mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing 2-((5Z,8Z,11Z,14Z,17Z)-icosa-5,8,11,14,17-pentaenyloxy)-butanoic acid from an EPA derivative of formula comprising the steps of a) reducing the EPA derivate of formula: wherein -C(=O)X represents a carboxylic acid or a carboxylic ester, to its corresponding alcohol (5Z,8Z,11Z,14Z,17Z)-icosa-5,8,11,14,17-pentaen-1-ol by reduction with a reducing agent b) isolating the alcohol from step a); c) reacting the isolated alcohol from step b) with 2-bromobutyric acid to form 2-((5Z,8Z,11Z,14Z,17Z)-icosa-5,8,11,14,17-pentaenyloxy)butanoic acid d) isolating 2-((5Z,8Z,11Z,14Z,17Z)-icosa-5,8,11,14,17-pentaenyloxy)butanoic acid from step c); and e) optionally purifying 2-((5Z,8Z,11Z,14Z,17Z)-icosa-5,8,11,14,17-pentaenyloxy)butanoic acid. a) reducing the EPA derivate of formula: wherein -C(=O)X represents a carboxylic acid or a carboxylic ester, to its corresponding alcohol (5Z,8Z,11Z,14Z,17Z)-icosa-5,8,11,14,17-pentaen-1-ol by reduction with a reducing agent b) isolating the alcohol from step a); c) reacting the isolated alcohol from step b) with 2-bromobutyric acid to form 2-((5Z,8Z,11Z,14Z,17Z)-icosa-5,8,11,14,17-pentaenyloxy)butanoic acid d) isolating 2-((5Z,8Z,11Z,14Z,17Z)-icosa-5,8,11,14,17-pentaenyloxy)butanoic acid from step c); and e) optionally purifying 2-((5Z,8Z,11Z,14Z,17Z)-icosa-5,8,11,14,17-pentaenyloxy)butanoic acid.
A method for searching an electronic dataset, wherein the method comprises receiving, at one or more processors and from a mobile electronic device, a search query for the electronic dataset; and in response to receiving the search query: determining, by the one or more processors, a plurality of results to the search query, each of the results including data from the electronic dataset; the method characterized in that: selecting, by the one or more processors, a first one of the results from the plurality of results for display by the mobile electronic device; transmitting, by the one or more processors, only the first result from the plurality of results to the mobile electronic device for display by the mobile electronic device; after the first result is transmitted to the mobile electronic device, receiving, at the one or more processors and from the mobile electronic device, a rejection of the first result by a user of the mobile electronic device, the rejection comprising a rationale for the rejection of the first result; and in response to receiving the rejection of the first result: selecting, by the one or more processors, a second one of the results of the plurality of results for display (216, 208) by the mobile electronic device based on the rationale for the rejection; and transmitting, by the one or more processors, only the second result of the plurality of results to the mobile electronic device for display by the mobile electronic device. selecting, by the one or more processors, a first one of the results from the plurality of results for display by the mobile electronic device; transmitting, by the one or more processors, only the first result from the plurality of results to the mobile electronic device for display by the mobile electronic device; after the first result is transmitted to the mobile electronic device, receiving, at the one or more processors and from the mobile electronic device, a rejection of the first result by a user of the mobile electronic device, the rejection comprising a rationale for the rejection of the first result; and in response to receiving the rejection of the first result: selecting, by the one or more processors, a second one of the results of the plurality of results for display (216, 208) by the mobile electronic device based on the rationale for the rejection; and transmitting, by the one or more processors, only the second result of the plurality of results to the mobile electronic device for display by the mobile electronic device. selecting, by the one or more processors, a second one of the results of the plurality of results for display (216, 208) by the mobile electronic device based on the rationale for the rejection; and transmitting, by the one or more processors, only the second result of the plurality of results to the mobile electronic device for display by the mobile electronic device.
A brake unit for braking a rotor disc, comprising said rotor disc rotatable about a central axis of rotation; a first brake pad mounting means having a first end and a second end and a longitudinal outer, side, surface extending there between, wherein a first brake pad is provided at said first end of said first brake pad mounting means and positioned facing a first face of said rotor disc, and wherein said first brake pad mounting means comprises a first brake pad locking feature provided on its said outer, side, surface; said brake unit further comprising first locking means configured to pivot about an axis, the first locking means being configured to be movable about said pivot axis so that a locking feature (14a, 14b) of said locking means can come into contact with, or be moved away from said outer, side, surface (24c', 24c") of the first brake pad mounting means (24', 24"), wherein, in a first position, said first locking means (14', 14") is configured to be in contact with and engaged with said first locking feature, thereby preventing movement of said first brake pad towards said face of said rotor disc, and wherein, in a second position, said first locking means is configured to be disengaged from said locking feature to thereby permit movement of said braking pad towards said face of said rotor disc; the brake unit characterised by further comprising a first spring for biasing the locking means to the first position; and a second spring configured to bias the brake pad away from the rotor disc. said rotor disc rotatable about a central axis of rotation; a first brake pad mounting means having a first end and a second end and a longitudinal outer, side, surface extending there between, wherein a first brake pad is provided at said first end of said first brake pad mounting means and positioned facing a first face of said rotor disc, and wherein said first brake pad mounting means comprises a first brake pad locking feature provided on its said outer, side, surface; said brake unit further comprising first locking means configured to pivot about an axis, the first locking means being configured to be movable about said pivot axis so that a locking feature (14a, 14b) of said locking means can come into contact with, or be moved away from said outer, side, surface (24c', 24c") of the first brake pad mounting means (24', 24"), wherein, in a first position, said first locking means (14', 14") is configured to be in contact with and engaged with said first locking feature, thereby preventing movement of said first brake pad towards said face of said rotor disc, and wherein, in a second position, said first locking means is configured to be disengaged from said locking feature to thereby permit movement of said braking pad towards said face of said rotor disc; the brake unit characterised by further comprising a first spring for biasing the locking means to the first position; and a second spring configured to bias the brake pad away from the rotor disc.
A temperature measurement method that uses: a tool holder that is rotatable around a rotating axis and has a hollow hole extending from a front end to a rear end along the rotating axis; and a rotating tool that is connected to the tool holder and has a coaxial through hole with the hollow hole, the method comprising steps of: attaching a temperature measurement unit near the through hole of the rotating tool; measuring the temperature of the rotating tool that rotates coaxially with the tool holder using the temperature measurement unit; and receiving an electric signal of a measurement result of the temperature measurement unit by an electronic substrate that includes a transmission unit; and transmitting wirelessly the electric signal of the electronic substrate to an external unit by the transmission unit; wherein the electronic substrate is provided on the side of an outer circumferential section of the tool holder. attaching a temperature measurement unit near the through hole of the rotating tool; measuring the temperature of the rotating tool that rotates coaxially with the tool holder using the temperature measurement unit; and receiving an electric signal of a measurement result of the temperature measurement unit by an electronic substrate that includes a transmission unit; and transmitting wirelessly the electric signal of the electronic substrate to an external unit by the transmission unit; wherein the electronic substrate is provided on the side of an outer circumferential section of the tool holder.
A data input device of a computer system comprising a screen, the device comprising a touch-sensitive surface that makes it possible to designate an object displayed on the screen and a switch that can be manoeuvred by pressing the touch-sensitive surface, manoeuvring the switch making it possible to select a designated object, further comprising means for measuring a force applied to the touch-sensitive surface and intended to manoeuvre the switch, the measurement means being independent of the switch, also comprising a comparator of a force measured by the measurement means with a plurality of distinct reference forces (Fref, Fref1, Fref2) and means for validating a signal originating from the switch according to results of comparisons made by the comparator between the measured force and the different distinct reference forces (Fref, Fref1, Fref2), the device being characterised in that the validation means are configured to validate the signal originating from the switch if a temporal sequence of the results of the comparisons with each of the distinct reference forces (Fref, Fref1, Fref2) conforms with a temporal reference sequence.
A cable duct (10, 11) comprising a duct base for being mounted on an installation surface and a duct cover (13, 14) for being disposed on the duct base, the duct base comprising at least two separating webs (19, 20, 21) for dividing a cable receiving space into individual duct compartments (22, 23, 24) on a rear mounting wall of the duct base, the separating webs being provided with retaining webs limiting a cable support surface at their free ends, a connecting arrangement comprising at least two connectors (15, 16, 17) being provided for connecting the duct cover to the duct base, a connector formed adjacent to a lower longitudinal edge of the cable duct at least partially having a support web which is disposed on an inner side of the duct cover and extends in the longitudinal direction of the cable duct, the support web having a support surface formed on its underside and a support edge formed at its free end, the support web engaging a bearing channel which is formed at the lower longitudinal edge of the duct base and has two opposite support walls (35, 36), the upper support wall being formed by the lowermost separating web, in such a manner that in an insertion configuration of the cable duct, in which an insertion gap for inserting cables into the cable receiving space of the duct base is formed between an upper longitudinal edge of the duct base and an upper longitudinal edge of the duct cover and the support web has been introduced into the bearing channel, a torque support securing the duct cover on the duct base is formed between the support edge of the support web and the upper support wall of the bearing channel and between the support surface of the support web and the lower support wall of the bearing channel, the support surface being formed by a convex surface of the underside of the support web, the support web having a free space on its upper side, a catch web formed at a free end of the upper support wall engaging said free space, and a catch groove being formed on an upper side of a support web base, which is formed in the area of connection of the support web to the inner side of the duct cover, in such a manner that starting from the insertion configuration, the catch web engages the catch groove in a catching manner to establish a locking connection between the duct cover (13, 14) and the duct base.
Method for operating a railway section with section elements, for example signals, switches and track vacancy detection devices, which are each activated by a processor (1, 1.1, 1.2) that is safe in respect of signalling technology, which cyclically executes a test routine (5; 5.1, 5.2), characterised in that the processor (1; 1.1, 1.2) is operated as required in active mode or sleep mode, wherein the processor (1; 1.1, 1.2) in sleep mode is switched for the duration of the test routine (5; 5.1, 5.2) into active mode by means of a timer logic (6; 6.1, 6.2, 6.3) that is safe in respect of signalling technology.
A method for a User Equipment, UE, operating in a wireless communication system, the method comprising: starting a timer when an uplink grant is received from a Base Station, BS, wherein the uplink grant is valid while the timer is running; transmitting data on the uplink grant when the data is generated while the timer is running; monitoring an Acknowledgement, ACK, indication and a Negative-Acknowledgement, NACK, indication for the transmitted data on a subframe; determining whether the timer is running or not when the ACK indication for the transmitted data is not received on the subframe or the NACK indication for the transmitted data is received on the subframe; retransmitting the data on the uplink grant based on a determination that the timer is running; and discarding the uplink grant and keeping the data based on a determination that the timer is not running. starting a timer when an uplink grant is received from a Base Station, BS, wherein the uplink grant is valid while the timer is running; transmitting data on the uplink grant when the data is generated while the timer is running; monitoring an Acknowledgement, ACK, indication and a Negative-Acknowledgement, NACK, indication for the transmitted data on a subframe; determining whether the timer is running or not when the ACK indication for the transmitted data is not received on the subframe or the NACK indication for the transmitted data is received on the subframe; retransmitting the data on the uplink grant based on a determination that the timer is running; and discarding the uplink grant and keeping the data based on a determination that the timer is not running.
Charging device for charging an electrical energy storage unit of a mobile domestic appliance, wherein the charging device has a housing, wherein the housing defines a direction of travel in which the mobile domestic appliance can be driven from two opposite sides (4, 5) onto a track formed by the housing in order to charge the electrical energy storage unit, wherein the track is formed by a U-shaped portion of the housing of the charging device, wherein the charging device has an electrical interface, wherein the interface is designed to contact a domestic appliance which is driven onto the charging device in order to charge the electrical energy storage unit.
Method for determining the state of health of the cells (Ci) of a battery including a plurality of cells (Ci) connected in series, this method including the following steps: a) during a discharge or charge phase of the battery, measuring the voltage (Ui) across the terminals of each cell (Ci); b) when a first cell (Ci_lim) reaches a predefined end-of-discharge or end-of-charge condition, stopping discharging or charging the battery, and storing, for each other cell (Ci), the voltage (Ui) of the cell at the end of the battery discharge or charge phase; c) determining the charge Qtot extracted from the battery or injected in the battery between the start and the end of a full discharge or charge phase of the battery, and inferring a state of health of the first cell (Ci_lim); d) selecting, from a library of reference discharge or charge curves, as a function of the state of the health indicator of the first cell (Ci_lim) calculated in step c), a reference curve representative of the evolution of the voltage of the first cell as a function of the charge extracted from the first cell or injected into the first cell; and e) determining, for each other cell (Ci) of the battery, from the reference curve selected in step d), an estimate of the charge variation ΔQCi undergone by the cell between: - the passage of the first cell (Ci_lim) to a voltage (Ui) equal to the voltage of the other cell (Ci) at the end of the battery discharge or charge phase, and - the end of the battery discharge or charge phase. a) during a discharge or charge phase of the battery, measuring the voltage (Ui) across the terminals of each cell (Ci); b) when a first cell (Ci_lim) reaches a predefined end-of-discharge or end-of-charge condition, stopping discharging or charging the battery, and storing, for each other cell (Ci), the voltage (Ui) of the cell at the end of the battery discharge or charge phase; c) determining the charge Qtot extracted from the battery or injected in the battery between the start and the end of a full discharge or charge phase of the battery, and inferring a state of health of the first cell (Ci_lim); d) selecting, from a library of reference discharge or charge curves, as a function of the state of the health indicator of the first cell (Ci_lim) calculated in step c), a reference curve representative of the evolution of the voltage of the first cell as a function of the charge extracted from the first cell or injected into the first cell; and e) determining, for each other cell (Ci) of the battery, from the reference curve selected in step d), an estimate of the charge variation ΔQCi undergone by the cell between: - the passage of the first cell (Ci_lim) to a voltage (Ui) equal to the voltage of the other cell (Ci) at the end of the battery discharge or charge phase, and - the end of the battery discharge or charge phase. - the passage of the first cell (Ci_lim) to a voltage (Ui) equal to the voltage of the other cell (Ci) at the end of the battery discharge or charge phase, and - the end of the battery discharge or charge phase.
A Forster Resonance Energy Transfer (FRET)-based lactate nanosensor comprising a bacterial LldR transcription factor between any suitable donor and acceptor fluorescent proteins moieties that are capable in combination of serving as donor and acceptor moieties in FRET, which can be expressed in single cells or cell populations, adherent cells or in suspension, in a cell culture, a tissue culture, a mixed cell culture, or in a tissue explant.
Method for controlling an electrical motor, comprising: - a magnetic rotor comprising at least a couple of magnetic poles (N, S), - a stator comprising at least three coils rolled around teeth, said coils being fed by electrical current, the output torque of the motor being controlled by acting on the electrical current provided to the coils, the method comprising a step consisting in providing corrective harmonic currents (i1c, i2c, i3c) to the coils to obtain a constant output torque, said corrective harmonic currents being computed on the basis of the harmonic profile of the back electromotive force (e1r, e2r, e3r) of the motor, the method comprising, prior to feeding the coils with the corrective currents, the steps of: a) determining the harmonic profile (e1r, e2r, e3r) of the back electromotive force of the motor; b) determining the corrective harmonic currents on the basis of the harmonic profile of the back electromotive force of the motor, in order to obtain a constant output torque, characterised in that the harmonic profile (e1r, e2r, e3r) of the back electromotive force is determined by running the motor in generator mode and measuring voltage variations between the terminals of the coils. - a magnetic rotor comprising at least a couple of magnetic poles (N, S), - a stator comprising at least three coils rolled around teeth, said coils being fed by electrical current, a) determining the harmonic profile (e1r, e2r, e3r) of the back electromotive force of the motor; b) determining the corrective harmonic currents on the basis of the harmonic profile of the back electromotive force of the motor, in order to obtain a constant output torque,
Formulation for rodenticide bait having pre-established and controlled degradation of the active ingredient content in accordance with defined times in such a way as to have a persistence less than three weeks from bringing into use, said formulation comprising - at least one coumarins or thiocoumarins-based ACTIVE INGREDIENT, dissolved in at least one carrier solvent, preferably a palatable one, - a SOLID MATRIX comprising at least one palatable substance; - at least one solid organic ACID soluble in water, able to increase the concentration of H+ ions when the water, in any form, comes into contact with said formulation; - a solid BASIC SUBSTANCE, capable of developing compound of an acid nature when water, in any form, enters into contact with said formulation containing said acid, so as to create an acidic environment to promote the controlled decomposition of at least said active ingredient in a time shorter than three weeks after bringing into use; and optionally - one or more CO-FORMULANTS, wherein said basic substances are calcium carbonate, sodium bicarbonate, sodium carbonate, potassium carbonate and potassium bicarbonate, able to generate CO 2, wherein the quantities of acid and of basic substance are chosen so as to reach the value of acidity in which the active ingredient decomposes completely; said formulation further comprising one or more hygroscopic substances, preferably calcium hydroxide and calcium chloride. - at least one coumarins or thiocoumarins-based ACTIVE INGREDIENT, dissolved in at least one carrier solvent, preferably a palatable one, - a SOLID MATRIX comprising at least one palatable substance; - at least one solid organic ACID soluble in water, able to increase the concentration of H+ ions when the water, in any form, comes into contact with said formulation; - a solid BASIC SUBSTANCE, capable of developing compound of an acid nature when water, in any form, enters into contact with said formulation containing said acid, so as to create an acidic environment to promote the controlled decomposition of at least said active ingredient in a time shorter than three weeks after bringing into use; and optionally - one or more CO-FORMULANTS,