mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit, comprising: a plurality of processor cores (111, 112, 113, 114) that share a common last-level cache, the plurality of processor cores each including a non-coherent memory order buffer (111a, 112a, 113a, 114a), a first processor core being a one of the plurality of processor cores; and, a shared memory order buffer directly coupled to each of plurality of processor cores such that coherent store transactions sent by the plurality of processor cores are directly received at the shared memory order buffer without being processed by at least one lower-level cache (111b, 112b, 113b, 114b); the common last-level cache to receive store transactions sent by the non-coherent memory order buffers of the plurality of processor cores, the common last-level cache to also receive store transactions, from the shared memory order buffer, that correspond to the coherent store transactions sent by the plurality of processor cores. a plurality of processor cores (111, 112, 113, 114) that share a common last-level cache, the plurality of processor cores each including a non-coherent memory order buffer (111a, 112a, 113a, 114a), a first processor core being a one of the plurality of processor cores; and, a shared memory order buffer directly coupled to each of plurality of processor cores such that coherent store transactions sent by the plurality of processor cores are directly received at the shared memory order buffer without being processed by at least one lower-level cache (111b, 112b, 113b, 114b); the common last-level cache to receive store transactions sent by the non-coherent memory order buffers of the plurality of processor cores, the common last-level cache to also receive store transactions, from the shared memory order buffer, that correspond to the coherent store transactions sent by the plurality of processor cores.
A compound having Formula I: wherein R 1, and R 2 each independently represent mono to the maximum possible number of substitutions or no substitutions; wherein each R 1 and R 2 is independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acid, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein R 3 is aryl or substituted aryl; wherein R 3 can be further substituted by a group selected from the group consisting of deuterium, alkyl, cycloalkyl, heteroalkyl, arylalkyl, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, nitrile, isonitrile, and combinations thereof. wherein R 1, and R 2 each independently represent mono to the maximum possible number of substitutions or no substitutions; wherein each R 1 and R 2 is independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acid, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein R 3 is aryl or substituted aryl; wherein R 3 can be further substituted by a group selected from the group consisting of deuterium, alkyl, cycloalkyl, heteroalkyl, arylalkyl, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, nitrile, isonitrile, and combinations thereof.
A method for detecting leaks on a non-rigid test specimen, comprising the steps of: introducing the test specimen into a film chamber in the form of a test chamber having flexible walls, which changes its form in dependence of the difference between the pressure inside the film chamber and the ambient pressure, forging the flexible walls to the test specimen by lowering the pressure inside the film chamber outside the test specimen, observing the film of the film chamber, detecting a spatial change in the film by a position change of the film or a volume change of the film chamber, and detecting a leak in the test specimen on the basis of a spatial change in the film (14, 15) of the film chamber. introducing the test specimen into a film chamber in the form of a test chamber having flexible walls, which changes its form in dependence of the difference between the pressure inside the film chamber and the ambient pressure, forging the flexible walls to the test specimen by lowering the pressure inside the film chamber outside the test specimen, observing the film of the film chamber, detecting a spatial change in the film by a position change of the film or a volume change of the film chamber, and detecting a leak in the test specimen on the basis of a spatial change in the film (14, 15) of the film chamber.
A safety device for limiting the pressure in a brewing container for beverages, which has at least one cup-shaped configuration inwards, wherein at least one hole is contained in the bottom of the cup-shaped configuration, and wherein in the cup-shaped configuration at least one (19, 103, 115, 119) pressure regulating mechanism is provided, characterized in that the cup-shaped configuration is closed with a closure (19, 103, 115, 119), and wherein one or more steam discharge ducts or gaps are arranged between the closure (19, 103, 115, 119) and the brewing container.
Assembly of a pylon with an aircraft wing, the pylon comprising a primary structure extending from front to rear along a longitudinal axis and having the form of a box with a rear face and an upper spar forming an upper face of the box, a longitudinal mid-plane separating the primary structure into two left-right parts, the assembly comprising a front fastening system for fastening the pylon to the wing that is arranged on the upper face of the box halfway along the length of the primary structure, a rear fastening system for fastening the pylon to the wing that is arranged at the rear of the primary structure, and an intermediate fastening system for fastening the pylon to the wing that is arranged on the upper face of the box between the front and rear fastening systems, the rear fastening system comprising a shoe (42, 142) fastened below the wing and a fitting fastened to the rear face of the pylon, the shoe (42, 142) being connected, via at least one articulated link (40a, 140a), to the fitting via an articulation whose articulation pin (45, 145), termed horizontal articulation pin, is perpendicular to the longitudinal mid-plane, the shoe (42, 142) being connected to the upper spar via a force take-up system, characterized in that the force take-up system comprises an extension prolonging the upper spar of the pylon towards the rear and a spreader, the shoe being articulated, by way of the spreader, to the extension via an articulation whose articulation pin, termed vertical articulation pin, is parallel to the longitudinal mid-plane.
A once daily pharmaceutical dosage form, wherein said dosage form is a sustained release dosage form comprising a core containing tofacitinib, or a pharmaceutically acceptable salt thereof, and a semi-permeable membrane coating wherein said coating comprises a water-insoluble polymer which comprises a cellulose derivative, said dosage form being an extrudable core system tablet or capsule delivering tofacitinib primarily by osmotic pressure wherein the tofacitinib-containing composition includes an amount of viscosifying polymers ranging from 2 weight % to 20 weight % and an amount of osmotically active agents ranging from 60 weight % to 85 weight % of the tofacitinib-containing composition and the semi-permeable membrane coating contains one or more openings, and when added to a test medium comprising 900 ml of 0.05M pH 6.8 potassium phosphate buffer at 37° C in a standard USP rotating paddle apparatus and the paddles are rotated at 50 rpm, dissolves not more than 30% of the tofacitinib in 1 hour, and not less than 35% and not more than 75% of the tofacitinib in 2.5 hours and not less than 75% of the tofacitinib in 5 hours.
A test system for testing a computer forming a test object of a computer system in a test network, wherein the test network comprises a test server for testing computers of the computer system, wherein the test system comprises the following features: a simulation server configured to emulate the test object; and a control entity, in particular a control server or an application software on a control computer, for controlling the simulation server, wherein the control entity is configured to instruct the simulation server to generate a virtual test object for emulating the test object, wherein the control entity is further configured to instruct the test server to test the virtual test object generated by the simulation server instead of the computer, wherein the test system is configured to receive data of the test object and to emulate the test object on the simulation server based on the received data, wherein the test system is configured to receive the data of the test object by a direct file transfer between the test object and the test system, wherein the control entity is configured to test at regular intervals if data of a new test object are available on the simulation server and, in presence of data to instruct the simulation server to generate a virtual test object for emulating the new test object and to instruct the test server to test the virtual test object. a simulation server configured to emulate the test object; and a control entity, in particular a control server or an application software on a control computer, for controlling the simulation server, wherein the control entity is configured to instruct the simulation server to generate a virtual test object for emulating the test object, wherein the control entity is further configured to instruct the test server to test the virtual test object generated by the simulation server instead of the computer, wherein the test system is configured to receive data of the test object and to emulate the test object on the simulation server based on the received data, wherein the test system is configured to receive the data of the test object by a direct file transfer between the test object and the test system, wherein the control entity is configured to test at regular intervals if data of a new test object are available on the simulation server and, in presence of data to instruct the simulation server to generate a virtual test object for emulating the new test object and to instruct the test server to test the virtual test object.
A cutting tool insert comprising a cemented carbide body and a coating, characterized in that - the cemented carbide body comprises WC, 4.0-7.0 wt-% Co, preferably 4.5-6.0 wt-% Co, 0.25-0.50 wt-% Cr, preferably 0.30-0.45 wt-% Cr, and an S-value of 0.68-0.88, preferably 0.7-0.8, a coercivity, Hc, of 28-38 kA/m, preferably 30-34 kA/m, adjacent - a coating between 11 and 24 μm thick deposited by CVD wherein at least the uppermost layer is a 7-12 μm, preferably 8-11 μm, thick α-Al 2 O 3 layer textured in the <006>-direction with a texture coefficient TC >2, preferably >4 and <8, simultaneously, TC, TC, TC, TC, TC and TC all <1, and TC being the second highest texture coefficient, the texture coefficient TC being defined by: TC hkl = I hkl I 0 hkl 1 n ∑ n = 1 n I hkl I 0 hkl − 1 where I = measured intensity of the reflection. I 0 = standard intensity according to JCPDS card no 46-1212. n = number of reflections used in the calculation. reflections used are:,,,,,, and. - the cemented carbide body comprises WC, 4.0-7.0 wt-% Co, preferably 4.5-6.0 wt-% Co, 0.25-0.50 wt-% Cr, preferably 0.30-0.45 wt-% Cr, and an S-value of 0.68-0.88, preferably 0.7-0.8, a coercivity, Hc, of 28-38 kA/m, preferably 30-34 kA/m, adjacent - a coating between 11 and 24 μm thick deposited by CVD wherein at least the uppermost layer is a 7-12 μm, preferably 8-11 μm, thick α-Al 2 O 3 layer textured in the <006>-direction with a texture coefficient TC >2, preferably >4 and <8, simultaneously, TC, TC, TC, TC, TC and TC all <1, and TC being the second highest texture coefficient, the texture coefficient TC being defined by: TC hkl = I hkl I 0 hkl 1 n ∑ n = 1 n I hkl I 0 hkl − 1 where I = measured intensity of the reflection. I 0 = standard intensity according to JCPDS card no 46-1212. n = number of reflections used in the calculation. reflections used are:,,,,,, and. I = measured intensity of the reflection. I 0 = standard intensity according to JCPDS card no 46-1212. n = number of reflections used in the calculation. reflections used are:,,,,,, and.
A vehicle headlamp (73, 201, 221) comprising: a daytime running lamp (80, 204, 227) or a clearance lamp that forms a light emission area emitting light in white by using multiple white LED light sources (81, 214, 244a-c); characterized in that the vehicle headlamp (73, 201, 221) further comprises a laser light source (215, 224) that is able to emit laser light in color other than white, wherein in the vehicle headlamp (73, 201, 221) in which the laser light is emitted forward from an emission end (84, 215a, 243a), the emission end (84, 215a, 243a) is disposed within the light emission area in a front view of the vehicle headlamp (73, 201, 221). a daytime running lamp (80, 204, 227) or a clearance lamp that forms a light emission area emitting light in white by using multiple white LED light sources (81, 214, 244a-c); characterized in that the vehicle headlamp (73, 201, 221) further comprises a laser light source (215, 224) that is able to emit laser light in color other than white, wherein in the vehicle headlamp (73, 201, 221) in which the laser light is emitted forward from an emission end (84, 215a, 243a), the emission end (84, 215a, 243a) is disposed within the light emission area in a front view of the vehicle headlamp (73, 201, 221).
A Lissajous Frequency Modulated gyroscope, (310, 410) comprising: a mechanical resonator having a first mode of vibration along a first axis having an associated first natural frequency, and a second mode of vibration along a second axis perpendicular to the first axis having an associated second natural frequency, wherein angular rate of motion input couples energy between said first mode of vibration and said second mode of vibration; sensors and actuators (14, 16) for each of the first mode and the second mode for transduction of an electrical signal into a mechanical vibration and transduction of a mechanical vibration into an electrical signal; sustaining circuitry connected to the sensors and actuators (14, 16) to maintain substantially constant, non-zero velocity amplitude vibrations in the first mode at a first oscillation frequency and the second mode at a second oscillation frequency; and output circuitry to infer an angular rate of motion from measurements of the instantaneous oscillation frequencies of both said first mode and said second mode; wherein said mechanical resonator has a non-zero static frequency difference between the vibration of said first and second modes of said mechanical resonator and a time-varying phase difference between the vibration of said first and second modes of said mechanical resonator; wherein said output circuitry first measures the instantaneous oscillation frequencies using FM demodulation and then use AM demodulation of the measured instantaneous oscillation frequencies to infer the angular rate of motion. a mechanical resonator having a first mode of vibration along a first axis having an associated first natural frequency, and a second mode of vibration along a second axis perpendicular to the first axis having an associated second natural frequency, wherein angular rate of motion input couples energy between said first mode of vibration and said second mode of vibration; sensors and actuators (14, 16) for each of the first mode and the second mode for transduction of an electrical signal into a mechanical vibration and transduction of a mechanical vibration into an electrical signal; sustaining circuitry connected to the sensors and actuators (14, 16) to maintain substantially constant, non-zero velocity amplitude vibrations in the first mode at a first oscillation frequency and the second mode at a second oscillation frequency; and output circuitry to infer an angular rate of motion from measurements of the instantaneous oscillation frequencies of both said first mode and said second mode; wherein said mechanical resonator has a non-zero static frequency difference between the vibration of said first and second modes of said mechanical resonator and a time-varying phase difference between the vibration of said first and second modes of said mechanical resonator; wherein said output circuitry first measures the instantaneous oscillation frequencies using FM demodulation and then use AM demodulation of the measured instantaneous oscillation frequencies to infer the angular rate of motion.
A body structural support for a motor vehicle which is formed of fibre-reinforced plastic and has a hollow profile with failure sections (3, 5, 7) which are formed in such a way that they fail in the event of a load due to a collision of the motor vehicle in order to decrease collision energy, wherein the failure sections (3, 5, 7) have different diameters (d1, d2) and wherein the larger the diameter of the respective failure section (3, 5, 7), the thinner a wall thickness (w1, w2) of the respective section of the body structural support, characterized in that a number of fibres in the longitudinal direction of the body structural support is essentially constant in the failure sections (3, 5, 6), wherein the failure sections with a low wall thickness and a larger diameter have a lower number of fibres per peripheral length unit than the failure sections with a smaller diameter and greater wall thickness.
Oxygen separation device, comprising a gas inlet (29, 31) at a primary side for guiding a flow of oxygen comprising gas into the oxygen separation device (12, 14) and having a gas outlet (33, 35) at a secondary side for guiding a flow of oxygen enriched gas out of the oxygen separation device (12, 14), at least one oxygen separation area (20, 22) with an oxygen separation sorbent (16, 18) being capable of separating oxygen from an oxygen comprising gas by sorbing at least one component of the oxygen comprising gas apart from oxygen and being contaminatable by a contaminant, and a decontamination area (21, 23) with a decontamination material (17, 19) for decontaminating the oxygen comprising gas from at least one contaminant, wherein the oxygen separation area (20, 22) and the decontamination area (21, 23) are fluidly connected by a spacer (76, 78) comprising at least one diffusion reducing channel (80, 82), wherein the spacer (76, 78) has a value of diffusion reduction r R of r R > 1, wherein the value of diffusion reduction r R is Z * S, wherein Z is the characteristic contaminated length and wherein S is the spacer characteristic parameter, wherein the characteristic contaminated length Z is defined as Z = (f W * A z) / L z, with f W being the separation sorbent diffusion correction factor having a value of 0.654, with A z being the cross sectional area which is filled with oxygen separation sorbent inside the oxygen separation device (12, 14) in [cm 2], and with L z being the distance of the diffusion reducing channel (80, 82) from the gas inlet of the oxygen separation device (12, 14) at its primary side in [cm], and wherein the spacer characteristic parameter S is defined as S = L d / (N * A d), with A d being the cross sectional area of one duct in the spacer (76, 78) in [cm 2], with L d being the length of the diffusion reducing channel with A d through the separator in [cm], and with N being the number of ducts of the spacer, characterized in that the diffusion reducing channel (80, 82) at least partly comprises a curved structure and/or an angled structure, and wherein the curved structure and/or the angled structure is formed as a spiral or wherein two curved structures are provided each proceeding in a plane perpendicular to the main direction of the spacer (76, 78) and being fluidly connected to each other, wherein a first curved structure is connected to the oxygen separation area (20, 22) and a further curved structure is connected to the decontamination area (21, 23) and/or wherein two angled structures are provided each proceeding in a plane perpendicular to the main direction of the spacer (76, 78) and being fluidly connected to each other, wherein a first angled structure is connected to the oxygen separation area (20, 22) and a further angled structure is connected to the decontamination area (21, 23).
An aqueous inkjet ink composition having a dynamic viscosity of less than or equal to 5 mPa • sec (5 centipoise) at 25°C, and consisting essentially of: (a) one or more polymer-dispersed pigment colorants in a total amount of at least 0.9 weight % and up to and including 6 weight %, based on the total weight of the aqueous inkjet ink composition; (b) a composition consisting of one or more compounds represented by the following Structure: HO-CH 2 -CH 2 -R wherein R is a substituted or unsubstituted phenyl group or a substituted or unsubstituted phenoxy group, in a total amount of at least 0.5 weight % and up to and including 2 weight %, based on the total weight of the aqueous inkjet ink composition; (c) one or more compounds selected from water-soluble humectants, co-solvents, and both water-soluble humectants and co-solvents, in an amount of less than or equal to 20 weight %, based on the total weight of the aqueous inkjet composition, wherein each of the one or more polymer-dispersed pigment colorants has a 50 th percentile particle diameter of less than 70 nm and a 95 th percentile particle diameter of less than 150 nm, all particle diameters being measured using a dynamic light scattering particle size analyzer. (a) one or more polymer-dispersed pigment colorants in a total amount of at least 0.9 weight % and up to and including 6 weight %, based on the total weight of the aqueous inkjet ink composition; (b) a composition consisting of one or more compounds represented by the following Structure: HO-CH 2 -CH 2 -R wherein R is a substituted or unsubstituted phenyl group or a substituted or unsubstituted phenoxy group, in a total amount of at least 0.5 weight % and up to and including 2 weight %, based on the total weight of the aqueous inkjet ink composition; (c) one or more compounds selected from water-soluble humectants, co-solvents, and both water-soluble humectants and co-solvents, in an amount of less than or equal to 20 weight %, based on the total weight of the aqueous inkjet composition, wherein each of the one or more polymer-dispersed pigment colorants has a 50 th percentile particle diameter of less than 70 nm and a 95 th percentile particle diameter of less than 150 nm, all particle diameters being measured using a dynamic light scattering particle size analyzer.
Hollow chamber frame for a drawer comprising a frame body, which comprises a cavity for mounting a drawer guiding system, wherein a decorative element covering a portion of the surface of the frame body is arranged on the outside of the frame body, which is designed as a separate decorative element to the remaining surface of the frame body, wherein the outside of the frame body is opposite the inside of a fully mounted drawer, characterised in that the frame body consists of a bent sheet metal element and wherein the decorative element does not fully cover the outside of the frame body.
A sprue structure that is used for a low-pressure casting device to communicate a stalk with a cavity of a mold, comprising: a stalk connection part configured to be connected to the stalk; a molten metal reservoir; and a cavity connection part configured to be connected to the cavity, wherein the shape of the molten metal reservoir is such that a perimeter of a cross section perpendicular to a flow direction of the molten metal increases toward the cavity connection part while an area of the cross section remains constant.