mhurhangee/ep-ind-claims huggingface dataset:
A system for providing an acidic ionized ozonated liquid, the system comprising: a liquid inlet arranged to accept a liquid into the system; an acid-based cation-exchange resin in fluid communication with the liquid inlet, the resin adapted to treat the liquid by exchanging cations in the accepted liquid with H + ions on the resin; an ozone dissolving apparatus in fluid communication with the liquid inlet and the acid-based cation-exchange resin, wherein the ozone dissolving apparatus is an ozonating flow path which comprises a discharge-type ozone gas generator to produce ozone gas for mixing with the accepted liquid; and a liquid outlet in fluid communication with the liquid inlet, the acid-based cation-exchange resin and the ozone dissolving apparatus, the ozone dissolving apparatus and the acid-based cation-exchange resin cooperating to produce the acidic ionized ozonated liquid for dispensing out of the system via the liquid outlet. a liquid inlet arranged to accept a liquid into the system; an acid-based cation-exchange resin in fluid communication with the liquid inlet, the resin adapted to treat the liquid by exchanging cations in the accepted liquid with H + ions on the resin; an ozone dissolving apparatus in fluid communication with the liquid inlet and the acid-based cation-exchange resin, wherein the ozone dissolving apparatus is an ozonating flow path which comprises a discharge-type ozone gas generator to produce ozone gas for mixing with the accepted liquid; and a liquid outlet in fluid communication with the liquid inlet, the acid-based cation-exchange resin and the ozone dissolving apparatus, the ozone dissolving apparatus and the acid-based cation-exchange resin cooperating to produce the acidic ionized ozonated liquid for dispensing out of the system via the liquid outlet.
Electrical feedthrough assembly, especially for the attachment to a housing, comprising a base body having a first and a second side (31, 33), the base body comprising at least two through holes and at least two pins arranged within the through holes that are electrically isolated from the base body and sealed in the through holes by an insulating material so that at least two feedthroughs are formed in the base body, wherein the coefficient of thermal expansion of the insulating material is smaller than the coefficient of thermal expansion of the base body so that compression seal feedthroughs are provided, wherein at least one of the through holes is configured as a stepped through hole having at least one surface portion adjacent to a side (31, 33) of the base body and a middle portion, wherein the surface portion has a first diameter and the middle portion has a second diameter which is smaller than the first diameter, and wherein the insulating material is present in both the middle portion and in the at least one surface portion of the through hole, characterized in that a distance (d) between the at least two pins, determined as a distance between a center point (c p) of one pin to a center point (c p) of the other pin is in the range of at least 1.2 times and at most 1.6 times of the second diameter of the at least one through hole in the middle portion thereof.
An epoxy resin composition for molding a semiconductor, comprising: an epoxy resin containing an epoxy polymer represented by the following Chemical Formula 1 and an epoxy compound represented by the following Chemical Formula 2; and 50 % by weight or more and 90 % by weight or less of an inorganic filler: wherein, in Chemical Formula 1, R is an alkyl group having 1 to 20 carbon atoms or a cycloalkyl group having 3 to 20 carbon atoms, n is an integer from 1 to 30, C 1 is a cycloalkane having 3 to 10 carbon atoms, and L 1 is a direct bond or an alkylene group having 1 to 10 carbon atoms, wherein, in Chemical Formula 2, C 2 to C 3 are each independently a cycloalkane having 3 to 10 carbon atoms to which an epoxy group is bonded, and L 2 is a direct bond or an alkylene group having 1 to 10 carbon atoms, and wherein the epoxy compound is contained in an amount of 50 parts by weight or more and 90 parts by weight or less, based on 100 parts by weight of the epoxy polymer. an epoxy resin containing an epoxy polymer represented by the following Chemical Formula 1 and an epoxy compound represented by the following Chemical Formula 2; and 50 % by weight or more and 90 % by weight or less of an inorganic filler: 50 % by weight or more and 90 % by weight or less of an inorganic filler: wherein, in Chemical Formula 1, R is an alkyl group having 1 to 20 carbon atoms or a cycloalkyl group having 3 to 20 carbon atoms, n is an integer from 1 to 30, C 1 is a cycloalkane having 3 to 10 carbon atoms, and L 1 is a direct bond or an alkylene group having 1 to 10 carbon atoms, wherein, in Chemical Formula 2, C 2 to C 3 are each independently a cycloalkane having 3 to 10 carbon atoms to which an epoxy group is bonded, and L 2 is a direct bond or an alkylene group having 1 to 10 carbon atoms, and wherein the epoxy compound is contained in an amount of 50 parts by weight or more and 90 parts by weight or less, based on 100 parts by weight of the epoxy polymer.
A method for preparing an aldehyde of general formula: where R is a linear hydrocarbon chain of formula C n H 2n-2p+1, with: - n which is a natural number ranging from 9 to 24, - p corresponding to the number of unsaturations of the hydrocarbon chain which is an integer ranging from 1 to 4; said method is continuous and comprises the following concomitant steps: a) feeding a continuous reactor under oxygen pressure of between 1 and 30 bar with: i) an alcohol of general formula: where R, n and p are as defined previously for the compound of formula, in solution in an apolar organic liquid phase with a density strictly less than 0.7, ii) a copper-based catalyst in solution in a polar liquid phase with a density greater than or equal to 0.75, the phases and being immiscible with each other, the alcohol/copper-based catalyst molar ratio ranging from 0.01 to 0.5, b) recovering the aldehyde in phase by liquid/liquid separation. where R is a linear hydrocarbon chain of formula C n H 2n-2p+1, with: - n which is a natural number ranging from 9 to 24, - p corresponding to the number of unsaturations of the hydrocarbon chain which is an integer ranging from 1 to 4; - n which is a natural number ranging from 9 to 24, - p corresponding to the number of unsaturations of the hydrocarbon chain which is an integer ranging from 1 to 4; said method is continuous and comprises the following concomitant steps: a) feeding a continuous reactor under oxygen pressure of between 1 and 30 bar with: i) an alcohol of general formula: where R, n and p are as defined previously for the compound of formula, in solution in an apolar organic liquid phase with a density strictly less than 0.7, ii) a copper-based catalyst in solution in a polar liquid phase with a density greater than or equal to 0.75, the phases and being immiscible with each other, the alcohol/copper-based catalyst molar ratio ranging from 0.01 to 0.5, b) recovering the aldehyde in phase by liquid/liquid separation. a) feeding a continuous reactor under oxygen pressure of between 1 and 30 bar with: i) an alcohol of general formula: where R, n and p are as defined previously for the compound of formula, in solution in an apolar organic liquid phase with a density strictly less than 0.7, ii) a copper-based catalyst in solution in a polar liquid phase with a density greater than or equal to 0.75, the phases and being immiscible with each other, the alcohol/copper-based catalyst molar ratio ranging from 0.01 to 0.5, i) an alcohol of general formula: where R, n and p are as defined previously for the compound of formula, in solution in an apolar organic liquid phase with a density strictly less than 0.7, ii) a copper-based catalyst in solution in a polar liquid phase with a density greater than or equal to 0.75, the phases and being immiscible with each other, the alcohol/copper-based catalyst molar ratio ranging from 0.01 to 0.5, the phases and being immiscible with each other, the alcohol/copper-based catalyst molar ratio ranging from 0.01 to 0.5, b) recovering the aldehyde in phase by liquid/liquid separation.
A shaped solid food concentrate comprising: a. 35-85% by weight crystalline ingredients composed of at least one of salt, monosodium glutamate and sugar; b. 0.1-10% by weight gelatinized starch; c. 0.2-20% by weight water; and d. 0-50% by weight of taste imparting components; wherein the shaped solid food concentrate is in the form of a pressed cube, comprising 1-6% by weight solid fat or an extruded or pasty cubes comprising 3-12% by weight solid fat. a. 35-85% by weight crystalline ingredients composed of at least one of salt, monosodium glutamate and sugar; b. 0.1-10% by weight gelatinized starch; c. 0.2-20% by weight water; and d. 0-50% by weight of taste imparting components;
A thermal conduction device having a multi-layered structure which is partially cross-layered, wherein a thermal conducting structure of a particular cross-layered overlapping layer construction is made of materials with different thermal conducting characteristics, a relay thermal conductor of the thermal conduction device being made of material with high thermal conductivity coefficient is thermal conductively coupled with a heating or cooling first thermal body at one end or surface thereof, and is coupled with an interface thermal conductor at the other end or surface thereof, and the interface thermal conductor having the thermal conducting characteristics with all or at least one of the 1) higher specific heat capacity relative to relay thermal conductor, or 2) a better thermal conductivity coefficient to a second thermal body relative to relay thermal conductor, or 3) a better thermal emissivity to second thermal body relative to relay thermal conductor, and is favorable for thermal energy conduction by the particular cross-layered overlapping layer construction when there is temperature difference between the first thermal body and the second thermal body, characterized in that the relay thermal conductor is located substantially between the first thermal body and the interface thermal conductor, and wherein the first thermal body directly contacts the interface thermal conductor through a central region of the first thermal body.
Maize having an allele of the gene C4H, referred to as D1938, comprising an insertion of a transposon after the nucleotide 2852 of SEQ ID N0:1, said allele being present in a representative sample of seeds deposited with NCIMB under the number NCIMB 41507.
A method of measuring distance between a first unit and at least one second unit, the units being respectively provided with first and second UWB transceivers (11, 21) having respective first and second internal clocks (16, 26), with communication between the units (10, 20) taking place in duplex mode by time division over a plurality of frames (40, 44, 45, 46), each having at least one downlink time slot dedicated to transmitting a first UWB signal (SIG10, SIG20, SIG30) from the first unit to the second unit, and at least one uplink time slot dedicated to the first unit receiving a second UWB signal (SIG20*, SIG30*) transmitted by the second unit (20, 30), the time slots being counted cyclically by the first unit and by the second unit (20, 30) from respective first and second time references (T10, T20, T30), the first and second time references (T10, T20, T30) being given cyclically by the first and second internal clocks (16, 26, 36) respectively, the method comprising the following steps: - the first unit transmitting the first UWB signal during the downlink time slot; - the second unit (20, 30) transmitting a second UWB signal (SIG20*, SIG30*) during the uplink time slot, which signal includes an indication associated with the time that elapsed between the second time reference (T20, T30) and reception of the first UWB signal; and - the first unit determining the distance (D 10-20) between itself and the second unit. - the first unit transmitting the first UWB signal during the downlink time slot; - the second unit (20, 30) transmitting a second UWB signal (SIG20*, SIG30*) during the uplink time slot, which signal includes an indication associated with the time that elapsed between the second time reference (T20, T30) and reception of the first UWB signal; and - the first unit determining the distance (D 10-20) between itself and the second unit.
A method for scheduling wireless communications by a user equipment, UE, the method comprising: receiving an indication to modify a time domain resource allocation configuration, the time domain resource allocation configuration comprising one or more configurations of time domain resources relative to reception of physical downlink control channel, PDCCH, each of the one or more configurations indicating a scheduling offset indicative of a number of slots offset from the reception of PDCCH; modifying the time domain resource allocation configuration to prevent any configurations being used to indicate a scheduling offset of at least a first value in response to the indication; detecting a first PDCCH in a first slot; processing the first PDCCH to determine a first configuration of the time domain resource allocation configuration indicated in the first PDCCH; determining time domain resources of a second slot based on the determined first configuration, wherein the second slot is different than the first slot; and one of transmitting data on a physical uplink shared channel, PUSCH or receiving data on a physical downlink shared channel, PDSCH in the determined time domain resources of the second slot. receiving an indication to modify a time domain resource allocation configuration, the time domain resource allocation configuration comprising one or more configurations of time domain resources relative to reception of physical downlink control channel, PDCCH, each of the one or more configurations indicating a scheduling offset indicative of a number of slots offset from the reception of PDCCH; modifying the time domain resource allocation configuration to prevent any configurations being used to indicate a scheduling offset of at least a first value in response to the indication; detecting a first PDCCH in a first slot; processing the first PDCCH to determine a first configuration of the time domain resource allocation configuration indicated in the first PDCCH; determining time domain resources of a second slot based on the determined first configuration, wherein the second slot is different than the first slot; and one of transmitting data on a physical uplink shared channel, PUSCH or receiving data on a physical downlink shared channel, PDSCH in the determined time domain resources of the second slot.
A food or beverage product comprising cycloaspartylglycine, glucose, and maltose, wherein a content of cycloaspartylglycine in the food or beverage product is 0.0080 to 3.0 mg/100 mL, and a weight ratio of the content of glucose to the content of maltose ([glucose]/[maltose] weight ratio) in the food or beverage product is 0.080 to 7.0. a content of cycloaspartylglycine in the food or beverage product is 0.0080 to 3.0 mg/100 mL, and a weight ratio of the content of glucose to the content of maltose ([glucose]/[maltose] weight ratio) in the food or beverage product is 0.080 to 7.0.
A method for controlling a vehicle having wheels located on a fixed path, the vehicle comprising a vehicle processor and a vehicle sensor device, the method comprising: determining an actual velocity of the vehicle while the vehicle is moving along the path, using the vehicle processor and the vehicle sensor device; comparing, using a position control correction module, the actual velocity of the vehicle to a velocity command generated by the vehicle processor and utilizing the comparison result to determine if wheel slip is occurring; and decreasing the magnitude of the vehicle velocity command where the comparison result indicates that wheel slip is occurring. determining an actual velocity of the vehicle while the vehicle is moving along the path, using the vehicle processor and the vehicle sensor device; comparing, using a position control correction module, the actual velocity of the vehicle to a velocity command generated by the vehicle processor and utilizing the comparison result to determine if wheel slip is occurring; and decreasing the magnitude of the vehicle velocity command where the comparison result indicates that wheel slip is occurring.
A method of determining a measure of wave speed in a fluid flowing through a fluid conduit, the method comprising: using ultrasound measurements to determine the conduit diameter or conduit cross-sectional area, as a function of time, at a longitudinal position of the conduit; using ultrasound measurements to determine fluid velocity, as a function of time, in a volume element at said longitudinal position of the conduit, the ultrasound measurement to determine fluid velocity being effected by tracking objects within the fluid flow in successive frames sampling the volume element, and obtaining displacement vectors for the objects; determining a wave speed from a function of (i) the change in fluid velocity at the longitudinal position as a function of time and (ii) the change in the conduit diameter or conduit cross-sectional area, as a function of time. using ultrasound measurements to determine the conduit diameter or conduit cross-sectional area, as a function of time, at a longitudinal position of the conduit; using ultrasound measurements to determine fluid velocity, as a function of time, in a volume element at said longitudinal position of the conduit, the ultrasound measurement to determine fluid velocity being effected by tracking objects within the fluid flow in successive frames sampling the volume element, and obtaining displacement vectors for the objects; determining a wave speed from a function of (i) the change in fluid velocity at the longitudinal position as a function of time and (ii) the change in the conduit diameter or conduit cross-sectional area, as a function of time.
A system for operating a latching assembly used with an oilfield device, comprising: the latching assembly disposed in a housing configured to be positioned below a water surface; a first signal device configured to be disposed below the water surface; a second signal device coupled with said housing wherein the latching assembly is configured to operate in response to a first signal transmitted wirelessly and remotely from said first signal device through a body of water to said second signal device when said first signal device is spaced apart from and not connected with said housing; a first accumulator configured to communicate with the latching assembly; an umbilical line configured to communicate with the latching assembly; and a first valve configured to control fluid communication to the latching assembly and having a first position allowing flow of hydraulic fluid from the umbilical line to the latching assembly, and a second position allowing flow of hydraulic fluid from the first accumulator to the latching assembly. the latching assembly disposed in a housing configured to be positioned below a water surface; a first signal device configured to be disposed below the water surface; a second signal device coupled with said housing wherein the latching assembly is configured to operate in response to a first signal transmitted wirelessly and remotely from said first signal device through a body of water to said second signal device when said first signal device is spaced apart from and not connected with said housing; a first accumulator configured to communicate with the latching assembly; an umbilical line configured to communicate with the latching assembly; and a first valve configured to control fluid communication to the latching assembly and having a first position allowing flow of hydraulic fluid from the umbilical line to the latching assembly, and a second position allowing flow of hydraulic fluid from the first accumulator to the latching assembly.
A needle for viewing under ultrasound imaging via ultrasound waves emitted by an ultrasound transducer, the needle having a shaft extending along a longitudinal axis having an outer circumferential wall, a proximal end and a distal end including a sharp tip, one groove formed spirally from at least adjacent the sharp tip to a predetermined distance along the outer circumferential wall of the shaft away from the sharp tip, characterised in that: the one groove has two walls (16w1, 16w2) orthogonal to each other formed onto the outer circumferential wall of the shaft with the orthogonal walls shifted together from a neutral position of the groove to a tilt angle (α) toward the proximal end of the shaft relative to the longitudinal axis of the shaft such that, when the needle is inserted into the subject at a desired insertion angle (Δ), one of the walls (16w2) of the one groove would be positioned substantially 90° from the ultrasound waves emitted from the ultrasound transducer to reflect the ultrasound waves toward the needle in a substantially reverse direction back to the transducer.
Fork-frame unit for a two or three wheeled vehicle, having a vehicle frame with a head tube connected to at least one frame tube and having a vehicle fork, which has a fork stem, which is centred and pivotably mounted in the head tube by means of a headset, wherein the headset has at least one steering bearing arranged in the head tube and at least one centering ring arranged on the fork stem interfacing with the steering bearing, which has at least one aperture for at least one flexible control means routed from the outside to the inside of the vehicle frame, characterised by at least one protective sleeve for the control means arranged inside the head tube between the latter and the fork stem.
Control device for a radiator fan, in particular for a radiator fan of a motor vehicle, comprising an external closed-loop control device designed to generate a control variable for an electric motor of the radiator fan according to a first predetermined desired value, comprising an internal closed-loop control device designed for the closed-loop control of the motor current of the electric motor of the radiator fan, according to a predetermined first motor current maximum value, when the control variable generated by the external closed-loop control device assumes a value such that the motor current exceeds the predetermined first motor current maximum value; characterised in that the control device has a second maximum value which presets the maximum value which can be set of the control variable, the radiator fan being designed such that, at room temperature, the motor current of the electric motor increases to the first maximum value before the electric motor reaches such a speed as is necessary to set the second maximum value with the radiator fan, wherein the first predetermined desired value is generated according to the temperature and/or height above sea level and/or the ambient air density.