mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling an electrical device with a sensor unit (100, 101, 102), wherein the device is operated in a first potential movement mode and/or in a second potential movement mode, wherein a sensor signal is generated in the sensor unit (100, 101, 102), wherein, on the basis of a request to provide a first item of information relating to the presence of the first potential movement mode and/or a second item of information relating to the presence of the second potential movement mode, the first item of information and/or the second item of information is/are calculated on the basis of the sensor signal, characterized in that a first event corresponding to the first potential movement mode and/or a second event corresponding to the second potential movement mode is/are determined in a processing unit on the basis of the sensor signal, wherein the sensor signal is filtered and/or stored, wherein a first frequency bandwidth is stored in a first storage unit and a second frequency bandwidth is stored in a second storage unit, wherein the first storage unit is accessed in order to determine the first event and/or the second storage unit is accessed in order to determine the second event.
A method for producing an L-amino acid, which comprises culturing in a medium a microorganism, which has an ability to produce an L-amino acid selected from the group consisting of L-lysine, L-threonine, L-tryptophan, L-phenylalanine, L-valine, L-leucine, L-isoleucine and L-serine and has been modified so that an activity of pyruvate synthase or pyruvate:NADP + oxidoreductase is increased, to produce and accumulate said L-amino acid in the medium or cells, and collecting said L-amino acid from the medium or the cells, wherein the medium contains ethanol or an aliphatic acid as a carbon source, and wherein the activity of pyruvate synthase or pyruvate:NADP + oxidoreductase is increased by increasing copy number of a gene encoding pyruvate synthase or pyruvate:NADP + oxidoreductase, or by modifying an expression control sequence of the gene.
Combination of an indexable cutting insert holder and an indexable cutting insert for grooving or parting, wherein the indexable cutting insert holder has an insert seat with a supporting element in the form of a positioning pin with a cylindrical surface, wherein the indexable cutting insert is mounted in the insert seat, wherein the indexable cutting insert consists of a plate-shaped base body with two parallel main surfaces (2a, b) and a peripheral surface (16 a-d) joining the two main surfaces and consisting of several segments that are angled with respect to one another, wherein four cutting edges (4 a-d) extending obliquely to the main surfaces are provided on the peripheral surface (16 a-d) at the transition between segments of the peripheral surface that are angled with respect to one another and wherein in top view onto the main surfaces the position of the cutting edges defines a quadrilateral, wherein the quadrilateral has two short and two long sides (13, 14) and the cutting edges (4 a-d) are oriented in opposite directions on adjacent corners of the quadrilateral in each case in the peripheral direction and in each case are oriented in the same direction on diagonally opposite corners of the quadrilateral, wherein the segments of the peripheral surface extending along the short sides have a positioning notch (5 a, b), which receives the positioning pin, characterized in that the positioning notch (5a,b) has a concave, curved profile with a varying radius, which has a smaller value in the centre of the positioning notch (5a,b) than outside the centre, where the radius becomes larger, with the result that the cylindrical surface of the positioning pin, which has a radius between the smaller radius in the centre of the positioning notch and the larger radius outside the centre thereof, essentially abuts on the surface of the positioning notch along two linear areas.
A plasma jet ignition plug comprising: a center electrode; an insulator having an axial hole extending in a direction of an axis, and holding the center electrode which is disposed within the axial hole such that a front end surface of the center electrode exists within the axial hole; a metallic shell holding the insulator; and a ground electrode joined to the metallic shell, disposed frontward of the insulator, and adapted to generate spark discharge in cooperation with the center electrode; wherein at least a front end portion of the center electrode, which end portion includes the front end surface, contains an oxide of at least one of rare earth elements in a total amount of 0.5% by mass to 10% by mass inclusive and W in an amount of 90% by mass or greater, or contains Ir in an amount of 0.3% by mass to 3% by mass inclusive and W in an amount of 97% by mass or greater. a center electrode; an insulator having an axial hole extending in a direction of an axis, and holding the center electrode which is disposed within the axial hole such that a front end surface of the center electrode exists within the axial hole; a metallic shell holding the insulator; and a ground electrode joined to the metallic shell, disposed frontward of the insulator, and adapted to generate spark discharge in cooperation with the center electrode; wherein at least a front end portion of the center electrode, which end portion includes the front end surface, contains an oxide of at least one of rare earth elements in a total amount of 0.5% by mass to 10% by mass inclusive and W in an amount of 90% by mass or greater, or contains Ir in an amount of 0.3% by mass to 3% by mass inclusive and W in an amount of 97% by mass or greater.
A method for activating helper T cells in vitro, which comprises the step of adding a WT1 peptide to antigen presenting cells and thereby activating the helper T cells, wherein the WT1 peptide has the ability to bind to any MHC class II molecule selected from an HLA-DRB1 ∗ 0403 molecule, an HLA-DRB1 ∗ 0406 molecule, an HLA-DRB1 ∗ 0803 molecule, an HLA-DRB3 ∗ 0202 molecule, an HLA-DRB4 ∗ 0101 molecule, an HLA-DPB1 ∗ 0201 molecule and an HLA-DPB1 ∗ 0301 molecule, wherein the WT1 peptide is a peptide consisting of the amino acid sequence: Lys Arg Tyr Phe Lys Leu Ser His Leu Gln Met His Ser Arg Lys His (SEQ ID NO:2) and wherein the antigen presenting cells are from a subject selected from an HLA-DRB1 ∗ 0403-positive subject, an HLA-DRB1 ∗ 0406-positive subject, an HLA-DRB1 ∗ 0803-positive subject, an HLA-DRB3 ∗ 0202-positive subject, an HLA-DRB4 ∗ 0101-positive subject, an HLA-DPB1 ∗ 0201-positive subject and an HLA-DPB1 ∗ 0301-positive subject.
A process for producing a low endotoxin alkali chitosan, chitin or a derivative thereof having an endotoxin concentration of less than 50EU/g, the process comprising the steps of: (a) contacting chitosan, chitin, a chitosan derivative or a chitin derivative with an alkali solution having a concentration of from 0.01M to 0.2M to form a mixture; and (b) leaving the mixture for a period of less than 1 hour; and then (c) drying the mixture. (a) contacting chitosan, chitin, a chitosan derivative or a chitin derivative with an alkali solution having a concentration of from 0.01M to 0.2M to form a mixture; and (b) leaving the mixture for a period of less than 1 hour; and then (c) drying the mixture.
An implantable prosthetic device for helping to seal native heart valves and prevent or reduce regurgitation therethrough comprising: a coaption portion; an anchor portion comprising a plurality of paddles (120, 122), the paddles having an outer and inner portion and being extendable from a folded closed position to an open position; and a clasp (130, 400, 600) attached to each of the plurality of paddles (120, 122), the clasp comprising: a fixed arm (132, 410) attached to the inner portion of the paddle; a moveable arm (134, 430, 530) having a barbed portion (136, 440) for engaging and pinching native leaflets between the movable arm and the fixed arm; and a hinge portion (138, 520) ingeably connecting the fixed arm to the moveable arm; wherein the fixed arm remains stationary relative to the inner portion of the paddle when the movable arm is opened to open the clasp and expose the barbed portion; wherein the moveable arm is substantially parallel to the fixed arm when the clasp is in a closed position. a coaption portion; an anchor portion comprising a plurality of paddles (120, 122), the paddles having an outer and inner portion and being extendable from a folded closed position to an open position; and a clasp (130, 400, 600) attached to each of the plurality of paddles (120, 122), the clasp comprising: a fixed arm (132, 410) attached to the inner portion of the paddle; a moveable arm (134, 430, 530) having a barbed portion (136, 440) for engaging and pinching native leaflets between the movable arm and the fixed arm; and a hinge portion (138, 520) ingeably connecting the fixed arm to the moveable arm; wherein the fixed arm remains stationary relative to the inner portion of the paddle when the movable arm is opened to open the clasp and expose the barbed portion; wherein the moveable arm is substantially parallel to the fixed arm when the clasp is in a closed position.
A user equipment, UE, for discontinuous reception, DRX, operation having a Downlink, DL, DRX Hybrid Automatic Repeat request, HARQ, Round-Trip Time Timer, drx-HARQ-RTT-TimerDL, the UE comprising: one or more non-transitory computer-readable media having computer-executable instructions embodied thereon; at least one processor coupled to the one or more non-transitory computer-readable media, and configured to execute the computer-executable instructions to perform the DRX operation, wherein the DRX operation comprises: receiving DL data on a DL bandwidth part, BWP; performing an uplink, UL, transmission carrying a DL HARQ feedback corresponding to the DL data on a UL BWP; and starting the drx-HARQ-RTT-TimerDL in a first symbol of a plurality of symbols of the DL BWP immediately after an end of the UL transmission, wherein: each symbol in the plurality of symbols comprises a scalable time unit having a length that is a variable fraction of a fixed time unit, and the drx-HARQ-RTT-TimerDL starts running from an initial value that is represented in a number of symbols of the DL BWP. one or more non-transitory computer-readable media having computer-executable instructions embodied thereon; at least one processor coupled to the one or more non-transitory computer-readable media, and configured to execute the computer-executable instructions to perform the DRX operation, wherein the DRX operation comprises: receiving DL data on a DL bandwidth part, BWP; performing an uplink, UL, transmission carrying a DL HARQ feedback corresponding to the DL data on a UL BWP; and starting the drx-HARQ-RTT-TimerDL in a first symbol of a plurality of symbols of the DL BWP immediately after an end of the UL transmission, wherein: each symbol in the plurality of symbols comprises a scalable time unit having a length that is a variable fraction of a fixed time unit, and the drx-HARQ-RTT-TimerDL starts running from an initial value that is represented in a number of symbols of the DL BWP. receiving DL data on a DL bandwidth part, BWP; performing an uplink, UL, transmission carrying a DL HARQ feedback corresponding to the DL data on a UL BWP; and starting the drx-HARQ-RTT-TimerDL in a first symbol of a plurality of symbols of the DL BWP immediately after an end of the UL transmission, wherein: each symbol in the plurality of symbols comprises a scalable time unit having a length that is a variable fraction of a fixed time unit, and the drx-HARQ-RTT-TimerDL starts running from an initial value that is represented in a number of symbols of the DL BWP. each symbol in the plurality of symbols comprises a scalable time unit having a length that is a variable fraction of a fixed time unit, and the drx-HARQ-RTT-TimerDL starts running from an initial value that is represented in a number of symbols of the DL BWP.
Method for determining a future rotational speed (n 0) of a rotating driveshaft of an internal combustion engine while the internal combustion engine runs down after being turned off, the future rotational speed (no) being calculated from a profile (n v) of measured rotational speeds (n s, n p), measured, instantaneous rotational speeds (n s, n p) being evaluated at various rotational positions (φ) of the driveshaft, and the measured profile (n v) exhibiting an oscillation and the future rotational speed (n 0) being derived only from rotational speeds (n s, n p) which extend jointly over a time segment of the profile (n v), the time segment corresponding substantially accurately to a period of the oscillation, a compensating straight line (n M) with a slope (m) of the profile (n v) being determined from the measured rotational speeds (n s, n p) via an averaging method, and the future rotational speed (n 0) being derived at least from a linear portion (n A1) with the slope (m) and, specifically, with an interpolation point for the linear portion (n A1), which is a point on the compensating straight line (n M) corresponding to an instant (tS) of a most recent measured rotational speed (n s) which is taken into account in determining the future rotational speed (n 0), characterized in that the future rotational speed (n 0) is derived at least from an oscillating portion, the oscillating portion being derived from an oscillation characteristic curve and from an amplitude characteristic dependent on rotational speed, the oscillating portion corresponding to an amplitude correction stage being derived from the amplitude characteristic, the amplitude correction stage being derived by determining a maximum amplitude of the oscillation of the profile of the measured rotational speeds.
A vehicle comprising an audio system, the audio system comprising: a first loudspeaker positioned in a driver door of the vehicle to transmit a first audio signal to a front passenger of the vehicle; a second loudspeaker positioned in a front passenger door of the vehicle to transmit a second audio signal to a driver of the vehicle; and an audio controller configured to: provide a first voltage to the first loudspeaker that coincides with a first overall excursion capacity of the first loudspeaker over a predetermined frequency range while transmitting the first audio signal to the front passenger; and provide a second voltage to the second loudspeaker that coincides with a second overall excursion capacity of the second loudspeaker over the predetermined a frequency range while transmitting the second audio signal to the driver, wherein the first overall excursion capacity is lower than the second overall excursion capacity; wherein the second voltage is greater than the first voltage over the predetermined frequency range such that the second overall excursion of the second loudspeaker is greater than the first overall excursion of the first loudspeaker over the predetermined frequency range. a first loudspeaker positioned in a driver door of the vehicle to transmit a first audio signal to a front passenger of the vehicle; a second loudspeaker positioned in a front passenger door of the vehicle to transmit a second audio signal to a driver of the vehicle; and an audio controller configured to: provide a first voltage to the first loudspeaker that coincides with a first overall excursion capacity of the first loudspeaker over a predetermined frequency range while transmitting the first audio signal to the front passenger; and provide a second voltage to the second loudspeaker that coincides with a second overall excursion capacity of the second loudspeaker over the predetermined a frequency range while transmitting the second audio signal to the driver, provide a first voltage to the first loudspeaker that coincides with a first overall excursion capacity of the first loudspeaker over a predetermined frequency range while transmitting the first audio signal to the front passenger; and provide a second voltage to the second loudspeaker that coincides with a second overall excursion capacity of the second loudspeaker over the predetermined a frequency range while transmitting the second audio signal to the driver, wherein the first overall excursion capacity is lower than the second overall excursion capacity; wherein the second voltage is greater than the first voltage over the predetermined frequency range such that the second overall excursion of the second loudspeaker is greater than the first overall excursion of the first loudspeaker over the predetermined frequency range.
An ice making machine, comprising: an evaporator; a die for extruding ice formed in a cooled drum of the evaporator, said die being associated to the drum without screws by means of shape fitting; a flange at an end of the drum; a substantially ring-like member cooperating with the drum in order to secure the die thereto, wherein the ring-like member is removably fastened to the end of the drum and wherein the die comprises a plurality of teeth on which a projection is provided which cooperates with the drum in order to secure the die thereto, characterized in that the projections protrude from corresponding teeth at an intermediate position of a longitudinal extension of said teeth so that the projections are located inside the drum, and said projections engage into corresponding seats arranged on the ring-like member thereby fastening the die, whereby the radial projections act as an abutment so that the die rests against a shoulder which is radially internal with respect to the flange of the evaporator drum.
Method for operating a stepper motor with a specified target coil current course which is composed of a plurality of temporally successive instantaneous target coil current values which are each generated by chopper phases in the motor coils, with a first operating mode in which in each chopper phase a voltage is applied to at least one of the coils, the amplitude and polarity of the applied voltage being adjusted to generate an instantaneous target coil current value, and with a second operating mode in which by activating and timing of coil current phases (ON, FD, SD) a momentary target coil current value is impressed into the coils, wherein the first operating mode is activated in a predetermined low rotational speed range of the motor and the second operating mode is activated in a predetermined higher rotational speed range of the motor, and wherein, for regulating the coil current during rotation of the motor in the first operating mode, a current threshold is fixed during each half-wave of the target coil current such that it is to be reached and exceeded only during a specified part of the duration of the half-wave, wherein in each half-wave the number of those chopper phases in which the target coil current reaches and exceeds the current threshold is compared to the number of those chopper phases in which the measured coil current actually reaches and exceeds the current threshold, and wherein the difference between these numbers is fed as a regulation deviation to a regulator for regulating the coil current in the following half-wave.
A concentrated pesticide composition, comprising: a liquid medium, one or more pesticide compounds, at least one surfactant having a solubility in water of less than 10 percent by weight, in an amount that is effective, when the concentrated pesticide composition is diluted and spray applied, to provide improved drift control compared to an analogous diluted and spray applied pesticide composition that lacks the at least one surfactant, wherein the at least one surfactant comprises a nonionic surfactant selected from alkoxylated alcohol surfactants, alkoxylated glycol alkyl ether surfactants, alkoxylated glycol alkaryl ether surfactants, glycoside surfactants, alkoxylated phenol surfactants, alkoxylated alkyl phenol surfactants, alkoxykated alkylaryl phenol surfactants, alkanolamide surfactants, amine oxide surfactants, and poly(oxyethylene-oxypropylene) block copolymer surfactants; and at least one hydrotrope selected from sodium xylene sulfonate and sodium toluene sulfonate. a liquid medium, one or more pesticide compounds, at least one surfactant having a solubility in water of less than 10 percent by weight, in an amount that is effective, when the concentrated pesticide composition is diluted and spray applied, to provide improved drift control compared to an analogous diluted and spray applied pesticide composition that lacks the at least one surfactant, wherein the at least one surfactant comprises a nonionic surfactant selected from alkoxylated alcohol surfactants, alkoxylated glycol alkyl ether surfactants, alkoxylated glycol alkaryl ether surfactants, glycoside surfactants, alkoxylated phenol surfactants, alkoxylated alkyl phenol surfactants, alkoxykated alkylaryl phenol surfactants, alkanolamide surfactants, amine oxide surfactants, and poly(oxyethylene-oxypropylene) block copolymer surfactants; and at least one hydrotrope selected from sodium xylene sulfonate and sodium toluene sulfonate.
Straddle-type vehicle, in particular a motorcycle, comprising: a body frame (1 a); an engine installed on the body frame (1 a); an intake system configured to supply air to the engine and including an air cleaner disposed above the engine and connected to a cylinder head of the engine; a fuel tank disposed in the rear of the intake system and above the engine; and a parts cooling system configured to diverge air (a, b, c) from the intake system of the engine, and use the diverged air (a, b, c) to cool in-vehicle parts disposed in the vicinity of the engine, and characterized in that the in-vehicle parts include electrical parts (43 - 45) disposed above the air cleaner with a gap defined between the electrical parts (43 - 45) and the air cleaner, and a gap is provided between each of the electrical parts (43 - 45) and a top cover covering the electrical parts (43 - 45) and the air cleaner from above, with an air discharge port being formed additionally on the top cover, such that diverged air is configured to flow rearward through the gap defined between the electrical parts (43 - 45) and the air cleaner to hit the fuel tank, flow upward through a gap between the fuel tank and the electrical parts (43 - 45), and flow forward through the gap provided between each of the electrical parts (43 - 45) and the top cover to be discharged from the air discharge port. a body frame (1 a); an engine installed on the body frame (1 a); an intake system configured to supply air to the engine and including an air cleaner disposed above the engine and connected to a cylinder head of the engine; a fuel tank disposed in the rear of the intake system and above the engine; and a parts cooling system configured to diverge air (a, b, c) from the intake system of the engine, and use the diverged air (a, b, c) to cool in-vehicle parts disposed in the vicinity of the engine, and characterized in that the in-vehicle parts include electrical parts (43 - 45) disposed above the air cleaner with a gap defined between the electrical parts (43 - 45) and the air cleaner, and a gap is provided between each of the electrical parts (43 - 45) and a top cover covering the electrical parts (43 - 45) and the air cleaner from above, with an air discharge port being formed additionally on the top cover, such that diverged air is configured to flow rearward through the gap defined between the electrical parts (43 - 45) and the air cleaner to hit the fuel tank, flow upward through a gap between the fuel tank and the electrical parts (43 - 45), and flow forward through the gap provided between each of the electrical parts (43 - 45) and the top cover to be discharged from the air discharge port.