, and - filling the mould or decorative partitions with at least one filler material to obtain the decorated element,
Process for preparing silicon dioxide and/or a metal oxide wherein the metal oxide comprises at least one of the elements Al, Ce, Fe, Mg, In, Ti, Sn, Y, Zn and/or Zr as metal component, comprising the following steps: a) spraying a liquid raw material comprising at least one silicon compound and/or a metal compound by mixing it with a gas to form an aerosol; b) forming a gaseous reaction mixture from the aerosol obtained in step a) by complete evaporation thereof; c) converting the gaseous reaction mixture obtained in step b) to silicon dioxide and/or metal oxide in the presence of oxygen. a) spraying a liquid raw material comprising at least one silicon compound and/or a metal compound by mixing it with a gas to form an aerosol; b) forming a gaseous reaction mixture from the aerosol obtained in step a) by complete evaporation thereof; c) converting the gaseous reaction mixture obtained in step b) to silicon dioxide and/or metal oxide in the presence of oxygen.
A method for the production of a 3D printed object , wherein the method comprises: - a 3D printing stage wherein a 3D printable material is 3D printed to provide the 3D printed object , and wherein during 3D printing a channel is formed in the 3D printed object under construction, the channel comprising two or more channel parts , each channel part having a channel axis , and two or more channel axes having a mutual angle (α) larger than 0° and smaller than 180°, the channel comprising an anchoring part selected from the group consisting of a bifurcation structure and a loop structure , and - a filling stage wherein the channel is filled with a curable material , and wherein the curable material is cured to provide the channel with cured material , the cured material having a lower stiffness than the surrounding printed material . - a 3D printing stage wherein a 3D printable material is 3D printed to provide the 3D printed object , and wherein during 3D printing a channel is formed in the 3D printed object under construction, the channel comprising two or more channel parts , each channel part having a channel axis , and two or more channel axes having a mutual angle (α) larger than 0° and smaller than 180°, the channel comprising an anchoring part selected from the group consisting of a bifurcation structure and a loop structure , and - a filling stage wherein the channel is filled with a curable material , and wherein the curable material is cured to provide the channel with cured material , the cured material having a lower stiffness than the surrounding printed material .
A method of optimizing metering profiles of electromagnetically driven displacement pumps, in which a moveable displacer element delimits a metering chamber which is connected by way of valves to a suction and a pressure line so that delivery fluid can alternately be sucked into the metering chamber by way of the suction line and urged out of the metering chamber by way of the pressure line by an oscillating movement of the displacer element, wherein the delivery fluid flow into the pressure line represents the metering profile and there is provided a drive for the oscillating movement of the displacer element, characterised in that a model-based closed-loop control is used for the drive, wherein the position of the displacer element and/or the current through the electromagnetic drive is measured and a state space model is used for the model-based closed-loop control, which state space model uses the position of the displacer element and/or the current through the electromagnetic drive as measurement variables.
Hose assembly comprising: an inner hose ; an outer hose that partially surrounds the inner hose , such that at least one free end of the inner hose protrudes out of the outer hose ; and a connection assembly with: at least one sleeve-shaped inner part , which inner part is inserted into the free end of the inner hose ; and at least one sleeve-shaped outer part which surrounds the inner part and is connected to the outer hose in a fluid-tight manner, preferably in an integral manner, most preferably welded; wherein the free end of the inner hose is clamped between the inner part and the outer part and wherein the outer part projects with a circumferential projection at the end with respect to the inner part ; characterised by an additional connecting part which, in a connected state, is axially connected to the inner part , wherein the outer part , in the connected state, surrounds the connecting part in a portion with its circumferential projection , wherein the connecting part and the outer part are connected in a fluid-tight and integral manner in the region of the projection . an inner hose ; an outer hose that partially surrounds the inner hose , such that at least one free end of the inner hose protrudes out of the outer hose ; and a connection assembly with: at least one sleeve-shaped inner part , which inner part is inserted into the free end of the inner hose ; and at least one sleeve-shaped outer part which surrounds the inner part and is connected to the outer hose in a fluid-tight manner, preferably in an integral manner, most preferably welded; wherein the free end of the inner hose is clamped between the inner part and the outer part and wherein the outer part projects with a circumferential projection at the end with respect to the inner part ; characterised by an additional connecting part which, in a connected state, is axially connected to the inner part , wherein the outer part , in the connected state, surrounds the connecting part in a portion with its circumferential projection , wherein the connecting part and the outer part are connected in a fluid-tight and integral manner in the region of the projection . at least one sleeve-shaped inner part , which inner part is inserted into the free end of the inner hose ; and at least one sleeve-shaped outer part which surrounds the inner part and is connected to the outer hose in a fluid-tight manner, preferably in an integral manner, most preferably welded; wherein the free end of the inner hose is clamped between the inner part and the outer part and wherein the outer part projects with a circumferential projection at the end with respect to the inner part ; characterised by an additional connecting part which, in a connected state, is axially connected to the inner part , wherein the outer part , in the connected state, surrounds the connecting part in a portion with its circumferential projection , wherein the connecting part and the outer part are connected in a fluid-tight and integral manner in the region of the projection .
A tire comprising: a carcass ply which extends from one bead to another bead ; side-wall rubber which is disposed at an outer side in a tire-width direction of the carcass ply ; and tread rubber which is disposed at an outer side in a tire-radial direction of the carcass ply , wherein the side-wall rubber and the tread rubber are laminated at a tire outer surface side of a region of at least part of the carcass ply , characterised in that an electronic component is disposed between the side-wall rubber and the tread rubber . a carcass ply which extends from one bead to another bead ; side-wall rubber which is disposed at an outer side in a tire-width direction of the carcass ply ; and tread rubber which is disposed at an outer side in a tire-radial direction of the carcass ply , wherein the side-wall rubber and the tread rubber are laminated at a tire outer surface side of a region of at least part of the carcass ply , characterised in that an electronic component is disposed between the side-wall rubber and the tread rubber .
A method of polymerizing olefins, comprising: contacting ethylene and at least one comonomer with a catalyst system to produce a polyolefin polymer that is multimodal, the catalyst system comprising a first catalyst that promotes polymerization of the ethylene into a low molecular weight (LMW) portion of the polyolefin polymer, and a second catalyst that promotes polymerization of the ethylene into a high molecular weight (HMW) portion of the polyolefin polymer; wherein the first catalyst and at least a portion of the second catalyst are co-supported to form a commonly-supported catalyst system; and wherein at least a portion of the second catalyst is added as a catalyst trim feed to the catalyst system, wherein a molar amount of the second catalyst added via the catalyst trim feed per gram of the dry commonly-supported catalyst system ranges from 1.8 μmol to 150 μmol. contacting ethylene and at least one comonomer with a catalyst system to produce a polyolefin polymer that is multimodal, the catalyst system comprising a first catalyst that promotes polymerization of the ethylene into a low molecular weight (LMW) portion of the polyolefin polymer, and a second catalyst that promotes polymerization of the ethylene into a high molecular weight (HMW) portion of the polyolefin polymer; wherein the first catalyst and at least a portion of the second catalyst are co-supported to form a commonly-supported catalyst system; and wherein at least a portion of the second catalyst is added as a catalyst trim feed to the catalyst system, wherein a molar amount of the second catalyst added via the catalyst trim feed per gram of the dry commonly-supported catalyst system ranges from 1.8 μmol to 150 μmol.
Apparatus for contactlessly measuring the weight of a part that is movable in translation along a vertical axis Z, said movable part comprising a permanent magnet APM that is magnetized along said axis Z and means for magnetically levitating said movable part, said levitation means being associated with means for measuring the force exerted between said movable part and said levitation means, characterized in that said levitation means is a permanent magnet APF that is magnetized along said axis Z, opposite to the magnetization of said movable permanent magnet APM , said magnets APM and APF being aligned along said vertical axis Z by means of a nonmagnetic guide that passes through said movable part, said apparatus further including means for applying a vibration displacement of said movable permanent magnet APM with respect to said guide . characterized in that said levitation means is a permanent magnet APF that is magnetized along said axis Z, opposite to the magnetization of said movable permanent magnet APM , said magnets APM and APF being aligned along said vertical axis Z by means of a nonmagnetic guide that passes through said movable part, said apparatus further including means for applying a vibration displacement of said movable permanent magnet APM with respect to said guide .
A method for processing a substrate in a process chamber (300; 508), comprising: receiving , by a synchronization controller (322; 504), process control parameters for one or more devices (308, 356, 348, 370; 506 1-n ) from a process controller (330; 502) to perform a first chamber process; determining , by the synchronization controller, a time to send each of the process control parameters to the one or more devices; for each of the one or more devices, adjusting , by the synchronization controller, the determined time to send each of the process control parameters using specific signal process delays associated with each of the one or more devices wherein the specific signal processing delays include intrinsic delays associated with each of the one or more devices; and sending , by the synchronization controller, the process control parameters to each of the one or more devices at the adjusted times to perform the first chamber process, wherein the synchronization controller includes one or more output channels (512 1-n ), each channel directly coupled to one of the one or more devices. receiving , by a synchronization controller (322; 504), process control parameters for one or more devices (308, 356, 348, 370; 506 1-n ) from a process controller (330; 502) to perform a first chamber process; determining , by the synchronization controller, a time to send each of the process control parameters to the one or more devices; for each of the one or more devices, adjusting , by the synchronization controller, the determined time to send each of the process control parameters using specific signal process delays associated with each of the one or more devices wherein the specific signal processing delays include intrinsic delays associated with each of the one or more devices; and sending , by the synchronization controller, the process control parameters to each of the one or more devices at the adjusted times to perform the first chamber process, wherein the synchronization controller includes one or more output channels (512 1-n ), each channel directly coupled to one of the one or more devices.
A device comprising a processor adapted to store one or more sequences of instructions and to carry out at least the first and second vector determining steps of a method for determining the cylinder of an ophthalmic lens to be mounted on a spectacle frame, the method comprising: - a measuring device providing step during which a measuring device adapted to run a Jackson cross cylinder procedure is provided, - a first vector determining step, during which the components of a first vector of the cylinder in a two-dimensional vector cylinder representation are determined, - a second vector determining step, during which the components of a second vector of the cylinder in the two-dimensional vector cylinder representation are determined wherein the second vector components being determined such that the Euclidian distance between first and second vector is independent of the value of the cylinder wherein the method further comprises a target zone determining step, during which a target zone in the two-dimensional vector cylinder representation is determined, the target zone corresponding to part of the two-dimensional vector cylinder representation in which the components of a second vector of the cylinder are to be tested, the size of the target zone determined during the zone determining step being independent of the value of the cylinder. - a measuring device providing step during which a measuring device adapted to run a Jackson cross cylinder procedure is provided, - a first vector determining step, during which the components of a first vector of the cylinder in a two-dimensional vector cylinder representation are determined, - a second vector determining step, during which the components of a second vector of the cylinder in the two-dimensional vector cylinder representation are determined wherein the second vector components being determined such that the Euclidian distance between first and second vector is independent of the value of the cylinder wherein the method further comprises a target zone determining step, during which a target zone in the two-dimensional vector cylinder representation is determined, the target zone corresponding to part of the two-dimensional vector cylinder representation in which the components of a second vector of the cylinder are to be tested, the size of the target zone determined during the zone determining step being independent of the value of the cylinder.
A liquid detergent or cleaner comprising (a) a protease which is selected from the group consisting of a. protease comprising an amino acid sequence according to SEQ ID No. 3; b. protease which comprises an amino acid sequence modified in at least one position compared to SEQ ID No. 3, where the modification in the count according to SEQ ID No. 1 is selected from the group consisting of: i. threonine at position 3 , ii. isoleucine at position 4 , iii. alanine, threonine or arginine at position 61 (61A, 61T or 61R), iv. aspartic acid or glutamic acid at position 154 (154D or 154E), v. proline at position 188 , vi. methionine at position 193 , vii. isoleucine at position 199 , viii. aspartic acid, glutamic acid or glycine at position 211 (211D, 211E or 211G), ix. combinations of amino acids (i) to (viii); (b) a cellulase. (a) a protease which is selected from the group consisting of a. protease comprising an amino acid sequence according to SEQ ID No. 3; b. protease which comprises an amino acid sequence modified in at least one position compared to SEQ ID No. 3, where the modification in the count according to SEQ ID No. 1 is selected from the group consisting of: i. threonine at position 3 , ii. isoleucine at position 4 , iii. alanine, threonine or arginine at position 61 (61A, 61T or 61R), iv. aspartic acid or glutamic acid at position 154 (154D or 154E), v. proline at position 188 , vi. methionine at position 193 , vii. isoleucine at position 199 , viii. aspartic acid, glutamic acid or glycine at position 211 (211D, 211E or 211G), ix. combinations of amino acids (i) to (viii); a. protease comprising an amino acid sequence according to SEQ ID No. 3; b. protease which comprises an amino acid sequence modified in at least one position compared to SEQ ID No. 3, where the modification in the count according to SEQ ID No. 1 is selected from the group consisting of: i. threonine at position 3 , ii. isoleucine at position 4 , iii. alanine, threonine or arginine at position 61 (61A, 61T or 61R), iv. aspartic acid or glutamic acid at position 154 (154D or 154E), v. proline at position 188 , vi. methionine at position 193 , vii. isoleucine at position 199 , viii. aspartic acid, glutamic acid or glycine at position 211 (211D, 211E or 211G), ix. combinations of amino acids (i) to (viii); i. threonine at position 3 , ii. isoleucine at position 4 , iii. alanine, threonine or arginine at position 61 (61A, 61T or 61R), iv. aspartic acid or glutamic acid at position 154 (154D or 154E), v. proline at position 188 , vi. methionine at position 193 , vii. isoleucine at position 199 , viii. aspartic acid, glutamic acid or glycine at position 211 (211D, 211E or 211G), ix. combinations of amino acids (i) to (viii); (b) a cellulase.
Cooking appliance comprising at least one cooking chamber and at least one cleaning device for cleaning the cooking chamber , the cleaning device comprising at least one conveying device and at least one distributor device , the conveying device comprising at least one pump assembly having at least one pump device and the distributor device comprising at least one rotatable distributor wheel and at least one motor device , and the cooking chamber having at least one cooking chamber floor and at least one cooking chamber ceiling , at least one outlet being provided in the cooking chamber floor , and in that at least one inlet is provided in the cooking chamber ceiling and the conveying device is suitable and designed for conveying at least one fluid from the outlet to the inlet , and in that the distributor wheel is arranged substantially below the inlet , such that the distributor wheel can be supplied with fluid through the inlet , characterised in that the distributor device of the cleaning device is provided adjacent to the inlet on the cooking chamber ceiling , the distributor wheel being rotatably received on the cooking chamber ceiling by means of the motor device .
A work vehicle capable of traveling on a public road and in a working field, the work vehicle comprising: a vehicle body ; a ROPS frame having a gate-like shape whose lower end is coupled to the vehicle body , wherein the ROPS frame has a top portion to which a satellite positioning module , which includes an antenna for receiving satellite radio waves, and a surrounding image generation unit , configured to generate a surrounding image relative to the vehicle body are attached, a public road traveling determination unit configured to determine based on vehicle body position information whether or not the vehicle body is traveling on the public road, and output a determination result; and a vehicle speed limiter configured to limit a vehicle speed in accordance with the determination result; and a surrounding public road information generator configured to generate, as vehicle body position information regarding a position at which the vehicle body is located, surrounding public road information indicating a positional relationship between the vehicle body and the public road that is recognized within the surrounding image based on the surrounding image. a vehicle body ; a ROPS frame having a gate-like shape whose lower end is coupled to the vehicle body , wherein the ROPS frame has a top portion to which a satellite positioning module , which includes an antenna for receiving satellite radio waves, and a surrounding image generation unit , configured to generate a surrounding image relative to the vehicle body are attached, a public road traveling determination unit configured to determine based on vehicle body position information whether or not the vehicle body is traveling on the public road, and output a determination result; and a vehicle speed limiter configured to limit a vehicle speed in accordance with the determination result; and a surrounding public road information generator configured to generate, as vehicle body position information regarding a position at which the vehicle body is located, surrounding public road information indicating a positional relationship between the vehicle body and the public road that is recognized within the surrounding image based on the surrounding image.