mhurhangee/ep-ind-claims huggingface dataset:
A method of making a fermented milk base, comprising: a. fermenting a dairy composition having a protein content of 5% to 8% by weight, the protein content being 40% to 80% whey protein of the total protein content by weight, to a pH of less than 5 using lactic acid bacteria to form a fermented dairy composition that contains less than 5% non-dairy stabilizers or non-dairy thickeners by weight of the fermented milk base, and b. allowing the fermented dairy composition to set to form the fermented milk base that exhibits a stable form for at least 30 days at a temperature of 4° C, wherein the whey protein is polymerized by thermal treatment in solution at 80°C for 15 minutes or at 95°C for 6 minutes prior to being added to the dairy composition to be fermented. a. fermenting a dairy composition having a protein content of 5% to 8% by weight, the protein content being 40% to 80% whey protein of the total protein content by weight, to a pH of less than 5 using lactic acid bacteria to form a fermented dairy composition that contains less than 5% non-dairy stabilizers or non-dairy thickeners by weight of the fermented milk base, and b. allowing the fermented dairy composition to set to form the fermented milk base that exhibits a stable form for at least 30 days at a temperature of 4° C,
Apparatus comprising: - an inner body of a dispense interface and - a manifold, wherein the inner body comprises: - a recess configured to receive a distal needle from a distal end of the inner body; and - a first fluid reservoir and a second fluid reservoir; wherein the inner body and the manifold are assembled such that there is formed a channel providing a fluid connection from the first fluid reservoir and the second fluid reservoir, respectively, to the recess; characterized in that the manifold comprises: - a filling block configured to redirect flow; - a fluid groove arrangement configured to provide a fluid connection to the filling block; and that the fluid connection from the first fluid reservoir and the second fluid reservoir, respectively, to the recess is provided via the fluid groove arrangement and the filling block. - an inner body of a dispense interface and - a manifold, wherein the inner body comprises: - a recess configured to receive a distal needle from a distal end of the inner body; and - a first fluid reservoir and a second fluid reservoir; wherein the inner body and the manifold are assembled such that there is formed a channel providing a fluid connection from the first fluid reservoir and the second fluid reservoir, respectively, to the recess; characterized in that the manifold comprises: - a filling block configured to redirect flow; - a fluid groove arrangement configured to provide a fluid connection to the filling block; and that the fluid connection from the first fluid reservoir and the second fluid reservoir, respectively, to the recess is provided via the fluid groove arrangement and the filling block.
A device, in particular for use in manufacturing an individualized bicycle seat, or for use as an adjustable bicycle seat itself, said device comprising: (a) a plurality of individually moving parts, the sum of said individually moving parts in at least two dimensions defining at least a two-dimensional top surface of a generic bicycle seat, and the individually moving parts being movable relative to one another in the x-, y- and z-directions to adjust the generic bicycle seat from a starting point to an adjusted final position, wherein compared to the starting point the adjusted final position embodies individual comfort adjustments to the individually moving parts made by or on behalf of a person who will be the user of said individualized bicycle seat; characterized by said device further comprising (b) a plurality of sensors connected to the plurality of individually moving parts, the plurality of sensors collectively detecting all adjustments made relative to said starting point to achieve said adjusted final position.
A method for performing a random access procedure, the method being performed by a user equipment, UE, and comprising: selecting a first random access preamble among the first random access preamble and a second random access preamble, based on (i) that a first subframe related to the first random access preamble and a second subframe related to the second random access preamble overlap in time and (ii) a predefined priority rule where the first random access preamble related to transmission toward a master cell group, MCG, has a higher priority than the second random access preamble related to transmission toward a secondary cell group, SCG; transmitting the first random access preamble, wherein the UE supports dual connectivity, and wherein the first random access preamble is to be transmitted toward the MCG; dropping the second random access preamble, based on that the first subframe related to the first random access preamble and the second subframe related to the second random access preamble overlap in time, wherein the second random access preamble is to be transmitted toward the SCG; and transmitting information used for suspending a power ramping to a higher layer based on that the second random access preamble is dropped, wherein the information used for suspending the power ramping enables the higher layer to suspend the power ramping. selecting a first random access preamble among the first random access preamble and a second random access preamble, based on (i) that a first subframe related to the first random access preamble and a second subframe related to the second random access preamble overlap in time and (ii) a predefined priority rule where the first random access preamble related to transmission toward a master cell group, MCG, has a higher priority than the second random access preamble related to transmission toward a secondary cell group, SCG; transmitting the first random access preamble, wherein the UE supports dual connectivity, and wherein the first random access preamble is to be transmitted toward the MCG; dropping the second random access preamble, based on that the first subframe related to the first random access preamble and the second subframe related to the second random access preamble overlap in time, wherein the second random access preamble is to be transmitted toward the SCG; and transmitting information used for suspending a power ramping to a higher layer based on that the second random access preamble is dropped, wherein the information used for suspending the power ramping enables the higher layer to suspend the power ramping.
A connecting structure for an arm and an airframe of a rotorcraft comprising: a fixed sleeve pipe configured to extend out from a circumferential edge of the airframe; an insertion head configured to be disposed to a first end of the arm and configured to be inserted into the fixed sleeve pipe, wherein the insertion head is provided with a protrusion portion protruding from an outer surface of the arm, and an insertion groove is formed between the protrusion portion and the outer surface of the arm; a lock sleeve configured to be fitted over the arm and having an insertion portion configured to be embedded into the insertion groove, wherein the insertion portion and the protrusion portion are configured to be in threaded connection; and a lock nut configured to be fitted over the arm and configured for being in threaded connection with the fixed sleeve pipe, wherein a second end of the lock nut has a tensing end configured for abutting against a second end face of the protrusion portion. a fixed sleeve pipe configured to extend out from a circumferential edge of the airframe; an insertion head configured to be disposed to a first end of the arm and configured to be inserted into the fixed sleeve pipe, wherein the insertion head is provided with a protrusion portion protruding from an outer surface of the arm, and an insertion groove is formed between the protrusion portion and the outer surface of the arm; a lock sleeve configured to be fitted over the arm and having an insertion portion configured to be embedded into the insertion groove, wherein the insertion portion and the protrusion portion are configured to be in threaded connection; and a lock nut configured to be fitted over the arm and configured for being in threaded connection with the fixed sleeve pipe, wherein a second end of the lock nut has a tensing end configured for abutting against a second end face of the protrusion portion.
A cylinder lock comprising: a top section comprising a barrel having a through passage at either end, said barrels separated by a cam opening; a lock provided at each end in the through passages, and a cam member located between the locks; a middle section extending from the top section and having a width less than that of the top section, and a lower section extending from the middle section such that it bridges the cam opening; characterised in that the width of the lower section is greater than the width of the middle section.
A small molecular compound composition for use in promoting the differentiation of a stem cell into a cardiomyocyte, which comprises the following components: (i) an mTOR signaling pathway inhibitor; (ii) a Wnt pathway promoter; and (iii) an optional, pharmaceutically acceptable carrier; wherein the mTOR signaling pathway inhibitor is selected from the group consisting of: rapamycin, everolimus, KU-0063794, AZD8055, temsirolimus, INK128, ridaforolimus, and a combination thereof, the Wnt pathway promoter is CHIR99021 or BIO. (i) an mTOR signaling pathway inhibitor; (ii) a Wnt pathway promoter; and (iii) an optional, pharmaceutically acceptable carrier; wherein the mTOR signaling pathway inhibitor is selected from the group consisting of: rapamycin, everolimus, KU-0063794, AZD8055, temsirolimus, INK128, ridaforolimus, and a combination thereof, the Wnt pathway promoter is CHIR99021 or BIO.
Device for damping torsion oscillation in a friction clutch, in particular for a motor vehicle, of the type having a damper system capable of passing on the engine torque and comprising: • a rotary input element, • first and second coupling elements of axisymmetric overall shape coupled in rotation to the rotary input element, • a third coupling element of axisymmetric overall shape coupled in rotation to a first rotary output element, • a fourth coupling element of axisymmetric overall shape coupled in rotation to a second rotary output element, • damping means comprising elastic members (261, 262) borne respectively by the first and third coupling elements, and by the second and fourth coupling elements, • the first and second rotary output elements comprising a first and second meshing means respectively on the radially internal contour of the first and second rotary output elements respectively, • the first and second meshing means being able to mesh with corresponding teeth on the periphery of a hub, the said device being characterized in that the first meshing means meshes with the teeth of the hub before the second meshing means meshes with the said teeth of the said hub, and in that the first and second meshing means are able to mesh with corresponding teeth on the periphery of the said hub with a predetermined circumferential clearance. • a rotary input element, • first and second coupling elements of axisymmetric overall shape coupled in rotation to the rotary input element, • a third coupling element of axisymmetric overall shape coupled in rotation to a first rotary output element, • a fourth coupling element of axisymmetric overall shape coupled in rotation to a second rotary output element, • damping means comprising elastic members (261, 262) borne respectively by the first and third coupling elements, and by the second and fourth coupling elements, • the first and second rotary output elements comprising a first and second meshing means respectively on the radially internal contour of the first and second rotary output elements respectively, • the first and second meshing means being able to mesh with corresponding teeth on the periphery of a hub, the said device being characterized in that the first meshing means meshes with the teeth of the hub before the second meshing means meshes with the said teeth of the said hub, and in that the first and second meshing means are able to mesh with corresponding teeth on the periphery of the said hub with a predetermined circumferential clearance.
A shake correction apparatus comprising: a stationary portion on which a plurality of coils (22S, 22L, 23S, 23L, 24S, 24L) are arranged; a movable portion that includes a plurality of magnets (52a, 52b, 53a, 53b, 54a, and 54b) arranged to be opposed to the coils (22S, 22L, 23S, 23L, 24S, 24L), and an optical element or an imaging element; a supporting member (31, 32, 33) for movably supporting the movable portion with respect to the stationary portion along a plane orthogonal to an optical axis of light entering into the optical element or the imaging element; detection means (25, 26, 27) for detecting a position of the movable portion; and control means for controlling a current to be flowed into the coils (22S, 22L, 23S, 23L, 24S, 24L) based on an output of the detection means (25, 26, 27), characterized in that the coils (22S, 22L, 23S, 23L, 24S, 24L) include at least three coil pairs when two coils that are arranged to be opposite to each other along the plane orthogonal to the optical axis are paired as one coil pair, in each of the coil pairs, driving forces of two coils forming each of the coil pairs are different from each other, and the movable portion is configured to be moved in an X-axis direction, an Y-axis direction, and/or a rotation direction by combining driving forces of at least two of the at least three coil pairs. a stationary portion on which a plurality of coils (22S, 22L, 23S, 23L, 24S, 24L) are arranged; a movable portion that includes a plurality of magnets (52a, 52b, 53a, 53b, 54a, and 54b) arranged to be opposed to the coils (22S, 22L, 23S, 23L, 24S, 24L), and an optical element or an imaging element; a supporting member (31, 32, 33) for movably supporting the movable portion with respect to the stationary portion along a plane orthogonal to an optical axis of light entering into the optical element or the imaging element; detection means (25, 26, 27) for detecting a position of the movable portion; and control means for controlling a current to be flowed into the coils (22S, 22L, 23S, 23L, 24S, 24L) based on an output of the detection means (25, 26, 27), characterized in that the coils (22S, 22L, 23S, 23L, 24S, 24L) include at least three coil pairs when two coils that are arranged to be opposite to each other along the plane orthogonal to the optical axis are paired as one coil pair, in each of the coil pairs, driving forces of two coils forming each of the coil pairs are different from each other, and the movable portion is configured to be moved in an X-axis direction, an Y-axis direction, and/or a rotation direction by combining driving forces of at least two of the at least three coil pairs.
A method for monitoring a water intrusion condition of a facility, comprising: using an optical data transceiver to illuminate a monitored interior space with an optical data signal which has been modulated to contain a first data sequence; concurrently receiving at the optical data transceiver one or more retroreflected optical data signals which have been respectively retroreflected in response to the optical data signal from one or more reflector elements (114, 116, 117, 126, 131) disposed in the flood-monitored interior space at one or more locations where intruding water may be present; and selectively generating a water intrusion event notification to an enterprise monitoring controller if a variation occurs in regard to at least one optical beam condition associated with the one or more retroreflected optical data signals, characterized by authenticating the one or more retroreflected optical data signals by determining whether the first data sequence is present therein. using an optical data transceiver to illuminate a monitored interior space with an optical data signal which has been modulated to contain a first data sequence; concurrently receiving at the optical data transceiver one or more retroreflected optical data signals which have been respectively retroreflected in response to the optical data signal from one or more reflector elements (114, 116, 117, 126, 131) disposed in the flood-monitored interior space at one or more locations where intruding water may be present; and selectively generating a water intrusion event notification to an enterprise monitoring controller if a variation occurs in regard to at least one optical beam condition associated with the one or more retroreflected optical data signals, characterized by authenticating the one or more retroreflected optical data signals by determining whether the first data sequence is present therein.
A transport system for a tunnel, comprising at least one vehicle with tires and one unit for piloting the vehicle, said vehicle having a generally longitudinal frame and at least two axles (120, 130) pivotally mounted under the frame at each end of the frame, each axle carrying wheels mounted on the tires, and the piloting unit comprising a control device provided to control the at least two axles (120, 130) of the vehicle, characterized in that it comprises a motion tracking unit comprising a combination of at least one telemetric device and at least one inclinometer device, wherein the telemetric device is provided for measuring a distance between the vehicle and each of the side walls of the tunnel, and the inclinometer device is provided for measuring an angle of inclination between an axis normal to the mid-plane formed by the frame and the earth's gravity direction in a front plane of said vehicle, the inclinometer device comprising a plurality of inclinometers, the vehicle having at least one axle (120, 130) comprising at least two inclinometers positioned symmetrically with respect to the longitudinal axis of the vehicle, and in that the piloting unit further comprises a data processing device for receiving and processing data of the motion tracking unit and monitoring the control device according to the processed data, the data processing device being provided to cooperate with the control device for controlling at least one rotation of at least one of the two axles (120, 130) of the vehicle according to the distances measured by the telemetric device when the transport system is traveling on a flat portion of the tunnel and according to the angle of inclination measured by the inclinometer device when the transport system is traveling on a curved portion of the tunnel.
Method for controlling a telematics control unit, the telematics control unit comprising a cellular modem hardware and a processor and storage unit, the processor and storage unit comprising a Processor and a storage, - wherein a first exchange of commands and information (EX1.1, EX1.2, EX1.3) is executed on the processor and storage unit between at least two telematics applications (TA1, TA2, TA3) and an application programming interface of the processor and storage unit, - wherein a second exchange of commands and information (EX2.1, EX2.2, EX2.3) is executed on the processor and storage unit between the application programming interface and an hardware abstraction layer of the processor and storage unit and - wherein a third exchange of commands and information (EX3.1, EX3.2, EX3.3) is executed on the processor and storage unit between the hardware abstraction layer and a cellular modem hardware, wherein a cellular behavior manager which is part of the hardware abstraction layer is run on the processor and storage unit, - wherein the third exchange of commands and information (EX3.1, EX3.2, EX3.3) is controlled by the cellular behavior manager, - wherein access attempts of all telematics applications (TA1, TA2, TA3) to the cellular modem hardware are recorded by the cellular behavior manager via a chain of exchange commands and - wherein the cellular behavior manager is configured such that it will monitor the telematics applications accessing the cellular modem hardware and identify behavior that violates a set of rules and permit or prohibit each access attempt accordingly. - wherein a first exchange of commands and information (EX1.1, EX1.2, EX1.3) is executed on the processor and storage unit between at least two telematics applications (TA1, TA2, TA3) and an application programming interface of the processor and storage unit, - wherein a second exchange of commands and information (EX2.1, EX2.2, EX2.3) is executed on the processor and storage unit between the application programming interface and an hardware abstraction layer of the processor and storage unit and - wherein a third exchange of commands and information (EX3.1, EX3.2, EX3.3) is executed on the processor and storage unit between the hardware abstraction layer and a cellular modem hardware, wherein a cellular behavior manager which is part of the hardware abstraction layer is run on the processor and storage unit, - wherein the third exchange of commands and information (EX3.1, EX3.2, EX3.3) is controlled by the cellular behavior manager, - wherein access attempts of all telematics applications (TA1, TA2, TA3) to the cellular modem hardware are recorded by the cellular behavior manager via a chain of exchange commands and - wherein the cellular behavior manager is configured such that it will monitor the telematics applications accessing the cellular modem hardware and identify behavior that violates a set of rules and permit or prohibit each access attempt accordingly.
A power electronics unit configured to control the operation of an electric drive motor of a compressor in a vapor compression system of a refrigeration unit, the power electronics unit comprising: a semiconductor portion comprising at least one fan configured to transfer substantially all of the heat derived from the semiconductor portion; and an inductor portion comprising at least one conduit configured to receive a working fluid from the vapor compression system, wherein the working fluid is configured to transfer all of the heat derived from the inductor portion, and the power electronics unit solely uses the working fluid to cool the inductor portion such that the semiconductor portion is not cooled using any of the cooling capacity of the working fluid. a semiconductor portion comprising at least one fan configured to transfer substantially all of the heat derived from the semiconductor portion; and an inductor portion comprising at least one conduit configured to receive a working fluid from the vapor compression system, wherein the working fluid is configured to transfer all of the heat derived from the inductor portion, and the power electronics unit solely uses the working fluid to cool the inductor portion such that the semiconductor portion is not cooled using any of the cooling capacity of the working fluid.
A cement-based thin-set mortar or medium bed mortar or grout or underlayment mortar comprising: cement; and an amount of a poly(p-phenylene terephthalamide) polymer fiber provided as a pulp product or as a cut fiber and/or a poly(m-phenylene terephthalamide) polymer fiber provided in the form of cut fibers or in the form of a fibrillated polymer, wherein the thin-set mortar and medium bed mortar further comprise a water retaining agent. cement; and an amount of a poly(p-phenylene terephthalamide) polymer fiber provided as a pulp product or as a cut fiber and/or a poly(m-phenylene terephthalamide) polymer fiber provided in the form of cut fibers or in the form of a fibrillated polymer, wherein the thin-set mortar and medium bed mortar further comprise a water retaining agent.