mhurhangee/ep-ind-claims huggingface dataset:
A lubricant composition comprising: a base oil present in an amount of greater than 85 parts by weight per 100 parts by weight of said lubricant composition; and one or more alkylethercarboxylic acid corrosion inhibitor(s) having the formula; wherein R is a straight or branched chain C 6 -C 18 alkyl group and n is a number of from 2 to 3, and wherein said lubricant composition comprises less than 1 weight percent of water, wherein said one or more alkylethercarboxylic acid corrosion inhibitor(s) are present in an amount of from 0.01 to 0.1 weight percent based on a total weight of said lubricant composition. a base oil present in an amount of greater than 85 parts by weight per 100 parts by weight of said lubricant composition; and one or more alkylethercarboxylic acid corrosion inhibitor(s) having the formula; wherein R is a straight or branched chain C 6 -C 18 alkyl group and n is a number of from 2 to 3, and wherein said lubricant composition comprises less than 1 weight percent of water, wherein said one or more alkylethercarboxylic acid corrosion inhibitor(s) are present in an amount of from 0.01 to 0.1 weight percent based on a total weight of said lubricant composition.
A laundry treatment apparatus comprising: a washing tub configured to receive laundry, the washing tub being configured to be rotatable; a motor configured to rotate the washing tub; a controller configured to control the motor such that the washing tub is accelerated to a predetermined target speed at an acceleration gradient of a minimum value controllable by the controller in which the laundry moves relative to the washing tub; and a current sensing unit configured to sense current of the motor, characterized in that the controller is configured to obtain data corresponding to at least one of laundry weight or laundry quality from output of an output layer of an artificial neural network pre-trained based on machine learning, using data relating to a pattern of current values sensed by the current sensing unit while accelerating the washing tub as input to an input layer of the artificial neural network, wherein the laundry quality is defined based on at least one of material of the laundry, hardness of the laundry, water content of the laundry, volumetric difference between dry laundry and wet laundry, and composition of the laundry. a washing tub configured to receive laundry, the washing tub being configured to be rotatable; a motor configured to rotate the washing tub; a controller configured to control the motor such that the washing tub is accelerated to a predetermined target speed at an acceleration gradient of a minimum value controllable by the controller in which the laundry moves relative to the washing tub; and a current sensing unit configured to sense current of the motor, characterized in that the controller is configured to obtain data corresponding to at least one of laundry weight or laundry quality from output of an output layer of an artificial neural network pre-trained based on machine learning, using data relating to a pattern of current values sensed by the current sensing unit while accelerating the washing tub as input to an input layer of the artificial neural network, wherein the laundry quality is defined based on at least one of material of the laundry, hardness of the laundry, water content of the laundry, volumetric difference between dry laundry and wet laundry, and composition of the laundry.
Electric machine, in particular electric motor of a motor vehicle, with a stator, which has an electric coil and is covered at the end by a B-side end shield, and with a rotor with a shaft, which is mounted rotatably about an axis of rotation and is surrounded circumferentially by the stator, the B-side end shield having an electrical connection, to which one end of the electrical coil is fixed and with which it is electrically contacted, characterized in that the B-side end shield has a pocket, which runs in the axial direction and into which the electrical connection is pressed, and the electrical connection comprising an insulation displacement contact, into which the end of the electrical coil is inserted.
A phantom for use in an MRI scanner comprising: an outer housing; a plurality of vessels located within the outer housing, each of the vessels containing a material, wherein the value of at least one property of the material at a particular temperature is different for the material contained within each of the vessels; and a phase change material between the outer housing and the vessels, characterized in that the phase change material has a transition temperature or melting point in the range between 25°C to 45°C. an outer housing; a plurality of vessels located within the outer housing, each of the vessels containing a material, wherein the value of at least one property of the material at a particular temperature is different for the material contained within each of the vessels; and a phase change material between the outer housing and the vessels, characterized in that the phase change material has a transition temperature or melting point in the range between 25°C to 45°C.
Hand-held power tool (34a, 34b, 34d), having a drive unit (16a, 16b, 16d) for driving a receivable insert tool (44a, 44b, 44d) that can be operated by means of the hand-held power tool (34a, 34b, 34d), and having an open-loop or closed-loop control unit (12a, 12b, 12d) for controlling the drive unit (16a, 16b, 16d) by open-loop or closed-loop control, characterized in that a first sensor unit (60a, 60b, 60d) has a first image sensor (62a, 62b, 62d) which is oriented toward an operator of the hand-held power tool (34a, 34b, 34d), and in that the first sensor unit (60a, 60b, 60d) is configured to sense vital data, in particular a heart rate and/or a state of fatigue, or an accessory means, in particular safety eyewear, of the operator and to process same by means of the open-loop or closed-loop control unit (12a, 12b, 12d) in such a manner that the drive unit (16a, 16b, 16d) is controlled, by open-loop or closed-loop control, in dependence on the sensed data, and in that at least one second sensor unit (64a, 64b, 64d), which is spaced apart from the first sensor unit (60a, 60b, 60d), is oriented toward the work area.
Method for initiating a warhead of a shell, having the following steps: detection of a moving target; calculation of a first initiating time and setting a time fuze, which is provided in the warhead, to the first initiating time; firing of the shell in the direction of the target and activation of the time fuze; measurement of a time interval (T4-time) between activation of the time fuze and a time at which the shell leaves a firing barrel, and of at least one further time value for determination of an initial velocity of the shell on leaving the firing barrel; calculation of a second initiating time using the measured time interval (T4-time) as well as the determined initial velocity; and replacement of the first initiating time by the second initiating time. detection of a moving target; calculation of a first initiating time and setting a time fuze, which is provided in the warhead, to the first initiating time; firing of the shell in the direction of the target and activation of the time fuze; measurement of a time interval (T4-time) between activation of the time fuze and a time at which the shell leaves a firing barrel, and of at least one further time value for determination of an initial velocity of the shell on leaving the firing barrel; calculation of a second initiating time using the measured time interval (T4-time) as well as the determined initial velocity; and replacement of the first initiating time by the second initiating time.
A scheduling method, in a system adapted to execute a plurality of non-preemptible jobs J 1.... J n, with deterministic execution times e 1.... e n, each job being statically assigned to one of m independent machines M 1.... M m, for determining a release time r 1.... r n for each job J 1.... J n so as to minimize the completion time of overall set of jobs, while respecting the following precedence constraint: - for a predetermined set of pairs J x and J y of the plurality of jobs, the delay between the completion of J y and the start of J x range within a minimum delay d - xy and a maximum delay d + xy: d − xy ≤ r x − r y + e y ≤ d + xy and the following exclusion constraints: - for a predetermined set of pairs J i and J k of the plurality of jobs, one of the following two determinations of exclusion constraint is fulfilled: r i ≥ r k + e k OR r i + e i ≤ r k so that the execution periods of J k and J i do not overlap, the method comprising the steps of: - A) building a frontier set including a Difference Bound Matrix zone that collects release times satisfying the precedence constraints; - B) selecting one of the DBM zones and removing it from the frontier set: - C) responsive to the selected DBM zone not satisfying at least one exclusion constraint of one pair J i and J k of the predetermined set of pairs, building one restricted zone of the selected DBM zone per each of the two determinations resolving the conflict (r i ≥ r k + e k or r i + e i ≤ r k); - D) checking if the restricted DBM zones are non-empty and adding the non-empty restricted DBM zones to the frontier set; - E) repeating the steps B to D until a selected DBM zone satisfies all the exclusion constraints. - for a predetermined set of pairs J x and J y of the plurality of jobs, the delay between the completion of J y and the start of J x range within a minimum delay d - xy and a maximum delay d + xy: d − xy ≤ r x − r y + e y ≤ d + xy and the following exclusion constraints: - for a predetermined set of pairs J i and J k of the plurality of jobs, one of the following two determinations of exclusion constraint is fulfilled: r i ≥ r k + e k OR r i + e i ≤ r k so that the execution periods of J k and J i do not overlap, - A) building a frontier set including a Difference Bound Matrix zone that collects release times satisfying the precedence constraints; - B) selecting one of the DBM zones and removing it from the frontier set: - C) responsive to the selected DBM zone not satisfying at least one exclusion constraint of one pair J i and J k of the predetermined set of pairs, building one restricted zone of the selected DBM zone per each of the two determinations resolving the conflict (r i ≥ r k + e k or r i + e i ≤ r k); - D) checking if the restricted DBM zones are non-empty and adding the non-empty restricted DBM zones to the frontier set; - E) repeating the steps B to D until a selected DBM zone satisfies all the exclusion constraints.
An apparatus for removing material from a reciprocating floor container comprising: a body arranged to be located in a container to assist in the removal of material therefrom, the body comprising a blade for urging material out of the container in use; a first member coupled to the body and having a flexible sealing portion configured to provide a seal between the first member and the container; the first member being located towards a lateral side of the blade and mounted relative to the blade for contact with a side wall (5A,5B) of the container; characterised by the first member being hingedly mounted relative to the blade; and attachment means configured to enable the first member to be moveably attached to the body wherein the attachment means comprises adjustable tension means arranged to bias the flexible sealing portion of the first member laterally outwards towards the container side wall (5A,5B). a body arranged to be located in a container to assist in the removal of material therefrom, the body comprising a blade for urging material out of the container in use; a first member coupled to the body and having a flexible sealing portion configured to provide a seal between the first member and the container; the first member being located towards a lateral side of the blade and mounted relative to the blade for contact with a side wall (5A,5B) of the container; characterised by the first member being hingedly mounted relative to the blade; and attachment means configured to enable the first member to be moveably attached to the body wherein the attachment means comprises adjustable tension means arranged to bias the flexible sealing portion of the first member laterally outwards towards the container side wall (5A,5B).
An implantation device comprising an oxidized cellulose embolization solution including an oxidized cellulose wherein the implantation device is configured to be guided through a lumen of a blood vessel and to introduce the oxidized cellulose embolization solution into the lumen of the blood vessel to form an embolism within the lumen, characterized in that the embolization solution contains from 5%w/v to 25%w/v of soluble oxidized cellulose dissolved therein without any insoluble or particulate components.
A method for managing a closed access group, CAG, feature by a user equipment, UE, the method comprising: transmitting, to an access and mobility management function, AMF, a registration request message including information indicating whether the UE supports the CAG feature; and receiving, from the AMF, a registration reject message including NAS cause in response to the registration request message, in case that the UE does not support the CAG feature and the UE is allowed to access a 5GS, 5G system, via a CAG cell only, wherein the NAS cause is one of NAS cause #7, NAS cause #11, and NAS cause #27. transmitting, to an access and mobility management function, AMF, a registration request message including information indicating whether the UE supports the CAG feature; and receiving, from the AMF, a registration reject message including NAS cause in response to the registration request message, in case that the UE does not support the CAG feature and the UE is allowed to access a 5GS, 5G system, via a CAG cell only, wherein the NAS cause is one of NAS cause #7, NAS cause #11, and NAS cause #27.
A natural laminar flow wing design method for a supersonic aircraft having a subsonic leading edge in a main wing planform, comprising: a process of setting an initial shape of a cross-sectional wing shape; a computational fluid dynamics analysis process of determining pressure distribution of a flow-field around the cross-sectional wing shape obtained; a transition analysis process of estimating a boundary layer transition position on a wing surface; a process of setting target pressure distributions for wing upper and lower surfaces based on the pressure distribution; and an inverse problem design process including the computational fluid dynamics analysis process and a shape correction process correcting the cross-sectional wing shape such that the pressure distribution obtained from the computational fluid dynamics analysis process converges on the target pressure distribution, wherein among the target pressure distributions, the wing upper surface target pressure distribution is provided by a functional formula with parameters dependent on each the spanwise station as coefficients; then the sensitivity of the wing upper surface boundary layer transition due to fluctuations in each of the parameter values of the parameters is analyzed by the transition analysis process; and the wing upper surface target pressure distribution is determined by performing a search of an optimal combination of parameter values that delays the wing upper surface boundary layer transition the furthest rearward at a predetermined Reynolds number. a process of setting an initial shape of a cross-sectional wing shape; a computational fluid dynamics analysis process of determining pressure distribution of a flow-field around the cross-sectional wing shape obtained; a transition analysis process of estimating a boundary layer transition position on a wing surface; a process of setting target pressure distributions for wing upper and lower surfaces based on the pressure distribution; and an inverse problem design process including the computational fluid dynamics analysis process and a shape correction process correcting the cross-sectional wing shape such that the pressure distribution obtained from the computational fluid dynamics analysis process converges on the target pressure distribution, wherein among the target pressure distributions, the wing upper surface target pressure distribution is provided by a functional formula with parameters dependent on each the spanwise station as coefficients; then the sensitivity of the wing upper surface boundary layer transition due to fluctuations in each of the parameter values of the parameters is analyzed by the transition analysis process; and the wing upper surface target pressure distribution is determined by performing a search of an optimal combination of parameter values that delays the wing upper surface boundary layer transition the furthest rearward at a predetermined Reynolds number.
A tapered triblock copolymer composition, comprising: first and second end blocks and a middle block between and bound directly to the first and second end blocks; the first end block (block B) and the middle block (block B/A) comprising a copolymer of conjugated diene and a monovinyl aromatic monomer and the second end block (block A) comprising a monovinyl aromatic polymer; wherein the proportion of the conjugated diene in the first end block is higher than in the middle block and ranges between about 70 and about 90 wt % of the first end block; further wherein the 1,2-addition vinyl content of the first end block (block B) is between 15 and 45 %; and further wherein the first end block comprises 30 to 60 wt % of the tapered triblock copolymer; the middle block comprises 20 to 50 wt % of the tapered triblock copolymer; the second end block (block A) comprising 10 to 40 wt % of the tapered triblock copolymer; and the tapered triblock copolymer having a peak average molecular weight between about 50,000 and about 250,000. first and second end blocks and a middle block between and bound directly to the first and second end blocks; the first end block (block B) and the middle block (block B/A) comprising a copolymer of conjugated diene and a monovinyl aromatic monomer and the second end block (block A) comprising a monovinyl aromatic polymer; wherein the proportion of the conjugated diene in the first end block is higher than in the middle block and ranges between about 70 and about 90 wt % of the first end block; further wherein the 1,2-addition vinyl content of the first end block (block B) is between 15 and 45 %; and further wherein the first end block comprises 30 to 60 wt % of the tapered triblock copolymer; the middle block comprises 20 to 50 wt % of the tapered triblock copolymer; the second end block (block A) comprising 10 to 40 wt % of the tapered triblock copolymer; and the tapered triblock copolymer having a peak average molecular weight between about 50,000 and about 250,000.
Method for checking the neutral position of a gearbox actuator responsible for engaging a gear ratio at the end of a preliminary phase of synchronizing two shafts of the gearbox using a traction machine controlled in torque to bring the discrepancy in the speeds of the two shafts back inside a range that allows them to be mechanically coupled, whereby convergence of the measured speed measured on one of the two shafts with a value of the observed speed observed as a function of a value of the observed inertia observed on this shaft and of an estimate of the torque of the machine is ensured, characterized in that the following operations are carried out: - an estimate of the torque actually supplied by the machine is calculated by filtering the setpoint emanating from the synchronization algorithm, - the value for the observed speed observed on the shaft is updated by using the last value for the observed inertia observed thereon, - the observed inertia value is updated, in an inertia regulator, as a function of the discrepancy between the value of the observed speed and of the measured speed of the shaft. - an estimate of the torque actually supplied by the machine is calculated by filtering the setpoint emanating from the synchronization algorithm, - the value for the observed speed observed on the shaft is updated by using the last value for the observed inertia observed thereon, - the observed inertia value is updated, in an inertia regulator, as a function of the discrepancy between the value of the observed speed and of the measured speed of the shaft.
A method of tracing fluid flow from a hydrocarbon reservoir comprising the steps of: placing within a well penetrating said hydrocarbon reservoir a composition comprising: (a) microcapsules comprising an oil field chemical and a microencapsulant, where the microcapsules have an outer surface, and the oil field chemical is contained within the microcapsules, and (b) a bulk polymer, where the microcapsules are embedded within the bulk polymer, and where the oil field chemical is a tracer; collecting one or more samples of fluids flowing from the well; and analysing said one or more samples to determine at least one of: (i) the presence or absence of the tracer; and (ii) the concentration of one or more tracers in fluids flowing from the well. placing within a well penetrating said hydrocarbon reservoir a composition comprising: (a) microcapsules comprising an oil field chemical and a microencapsulant, where the microcapsules have an outer surface, and the oil field chemical is contained within the microcapsules, and (b) a bulk polymer, where the microcapsules are embedded within the bulk polymer, and where the oil field chemical is a tracer; collecting one or more samples of fluids flowing from the well; and analysing said one or more samples to determine at least one of: (i) the presence or absence of the tracer; and (ii) the concentration of one or more tracers in fluids flowing from the well.
A light emitting device comprising: a first light-emitting diode chip which includes a gallium-nitride based semiconductor and emits blue light; a phosphor capable of absorbing a part of the light emitted by said first LED chip and emitting light having a longer main emission wavelength than the main emission peak of said first light emitting component and in relation of complementary colors with the light emitted by said first LED chip, said phosphor containing a garnet fluorescent material activated with cerium comprising at least one element selected from the group consisting of Y, Lu, Sc, La, Gd and Sm, and at least one element selected from the group consisting of Al, Ga and In; a coating material covering said first LED chip; and a second light-emitting diode chip that emits light that does not excite said phosphor, wherein said phosphor is contained in said coating material, and the light from said second LED chip is radiated to the outside without exciting said phosphor. a first light-emitting diode chip which includes a gallium-nitride based semiconductor and emits blue light; a phosphor capable of absorbing a part of the light emitted by said first LED chip and emitting light having a longer main emission wavelength than the main emission peak of said first light emitting component and in relation of complementary colors with the light emitted by said first LED chip, said phosphor containing a garnet fluorescent material activated with cerium comprising at least one element selected from the group consisting of Y, Lu, Sc, La, Gd and Sm, and at least one element selected from the group consisting of Al, Ga and In; a coating material covering said first LED chip; and a second light-emitting diode chip that emits light that does not excite said phosphor, wherein said phosphor is contained in said coating material, and the light from said second LED chip is radiated to the outside without exciting said phosphor.