mhurhangee/ep-ind-claims huggingface dataset:
Formfitting securing device for a roller, comprising a running wheel, a fork, and a rotation-blocking engagement part, wherein running wheel of the roller may be rotationally blocked with respect to the geometric running wheel axis via the formfitting securing device, wherein the rotation-blocking engagement part is additionally biased into an engagement position by means of a first spring, wherein the first spring exerts a bias on the rotation-blocking engagement part, both in the engaged position and also in a non-engaged position, and a bias is achieved in the non-engaged position by means of a second spring acting on the rotation-blocking engagement part, wherein the effect of the second spring on the rotation-blocking engagement part is releasable by a lever part interacting with the second spring, said lever part can be acted upon by a linearly displaceable tappet, and a movement direction (c) of the rotation-blocking engagement part defines an angle (α) with a movement direction (d) of the tappet, characterized in that the angle (α) is a right angle or an acute angle, that a release of the force of the second spring on the rotation-blocking engagement part is carried out as a result of a rotational displacement of the lever part counter to the acting force of the second spring, wherein the rotation-blocking engagement part is displaced after such a release in the direction of the engagement position, solely as a result of the first spring acting directly on the same, that the rotation-blocking engagement part is provided in combination with a friction locking device, and that the lever part, the rotation-blocking engagement part, and the first and second springs (37, 45) are arranged in a mutual holding part.
An interleukin-9 receptor (IL-9R) agonist for use in the treatment of cancer, wherein the agonist comprises a population of cells that express the cytokine IL-9 and wherein the cancer is melanoma or Lewis lung carcinoma.
A method for purifying an acrylic acid derivative which is a compound of formula: wherein R 1 and R 2 each independently are H, halogen, alkyl, fluoroalkyl, or aryl optionally having one or more substituents, R 3 is H, alkyl, fluoroalkyl, or aryl optionally having one or more substituents, and X is H, halogen, alkyl or fluoroalkyl; comprising the steps of contacting a composition A containing the compound of formula and alcohol of the formula R 4 -OH, wherein R 4 is alkyl, fluoroalkyl or aryl optionally having one or more substituents, with an acid anhydride to convert the alcohol into an ester compound having a boiling point higher than that of the compound of Formula; and separating the compound of formula and the ester compound by distillation. R 1 and R 2 each independently are H, halogen, alkyl, fluoroalkyl, or aryl optionally having one or more substituents, R 3 is H, alkyl, fluoroalkyl, or aryl optionally having one or more substituents, and X is H, halogen, alkyl or fluoroalkyl; contacting a composition A containing the compound of formula and alcohol of the formula R 4 -OH, wherein R 4 is alkyl, fluoroalkyl or aryl optionally having one or more substituents, with an acid anhydride to convert the alcohol into an ester compound having a boiling point higher than that of the compound of Formula; and separating the compound of formula and the ester compound by distillation.
Method for supplying power to at least one mobile part in a wireless communication system having two or more base stations (12, 13, 14, 15, 16, 17, 18), in which at least two of the base stations (12, 13, 14, 15, 16, 17, 18) are used to coherently send electromagnetic waves, in which one or more relative sending phases (Φ 1, Φ 2, Φ 3, Φ 4, Φ 5) between two or more coherently sent electromagnetic waves are adjusted, wherein one or more propagation delay phases between electromagnetic waves that are coherently sent to the mobile part by means of at least two of the base stations (12, 13, 14, 15, 16, 17, 18) is or are sensed and used to select and/or to adjust the one or more sending phases (Φ 1, Φ 2, Φ 3, Φ 4, Φ 5) and/or the mobile part is used to transmit at least one signal that is received by at least two of the base stations (12, 13, 14, 15, 16, 17, 18) and one or more propagation delay phases of the signal received by the at least two base stations (12, 13, 14, 15, 16, 17, 18) is or are sensed and used to select and/or to adjust the one or more sending phases (Φ 1, Φ 2, Φ 3, Φ 4, Φ 5) and/or the position and/or the motion state of the mobile part is sensed, particularly from a reception field strength of signals received from the mobile part, and the sensed position is taken as a basis for selecting and/or changing and/or customizing the one or more sending phases (Φ 1, Φ 2, Φ 3, Φ 4, Φ 5).
A control apparatus for a direct injection type internal combustion engine having injectors and a high-pressure fuel pump, comprising: a first means for calculating a quantity of fuel injected by the injector; a second means for calculating a quantity of fuel discharged from the high-pressure fuel pump; and a third means (513, 516, 517, 503) for calculating a difference between the fuel injection quantity calculated by the first means and the fuel discharge quantity calculated by the second means, wherein a reference value for controlling said injector is obtained on the basis of the difference and a fuel pressure in the upstream of the injector measured at the time of starting fuel injection of the injector, and then the injector is controlled depending on said reference value. a first means for calculating a quantity of fuel injected by the injector; a second means for calculating a quantity of fuel discharged from the high-pressure fuel pump; and a third means (513, 516, 517, 503) for calculating a difference between the fuel injection quantity calculated by the first means and the fuel discharge quantity calculated by the second means, wherein a reference value for controlling said injector is obtained on the basis of the difference and a fuel pressure in the upstream of the injector measured at the time of starting fuel injection of the injector, and then the injector is controlled depending on said reference value.
A modular tower, comprising an arrangement of sections formed by lattice structures, wherein the composition of the body of the tower comprises first sections and second sections (1.1) of greater width, said first sections being connected to said second sections (1.1) by means of first transition sections, characterized in that both of said first and second sections (1 and 1.1) comprise basic structures in the form of angle irons which are connected to one another in opposing positions and form edges of said first and second sections (1 and 1.1), wherein at least one second section (1.1) further comprises, between said basic structures, basic spacing structures, each basic spacing structure connecting two of said basic structures of the same second section (1.1) and also contacting other basic spacing structures connecting other pairs of basic structures of the same second section (1.1), whereas the first transition sections are in turn formed by respective basic structures in the form of angle irons, which are likewise connected to one another in opposing positions.
A system for controlling the vibration of a platform for audio and/or video applications, the platform being suitable for receiving a user and being formed by a fixed lower support and an upper support, the control system comprising: - at least one generator of vibrations to be located inside the platform between the lower support and the upper support and comprising a stator body, at least one vibrating body configured for vibrating the upper support with respect to the lower support, and; - an electric circuit comprising a coil wound around the stator body and designed to receive an audio and/or video signal for generating a magnetic field, by means of the coil, designed to vibrate the at least one vibrating body of the at least one vibration generator as a function of the audio and/or video signal, the vibration corresponding to a direct movement of the upper support, characterized in that the at least one generator of vibrations further comprises at least one magnet associated with the vibrating body, the at least one vibrating body and the at least one magnet being concentric relative to the stator body and positioned in a perimeter position outside the stator body, and in that the control system further comprises guides of ceramic material or another material of comparable hardness, arranged parallel to an axis of extension of the stator body, wherein the at least one vibrating body is slidable on the guides, within at least one seat. - at least one generator of vibrations to be located inside the platform between the lower support and the upper support and comprising a stator body, at least one vibrating body configured for vibrating the upper support with respect to the lower support, and; - an electric circuit comprising a coil wound around the stator body and designed to receive an audio and/or video signal for generating a magnetic field, by means of the coil, designed to vibrate the at least one vibrating body of the at least one vibration generator as a function of the audio and/or video signal, the vibration corresponding to a direct movement of the upper support,
A system comprising: a memory subsystem; one or more execution units (175, 145, 205), wherein a first execution unit of the one or more execution units comprises a pending load counter and a pending store counter for a given thread; wherein the system is configured to: increment the pending load counter responsive to detecting a load instruction of a first thread being executed; decrement the pending load counter responsive to determining data targeted by the load instruction has been retrieved from the memory subsystem; increment the pending store counter responsive to detecting a store instruction of the first thread being executed; decrement the pending store counter responsive to receiving an acknowledgement from the memory subsystem that the store instruction has completed; wherein the first execution unit is configured to execute a first wait instruction to wait until the pending load counter is equal to a first given value before executing a pending store instruction, wherein the first given value is specified in the wait instruction, wherein the first given value specified in the first wait instruction is set to any of a zero or non-zero value; and wherein the first execution unit is configured to execute a second wait instruction to wait until the pending store counter is equal to a second given value before executing a pending load instruction, wherein the second given value is specified in the wait instruction, wherein the second given value specified in the second wait instruction is set to any of a zero or non-zero value. a memory subsystem; one or more execution units (175, 145, 205), wherein a first execution unit of the one or more execution units comprises a pending load counter and a pending store counter for a given thread; wherein the system is configured to: increment the pending load counter responsive to detecting a load instruction of a first thread being executed; decrement the pending load counter responsive to determining data targeted by the load instruction has been retrieved from the memory subsystem; increment the pending store counter responsive to detecting a store instruction of the first thread being executed; decrement the pending store counter responsive to receiving an acknowledgement from the memory subsystem that the store instruction has completed; wherein the first execution unit is configured to execute a first wait instruction to wait until the pending load counter is equal to a first given value before executing a pending store instruction, wherein the first given value is specified in the wait instruction, wherein the first given value specified in the first wait instruction is set to any of a zero or non-zero value; and wherein the first execution unit is configured to execute a second wait instruction to wait until the pending store counter is equal to a second given value before executing a pending load instruction, wherein the second given value is specified in the wait instruction, wherein the second given value specified in the second wait instruction is set to any of a zero or non-zero value.
An aqueous alkanolamine solution for the removal of hydrogen sulfide from gas mixtures comprising (i) an amino compound with the formula: R 1 R 2 NCH 2 CH CH 2 OH wherein R 1 and R 2 independently represent methyl, ethyl, propyl, or isopropyl groups, (ii) an acid having a pKa of 6 or less, wherein the acid is phosphoric acid, boric acid, formic acid, or hydrochloric acid, and (iii) optionally one or more amino compound different than (i). (i) an amino compound with the formula: R 1 R 2 NCH 2 CH CH 2 OH wherein R 1 and R 2 independently represent methyl, ethyl, propyl, or isopropyl groups, (ii) an acid having a pKa of 6 or less, wherein the acid is phosphoric acid, boric acid, formic acid, or hydrochloric acid, and (iii) optionally one or more amino compound different than (i).
A package for containing and dispensing a fluent product, the package comprising: a fitment body having a tailpiece defining a dispensing passage extending along a longitudinal axis; and a collapsible pouch for containing a fluent product to be dispensed, the pouch defined by at least two opposing, flexible, web portions, the fitment body located at a dispensing end of the pouch with the tailpiece being sandwiched between the flexible web portions, the flexible web portions being welded to each other to define a pair of laterally spaced, longitudinally extending edge welds, and further being welded to each other and to the tailpiece to define an end weld bounded by inner and outer weld margins (34 and 36) extending laterally across the pouch at the dispensing end, characterized in that the portion of the end weld extending across the tailpiece has a maximum width W T parallel to the longitudinal axis, and in that the flexible web portions are further welded to each other at a pair of locations, the locations being spaced laterally from each other on opposite sides of the longitudinal axis, wherein each of the locations is spaced laterally from the edge welds, and each of the locations is spaced from the outer weld margin by a distance D L that is greater than the width W T, with D L being measured along a line extending from the location to the outer weld margin normal to the slope of the outer weld margin at the point where the line intersects the outer weld margin. a fitment body having a tailpiece defining a dispensing passage extending along a longitudinal axis; and a collapsible pouch for containing a fluent product to be dispensed, the pouch defined by at least two opposing, flexible, web portions, the fitment body located at a dispensing end of the pouch with the tailpiece being sandwiched between the flexible web portions, the flexible web portions being welded to each other to define a pair of laterally spaced, longitudinally extending edge welds, and further being welded to each other and to the tailpiece to define an end weld bounded by inner and outer weld margins (34 and 36) extending laterally across the pouch at the dispensing end, characterized in that the portion of the end weld extending across the tailpiece has a maximum width W T parallel to the longitudinal axis, and in that the flexible web portions are further welded to each other at a pair of locations, the locations being spaced laterally from each other on opposite sides of the longitudinal axis, wherein each of the locations is spaced laterally from the edge welds, and each of the locations is spaced from the outer weld margin by a distance D L that is greater than the width W T, with D L being measured along a line extending from the location to the outer weld margin normal to the slope of the outer weld margin at the point where the line intersects the outer weld margin.
A vehicle lamp control apparatus in which sub lamps (RCL, LCL) provided on right and left sides of a vehicle are controlled in accordance with running states of the vehicle, the apparatus comprising: a control unit adapted to control the sub lamps (RCL, LCL) in a first condition based on a main information signal including a turn signal or a steering angle signal, and to control the sub lamps (RCL, LCL) in a second condition based on a sub information signal other than the main information signal, wherein a noticeability of the second condition is lower than a noticeability of the first condition, wherein the control unit is adapted to turn on one of the sub lamps (RCL, LCL) existing on a side of a traveling direction of the vehicle determined based on the main information signal in the first condition, and to turn on the other of the sub lamps (RCL, LCL) in the second condition, in a situation that the main information signal and sub information signal are input characterized in that the control unit is adapted to turn on the sub lamps (RCL, LCL) at a first timing in the first condition, and to turn on the sub lamps (RCL, LCL) at a second timing which is more redundant than the first timing in the second condition. a control unit adapted to control the sub lamps (RCL, LCL) in a first condition based on a main information signal including a turn signal or a steering angle signal, and to control the sub lamps (RCL, LCL) in a second condition based on a sub information signal other than the main information signal, wherein a noticeability of the second condition is lower than a noticeability of the first condition, wherein the control unit is adapted to turn on one of the sub lamps (RCL, LCL) existing on a side of a traveling direction of the vehicle determined based on the main information signal in the first condition, and to turn on the other of the sub lamps (RCL, LCL) in the second condition, in a situation that the main information signal and sub information signal are input characterized in that the control unit is adapted to turn on the sub lamps (RCL, LCL) at a first timing in the first condition, and to turn on the sub lamps (RCL, LCL) at a second timing which is more redundant than the first timing in the second condition.
An acoustic transformer (10, 210), comprising: at least one outer boundary wall (40, 240); and a plurality of inner walls (22, 37, 222) including radially-orientated inner walls (22, 222) disposed within the outer boundary wall (40, 240), the outer boundary wall and the plurality of inner walls defining: an input opening (20, 220) divided by the radially-orientated inner walls into a plurality of input sections (24, 224); an annular output opening (29, 229) divided by the radially-orientated inner walls into a plurality of circumferentially-spaced output sections (28, 228), each of the output sections having a curved inner side and a curved outer side; and a plurality of acoustic paths (26, 226), located between the plurality of inner walls and the outer boundary wall (40, 240), each of the paths interconnecting a respective one of the input sections with a respective one of the output sections, each of the paths having an equal path length and an equal expansion rate. at least one outer boundary wall (40, 240); and a plurality of inner walls (22, 37, 222) including radially-orientated inner walls (22, 222) disposed within the outer boundary wall (40, 240), the outer boundary wall and the plurality of inner walls defining: an input opening (20, 220) divided by the radially-orientated inner walls into a plurality of input sections (24, 224); an annular output opening (29, 229) divided by the radially-orientated inner walls into a plurality of circumferentially-spaced output sections (28, 228), each of the output sections having a curved inner side and a curved outer side; and an input opening (20, 220) divided by the radially-orientated inner walls into a plurality of input sections (24, 224); an annular output opening (29, 229) divided by the radially-orientated inner walls into a plurality of circumferentially-spaced output sections (28, 228), each of the output sections having a curved inner side and a curved outer side; and a plurality of acoustic paths (26, 226), located between the plurality of inner walls and the outer boundary wall (40, 240), each of the paths interconnecting a respective one of the input sections with a respective one of the output sections, each of the paths having an equal path length and an equal expansion rate.
Sensor device for detecting at least one pressure in a flow channel of an air conditioner, having: a foot, which defines a contact surface for pressure-tight fit on a wall of the flow channel; a projection extending into the flow channel, a pressure sensor for converting the pressure into an electrical measured variable; wherein the projection forms at least one wing section, having a wing profile, with a straight mean camber line and a symmetrical course, in relation to this, of the profile sides, a profile nose, and a profile end, characterized in that at least one inlet opening is provided in each profile side, and each of the inlet openings is in fluid-tight connection with the pressure sensor via a pressure channel, and in that the profile sides are flat and parallel and extend over at least 60% of the profile depth, and in that the distance of the central point of the at least one inlet opening from the edge of the profile nose corresponds to at least three times the maximum thickness of the wing profile. a foot, which defines a contact surface for pressure-tight fit on a wall of the flow channel; a projection extending into the flow channel, a pressure sensor for converting the pressure into an electrical measured variable; wherein the projection forms at least one wing section, having a wing profile, with a straight mean camber line and a symmetrical course, in relation to this, of the profile sides, a profile nose, and a profile end, characterized in that at least one inlet opening is provided in each profile side, and each of the inlet openings is in fluid-tight connection with the pressure sensor via a pressure channel, and in that the profile sides are flat and parallel and extend over at least 60% of the profile depth, and in that the distance of the central point of the at least one inlet opening from the edge of the profile nose corresponds to at least three times the maximum thickness of the wing profile.
Method for producing a battery with a metallic housing and an electrical insulation layer covering the outside of the housing, comprising the steps of: (i) providing a metallic housing or housing part for a battery; (ii) corona treatment of the outside of the housing or housing part with simultaneous extraction of gases arising and particles; and (iii) applying the electrical insulation layer to the treated outside of the housing or housing part. (i) providing a metallic housing or housing part for a battery; (ii) corona treatment of the outside of the housing or housing part with simultaneous extraction of gases arising and particles; and (iii) applying the electrical insulation layer to the treated outside of the housing or housing part.