mhurhangee/ep-ind-claims huggingface dataset:
Process for preparing 4-isopropyl-3-methylphenol by reacting meta-cresol with propene, characterized in that a) thymol and unreacted meta-cresol are largely removed distillatively from the reaction mixture and b) the residue remaining from step a) is then distilled in order to remove extremely unvolatile or nonvolatile substances and the resulting distillate, after addition of up to 5% by weight of water, is crystallized, or c) the residue remaining from step a), after addition of up to 5% by weight of water, is crystallized and the crystallized residue is separated by distillation from extremely unvolatile or nonvolatile substances. a) thymol and unreacted meta-cresol are largely removed distillatively from the reaction mixture and b) the residue remaining from step a) is then distilled in order to remove extremely unvolatile or nonvolatile substances and the resulting distillate, after addition of up to 5% by weight of water, is crystallized, or c) the residue remaining from step a), after addition of up to 5% by weight of water, is crystallized and the crystallized residue is separated by distillation from extremely unvolatile or nonvolatile substances.
A method of identifying an antigen-specific T cell receptor sequence as a clone for therapeutic use, comprising: receiving one or more samples comprising T cells; dividing the one or more samples into a first subset and a second subset; performing immunosequencing of rearranged nucleic acid molecules extracted from the first subset of cells to obtain a first plurality of unique sequence reads; determining based on the first plurality of unique sequence reads a relative abundance of each unique TCR sequence out of a total number of T cells in the first subset; enriching the second subset of cells with multimer molecules comprising an HLA-presented antigen to identify a population of antigen-specific T cells that bind the multimer; performing immunosequencing of rearranged nucleic acid molecules extracted from said sorted population of antigen-specific T cells to obtain a second plurality of unique sequence reads; determining based on the second plurality of unique sequence reads a relative abundance of each unique TCR sequence out of a total number of T cells in the second subset; determining a relative change in abundance of each antigen-specific TCR sequence based on the relative abundances of the antigen-specific TCR sequence in the first subset and the second subset; and identifying an antigen-specific TCR sequence based on its relative change in abundance as a clone for therapeutic use for said HLA-presented antigen. receiving one or more samples comprising T cells; dividing the one or more samples into a first subset and a second subset; performing immunosequencing of rearranged nucleic acid molecules extracted from the first subset of cells to obtain a first plurality of unique sequence reads; determining based on the first plurality of unique sequence reads a relative abundance of each unique TCR sequence out of a total number of T cells in the first subset; enriching the second subset of cells with multimer molecules comprising an HLA-presented antigen to identify a population of antigen-specific T cells that bind the multimer; performing immunosequencing of rearranged nucleic acid molecules extracted from said sorted population of antigen-specific T cells to obtain a second plurality of unique sequence reads; determining based on the second plurality of unique sequence reads a relative abundance of each unique TCR sequence out of a total number of T cells in the second subset; determining a relative change in abundance of each antigen-specific TCR sequence based on the relative abundances of the antigen-specific TCR sequence in the first subset and the second subset; and identifying an antigen-specific TCR sequence based on its relative change in abundance as a clone for therapeutic use for said HLA-presented antigen.
A direct-touch diaphragm valve, comprising: a valve body having inlet and outlet passages and allowing flow of halogen gas or halogen compound gas therethrough; a valve chamber being in communication with the inlet and outlet passages; a valve seat located around an open inner end of the inlet passage; a diaphragm arranged on the valve seat so as to hermetically seal the valve chamber and open or close the inlet and outlet passages; a stem adapted to move a center portion of the diaphragm downwardly; and a driving unit adapted to move the stem in a vertical direction, wherein the valve seat and the diaphragm have respective contact surfaces formed therebetween such that the area ratio S b /S a of a contact area S b of the valve seat with the diaphragm to a gas contact surface area S a of the diaphragm ranges from 0.2 to 10%, the direct-touch diaphragm valve being characterized in that the contact surface of the valve seat has a surface roughness Ra of 0.1 to 10.0 μm and a curvature radius R of 100 to 1000 mm. a valve body having inlet and outlet passages and allowing flow of halogen gas or halogen compound gas therethrough; a valve chamber being in communication with the inlet and outlet passages; a valve seat located around an open inner end of the inlet passage; a diaphragm arranged on the valve seat so as to hermetically seal the valve chamber and open or close the inlet and outlet passages; a stem adapted to move a center portion of the diaphragm downwardly; and a driving unit adapted to move the stem in a vertical direction, wherein the valve seat and the diaphragm have respective contact surfaces formed therebetween such that the area ratio S b /S a of a contact area S b of the valve seat with the diaphragm to a gas contact surface area S a of the diaphragm ranges from 0.2 to 10%, the direct-touch diaphragm valve being characterized in that the contact surface of the valve seat has a surface roughness Ra of 0.1 to 10.0 μm and a curvature radius R of 100 to 1000 mm.
A glazing comprising a transparent glass substrate containing ions of at least one alkali metal and a transparent layer made of silicon oxycarbide (SiO x C y) having a total thickness E characterized by (a) a carbon-rich deep zone, extending from a depth P 3 to a depth P 4, where the C/Si atomic ratio is greater than or equal to 0.5, and (b) a carbon-poor surface zone, extending from a depth P 1 to a depth P 2, where the C/Si atomic ratio is less than or equal to 0.4, with P 1 < P 2 < P 3 < P 4 and (P 2 -P d + (P 4 -P 3) < E the distance between P 1 and P 2 representing from 10% to 70% of the total thickness E of the silicon oxycarbide layer and the distance between P 3 and P 4 representing from 10% to 70% of the total thickness E of the silicon oxycarbide layer. (a) a carbon-rich deep zone, extending from a depth P 3 to a depth P 4, where the C/Si atomic ratio is greater than or equal to 0.5, and (b) a carbon-poor surface zone, extending from a depth P 1 to a depth P 2, where the C/Si atomic ratio is less than or equal to 0.4,
LED lighting system, comprising - a primary-side arrangement; - a secondary-side arrangement; and - a feed line, via which the secondary-side arrangement is able to be supplied with electrical energy from the primary-side arrangement, wherein the secondary-side arrangement has one or more semiconductor components; and the primary-side arrangement has a device for providing electrical energy, characterized in that - the one or more semiconductor components are only LED illuminants and - the primary-side arrangement additionally comprises a control device configured to control a present current flow through the feed line depending on a maximum permissible temperature of the feed line, wherein the control device (112, 212) has a sensor configured to detect an actual temperature of the feed line or wherein the control device (112, 212) has a sensor unit configured to detect the present current flow, and the control device (112, 212) is configured to limit the present current flow to a maximum permissible current flow greater than zero, which is dependent on the maximum permissible temperature and is determined taking into account parameters of the feed line. - a primary-side arrangement; - a secondary-side arrangement; and - a feed line, via which the secondary-side arrangement is able to be supplied with electrical energy from the primary-side arrangement, wherein the secondary-side arrangement has one or more semiconductor components; and the primary-side arrangement has a device for providing electrical energy, characterized in that - the one or more semiconductor components are only LED illuminants and - the primary-side arrangement additionally comprises a control device configured to control a present current flow through the feed line depending on a maximum permissible temperature of the feed line, wherein the control device (112, 212) has a sensor configured to detect an actual temperature of the feed line or wherein the control device (112, 212) has a sensor unit configured to detect the present current flow, and the control device (112, 212) is configured to limit the present current flow to a maximum permissible current flow greater than zero, which is dependent on the maximum permissible temperature and is determined taking into account parameters of the feed line.
A light emitting diode driving apparatus comprising: a light emitting diode emitting light by receiving rectified power; a driver driving the light emitting diode based on a voltage level of the rectified power; and a controller limiting an operation of the driver based on a voltage applied to the driver and a hysteresis reference value. a light emitting diode emitting light by receiving rectified power; a driver driving the light emitting diode based on a voltage level of the rectified power; and a controller limiting an operation of the driver based on a voltage applied to the driver and a hysteresis reference value.
A method for periodic system diagnostic of a transport refrigeration system for a refrigerated transport unit, the transport refrigeration system including a transport refrigeration unit controlled by a transport refrigeration system controller and powered by an electronically controlled engine having an engine control unit, the method comprising: the transport refrigeration system controller sending a medium electrical power consumption stage activation signal, via a keyswitch connection, to the engine control unit when the electronically controlled engine is set to an engine operating mode in which the electronically controlled engine is not running, the medium electrical power consumption stage activation signal instructing the engine control unit to activate and operate at a medium electrical power consumption stage; the transport refrigeration system controller obtaining engine sensor data from the engine control unit via a Controller Area Network communication interface bus, characterized in, that the transport refrigeration system controller determines a periodic system diagnostic time period based on the engine sensor data obtained from the engine control unit. the transport refrigeration system controller sending a medium electrical power consumption stage activation signal, via a keyswitch connection, to the engine control unit when the electronically controlled engine is set to an engine operating mode in which the electronically controlled engine is not running, the medium electrical power consumption stage activation signal instructing the engine control unit to activate and operate at a medium electrical power consumption stage; the transport refrigeration system controller obtaining engine sensor data from the engine control unit via a Controller Area Network communication interface bus, characterized in, that the transport refrigeration system controller determines a periodic system diagnostic time period based on the engine sensor data obtained from the engine control unit.
A nanostructured LED device comprising an array of a plurality of individual nanostructured LEDs, each nanostructured LED comprising an active region for light emission, wherein the LED device comprises a plurality of reflectors each associated to one individual nanostructured LED or a group of nanostructured LEDs, and each reflector has a concave surface facing the active region of the respective individual nanostructured LED or active regions of group of nanostructured LEDs, wherein a bottom of the nanostructured LED is contacted via a substrate forming a common bottom contact, characterized in that each nanostructured LED comprises a nanowire having at least a portion thereof enclosed in a volume element and a top contact is provided on the volume element of each nanostructured LED.
Method for controlling the delivery rate (P Q) of a concrete pump for filling a formwork arrangement with a pumpable filling compound as a function of curing-relevant material and environmental parameters, after which the installed filling compound sets within the formwork arrangement, comprising the step: - determining a permissible rate of ascent (vsz) for filling the formwork arrangement with the filling compound on the basis of the material and ambient parameters and is characterized by the following additional steps: - measuring the static filling compound pressure (p F) acting on the formwork arrangement during filling, - calculating the permissible delivery rate (P Q) of the concrete pump as a function of the determined permissible rate of ascent (vsz) and the measured static filling compound pressure (p F) at the formwork arrangement. - determining a permissible rate of ascent (vsz) for filling the formwork arrangement with the filling compound on the basis of the material and ambient parameters and is characterized by the following additional steps: - measuring the static filling compound pressure (p F) acting on the formwork arrangement during filling, - calculating the permissible delivery rate (P Q) of the concrete pump as a function of the determined permissible rate of ascent (vsz) and the measured static filling compound pressure (p F) at the formwork arrangement.
A method for testing the quality of a galvanic connection (10a, 10b, 10c, 10) between a first terminal (110, 120, 220, 410) and a conductive layer (152, 252, 450) of a high-voltage condenser bushing assembly, the method comprising: providing a capacitive test circuit, wherein the capacitive test circuit comprises the first terminal, an AC power source and a measurement unit; providing, by the AC power source, a first test current in the capacitive test circuit, wherein the first test current is an AC current at a first test frequency of 10 kHz or higher; measuring, by the measurement unit, a test parameter indicative of a resistance of the galvanic connection; and determining the quality of the galvanic connection from the measured test parameter. providing a capacitive test circuit, wherein the capacitive test circuit comprises the first terminal, an AC power source and a measurement unit; providing, by the AC power source, a first test current in the capacitive test circuit, wherein the first test current is an AC current at a first test frequency of 10 kHz or higher; measuring, by the measurement unit, a test parameter indicative of a resistance of the galvanic connection; and determining the quality of the galvanic connection from the measured test parameter.
A track link (28,30,128,130) comprising: an elongate link body (36,37) including a first link strap (35,38,138), a second link strap (39,40,140), and a middle section (42,142), and having a first track pin bore (44,45) and a second track pin bore (46,47) formed, respectively, in the first link strap (35,38,138) and the second link strap (39,40,140) and each extending between an inboard side and an outboard side of the elongate link body (36,37); the elongate link body (36,37) further including a lower shoe-mounting surface, and an upper rail surface (53,54,153,154) having an inboard peripheral edge (55,57,155) and an outboard peripheral edge (56,59,156) each formed upon the first link strap (35,38,138), the second link strap (39,40,140), and the middle section (42,142); and the upper rail surface (53,54,153,154) defining a longitudinal midline, and at least one of the inboard peripheral edge (55,57,155) or the outboard peripheral edge (56,59,156) upon each of the first link strap (35,38,138) and the second link strap (39,40,140) being canted, in an inboard-outboard direction, to the longitudinal midline; characterised in that each of the inboard peripheral edge (55,57,) and the outboard peripheral edge in the first link strap (35,38) and the second link strap (39,40) is canted, in the inboard-outboard direction, to the longitudinal midline. an elongate link body (36,37) including a first link strap (35,38,138), a second link strap (39,40,140), and a middle section (42,142), and having a first track pin bore (44,45) and a second track pin bore (46,47) formed, respectively, in the first link strap (35,38,138) and the second link strap (39,40,140) and each extending between an inboard side and an outboard side of the elongate link body (36,37); the elongate link body (36,37) further including a lower shoe-mounting surface, and an upper rail surface (53,54,153,154) having an inboard peripheral edge (55,57,155) and an outboard peripheral edge (56,59,156) each formed upon the first link strap (35,38,138), the second link strap (39,40,140), and the middle section (42,142); and the upper rail surface (53,54,153,154) defining a longitudinal midline, and at least one of the inboard peripheral edge (55,57,155) or the outboard peripheral edge (56,59,156) upon each of the first link strap (35,38,138) and the second link strap (39,40,140) being canted, in an inboard-outboard direction, to the longitudinal midline; characterised in that each of the inboard peripheral edge (55,57,) and the outboard peripheral edge in the first link strap (35,38) and the second link strap (39,40) is canted, in the inboard-outboard direction, to the longitudinal midline.
An electronic apparatus comprising: a communication interface; a memory configured to store a hypervisor; and a processor, wherein the hypervisor is configured to: obtain an authentication key, wherein the authentication key is a key for performing authentication of an external device or encrypting information stored in the electronic apparatus; encrypt the authentication key based on a key that is pre-stored in the memory and store the encrypted authentication key in the memory; based on a request for information that is stored in the memory being received from the external device, decrypt the encrypted authentication key based on the pre-stored key and perform authentication of the external device using the decrypted authentication key; and based on the authentication of the external device being completed, control the communication interface to transmit the stored information to the external device. a communication interface; a memory configured to store a hypervisor; and a processor, wherein the hypervisor is configured to: obtain an authentication key, wherein the authentication key is a key for performing authentication of an external device or encrypting information stored in the electronic apparatus; encrypt the authentication key based on a key that is pre-stored in the memory and store the encrypted authentication key in the memory; based on a request for information that is stored in the memory being received from the external device, decrypt the encrypted authentication key based on the pre-stored key and perform authentication of the external device using the decrypted authentication key; and based on the authentication of the external device being completed, control the communication interface to transmit the stored information to the external device. obtain an authentication key, wherein the authentication key is a key for performing authentication of an external device or encrypting information stored in the electronic apparatus; encrypt the authentication key based on a key that is pre-stored in the memory and store the encrypted authentication key in the memory; based on a request for information that is stored in the memory being received from the external device, decrypt the encrypted authentication key based on the pre-stored key and perform authentication of the external device using the decrypted authentication key; and based on the authentication of the external device being completed, control the communication interface to transmit the stored information to the external device.
Use of a photoactivatable composition for the manufacture of a medicament for the treatment of an oral disease, wherein said composition comprises: at least one oxidant, at least one photoactivator capable of activating the oxidant; and at least one healing factor chosen from hyaluronic acid, glucosamine and allantoin, in association with a pharmacologically acceptable carrier and said treatment comprises: a) applying to a patient's mouth said composition; and b) treating said mouth of step a) to actinic light for a time sufficient for said photoactivator to cause activation of said oxidant. at least one oxidant, at least one photoactivator capable of activating the oxidant; and at least one healing factor chosen from hyaluronic acid, glucosamine and allantoin, in association with a pharmacologically acceptable carrier
A sound signal conversion device comprising: a supplier that supplies a periodic change to an input sound signal and outputs the sound signal to which the periodic change is supplied, wherein the supplier includes a phase determiner that determines a phase at which the periodic change supplied to the sound signal starts based on initial phase information stored in a storage device when receiving a start instruction for starting supply of the periodic change to the sound signal, and characterised in that the supplier stops supplying the periodic change to the sound signal and updates the initial phase information based on a current phase of the periodic change with respect to the sound signal, when accepting a stop instruction for stopping the supply of the periodic change to the sound signal, in a case where a reset phase information is not provided. the supplier includes a phase determiner that determines a phase at which the periodic change supplied to the sound signal starts based on initial phase information stored in a storage device when receiving a start instruction for starting supply of the periodic change to the sound signal, and characterised in that the supplier stops supplying the periodic change to the sound signal and updates the initial phase information based on a current phase of the periodic change with respect to the sound signal, when accepting a stop instruction for stopping the supply of the periodic change to the sound signal, in a case where a reset phase information is not provided.