mhurhangee/ep-ind-claims huggingface dataset:
- Use of at least one phenolic composition of following formula: Formula wherein: • R 1 is: - a hydrogen atom, - a linear C 1 - C 8 alkyl radical, - a linear C 1 - C 8 hydroxyalkyl radical, - a hydroxy group, • R 2, R 3 and R 5, the same or different, are: - a hydrogen atom, - a linear or branched C 1 - C 8 alkyl radical, optionally substituted by one or more hydroxy radicals, - a linear or branched C 1 - C 8 alkoxy radical, optionally substituted by one or more hydroxy groups, - a hydroxy group • R 4 is: - a linear or branched C 1 - C 8 alkyl radical, optionally substituted by one or more hydroxy radicals, - a linear or branched C 1 - C 8 alkoxy radical, optionally substituted by one or more hydroxy radicals, - a hydroxy group • on the understanding that R 4 and R 5 together can form a five- or six-membered ring comprising an oxygen atom; said ring being substituted by a linear or branched C 1 - C 17 alkyl radical, to stabilise radical copolymerization reactions of ethylene under high pressure in the presence of one or more initiators, the initiator(s) preferably being chosen from among organic peroxides, oxygen, azobisisobutyronitrile (AIBN) and mixtures thereof, by limiting the decomposition of ethylene in radical copolymerization reactions of ethylene under high pressure. • R 1 is: - a hydrogen atom, - a linear C 1 - C 8 alkyl radical, - a linear C 1 - C 8 hydroxyalkyl radical, - a hydroxy group, - a hydrogen atom, - a linear C 1 - C 8 alkyl radical, - a linear C 1 - C 8 hydroxyalkyl radical, - a hydroxy group, • R 2, R 3 and R 5, the same or different, are: - a hydrogen atom, - a linear or branched C 1 - C 8 alkyl radical, optionally substituted by one or more hydroxy radicals, - a linear or branched C 1 - C 8 alkoxy radical, optionally substituted by one or more hydroxy groups, - a hydroxy group - a hydrogen atom, - a linear or branched C 1 - C 8 alkyl radical, optionally substituted by one or more hydroxy radicals, - a linear or branched C 1 - C 8 alkoxy radical, optionally substituted by one or more hydroxy groups, - a hydroxy group • R 4 is: - a linear or branched C 1 - C 8 alkyl radical, optionally substituted by one or more hydroxy radicals, - a linear or branched C 1 - C 8 alkoxy radical, optionally substituted by one or more hydroxy radicals, - a hydroxy group - a linear or branched C 1 - C 8 alkyl radical, optionally substituted by one or more hydroxy radicals, - a linear or branched C 1 - C 8 alkoxy radical, optionally substituted by one or more hydroxy radicals, - a hydroxy group • on the understanding that R 4 and R 5 together can form a five- or six-membered ring comprising an oxygen atom; said ring being substituted by a linear or branched C 1 - C 17 alkyl radical,
Elevator system comprising a shaft frame with a photovoltaic controller comprising a shaft glazing (1, 11a, 11b) for an elevator shaft which can be attached to a building, at least one photovoltaic converter (12, 14, 16, 16' 100) which converts incoming radiation energy into electrical power, the elevator system comprising aggregates, a control unit and a feed unit which provides the generated electrical power for further processing, wherein the control unit supplying the aggregates with control signals and electrical power provided by the feed unit, characterized in that a control unit with sensors is provided which makes at least a part of the photovoltaic converters (12, 14, 16, 16' 100) movable by actuators in dependence on the incoming radiation energy, wherein the control unit controls the actuators for producing defined openings for ventilating the shaft interior as a function of the incoming radiation energy and/or the temperature and/or the air humidity and/or the light conditions in the shaft interior and/or of the intensity of the radiation energy and/or of the weather conditions and/or of the wind speed and/or air humidity and/or of the surface humidity outside the shaft framework cladding and/or of the temperature at at least one point of the shaft cladding.
A chorionic gonadotropin carboxy terminal peptide -modified polypeptide comprising a growth hormone, wherein one CTP is attached to the amino terminus of said growth hormone, and two chorionic gonadotropin CTPs are attached in tandem to the carboxy terminus of said growth hormone, optionally including a signal peptide attached to the amino terminus of said one CTP, for use in maintaining insulin-like growth factor (IGF-1) levels within a normal therapeutic range of ±2 SDS in a human subject for six months, wherein the subject is a growth hormone deficient child, and said CTP-modified growth hormone is administered once a week at a dose of 0.66 mg/kg/week.
A method for predicting efficiency of introduction into a cancer cell of a complex comprising a peptide containing a basic amino acid residue and mercaptoundecahydrodecaborate, or BSH to which a peptide containing a basic amino acid residue is covalently linked, the method comprising examining expression of CD44 in the cancer cell in a sample, wherein the peptide containing a basic amino acid residue contains an arginine residue and/or a lysine residue and is 2 to 20 amino acids in length.
An apparatus for culturing cells comprising two or more culture compartments and a pooling compartment, wherein: each of said two or more culture compartments is separated from the other culture compartments; each of said two or more culture compartments comprises a port for the addition or removal of medium; and the pooling compartment communicates with said two or more culture compartments. each of said two or more culture compartments is separated from the other culture compartments; each of said two or more culture compartments comprises a port for the addition or removal of medium; and the pooling compartment communicates with said two or more culture compartments.
A detection arrangement comprising: a blood culture bottle incorporating a colorimetric sensor subject to change of color due to change in pH or CO 2 of a sample medium within the blood culture bottle, a sensor LED illuminating the colorimetric sensor; a reference LED illuminating the colorimetric sensor; a control circuit for selectively and alternately activating the sensor LED and the reference LED; and a photodetector, the photodetector measuring reflectance from the colorimetric sensor during the selective and alternating illumination of the colorimetric sensor with the sensor LED and the reference LED and generating intensity signals; wherein the reference LED is selected to have a peak wavelength of illumination such that the intensity signals of the photodetector from illumination by the reference LED are not substantially affected by changes in the color of the colorimetric sensor, and wherein the peak wavelength of illumination of the reference LED is below about 490 nm; said detection arrangement further comprising a computer receiving the intensity signals, the computer including a memory storing a calibration relationship between intensity signals for the reference LED as a function of distance of the bottle from a home position in relation to the detection arrangement. a blood culture bottle incorporating a colorimetric sensor subject to change of color due to change in pH or CO 2 of a sample medium within the blood culture bottle, a sensor LED illuminating the colorimetric sensor; a reference LED illuminating the colorimetric sensor; a control circuit for selectively and alternately activating the sensor LED and the reference LED; and a photodetector, the photodetector measuring reflectance from the colorimetric sensor during the selective and alternating illumination of the colorimetric sensor with the sensor LED and the reference LED and generating intensity signals; wherein the reference LED is selected to have a peak wavelength of illumination such that the intensity signals of the photodetector from illumination by the reference LED are not substantially affected by changes in the color of the colorimetric sensor, and wherein the peak wavelength of illumination of the reference LED is below about 490 nm;
Automotive fluid pump arrangement with a pump unit and a mounting device for supporting and mounting the pump unit, the mounting device comprising: a ring-shaped vibration-decoupling support part radially enclosing and supporting the pump unit, the support part being provided with an axial stop surface cooperating with a corresponding axial pump unit stop surface for axially stopping the pump unit in the axial mounting direction and being provided with a mounting part for attaching the mounting device to a corresponding motor vehicle mounting structure, the automotive fluid pump arrangement being characterised in that the ring-shaped support part is provided with a tensioned friction-enhancing longitudinal lip ring surrounding the pump unit utricularly to frictionally lock the pump unit in the axial dismounting direction. a ring-shaped vibration-decoupling support part radially enclosing and supporting the pump unit, the support part being provided with an axial stop surface cooperating with a corresponding axial pump unit stop surface for axially stopping the pump unit in the axial mounting direction and being provided with a mounting part for attaching the mounting device to a corresponding motor vehicle mounting structure, the automotive fluid pump arrangement being characterised in that the ring-shaped support part is provided with a tensioned friction-enhancing longitudinal lip ring surrounding the pump unit utricularly to frictionally lock the pump unit in the axial dismounting direction.
A method, comprising: receiving a driver signal for an acoustic transducer of an acoustic device having active noise reduction features; receiving a signal from a microphone of the acoustic device; processing the driver signal through a filter to provide a reference signal, the filter having a transfer function associated with a condition of the acoustic device; comparing the signal to the reference signal to determine whether the signal has a threshold similarity to the reference signal; and indicating the condition of the acoustic device in response to the determined threshold similarity; characterised by: the signal being a feedforward signal; the microphone being a feedforward microphone of the acoustic device; and the condition being an instability in the feedforward pathway arising when an earbud of the acoustic device is cupped in a palm of a user of the acoustic device while the earbud is in an Aware mode where some surrounding sounds are allowed to be heard by the user, thereby causing an acoustic feedback path from the acoustic transducer to the feedforward microphone. receiving a driver signal for an acoustic transducer of an acoustic device having active noise reduction features; receiving a signal from a microphone of the acoustic device; processing the driver signal through a filter to provide a reference signal, the filter having a transfer function associated with a condition of the acoustic device; comparing the signal to the reference signal to determine whether the signal has a threshold similarity to the reference signal; and indicating the condition of the acoustic device in response to the determined threshold similarity; characterised by: the signal being a feedforward signal; the microphone being a feedforward microphone of the acoustic device; and the condition being an instability in the feedforward pathway arising when an earbud of the acoustic device is cupped in a palm of a user of the acoustic device while the earbud is in an Aware mode where some surrounding sounds are allowed to be heard by the user, thereby causing an acoustic feedback path from the acoustic transducer to the feedforward microphone. the signal being a feedforward signal; the microphone being a feedforward microphone of the acoustic device; and the condition being an instability in the feedforward pathway arising when an earbud of the acoustic device is cupped in a palm of a user of the acoustic device while the earbud is in an Aware mode where some surrounding sounds are allowed to be heard by the user, thereby causing an acoustic feedback path from the acoustic transducer to the feedforward microphone.
A single junction or multijunction photovoltaic cell (10, 20) comprising a stack of layers, the stack comprising: a. a transparent substrate (11,21), b. a first electrically conductive and transparent contact layer (12, 22), c. a first organic semiconductor layer (14, 24), d. a transition metal oxide optical spacer layer (15, 25), and e. a second electrically conducting layer (16, 28) being optically non-transparent and being light reflecting, wherein said optical spacer layer (15, 25) has a first and a second side, wherein said first side is adjacent to the first organic semiconductor layer (14, 24), wherein said optical spacer layer (15, 25) is in between the second electrically conductive layer (16, 28) and said first organic semiconductor layer (14, 24), wherein said transition metal oxide optical spacer layer (15, 25) is doped with a metal, and prevents damage to said first organic semiconductor layer with which it is contiguous, characterized in that said transition metal oxide optical spacer layer has a thickness of from 30 to 500 nm. a. a transparent substrate (11,21), b. a first electrically conductive and transparent contact layer (12, 22), c. a first organic semiconductor layer (14, 24), d. a transition metal oxide optical spacer layer (15, 25), and e. a second electrically conducting layer (16, 28) being optically non-transparent and being light reflecting,
A power-transmitting device comprising: a resonance coil that performs power transmission wirelessly underwater by means of magnetic field resonance, and a balloon that internally houses the resonance coil. a resonance coil that performs power transmission wirelessly underwater by means of magnetic field resonance, and a balloon that internally houses the resonance coil.
Integrated regulator, in particular voltage regulator for personal protection means in a vehicle, having a regulating element, which converts an input signal (V in) into an output signal (V out) with a predefined value, and a drive circuit (12, 12') which drives the regulating element to generate the output signal (V out) with the predefined value, wherein the drive circuit (12, 12') outputs the output signal (V out) with at least two different selectable values (V1, V2) via the regulating element on the basis of a preset signal (V FB1, V FB2, V ref1, V ref2), wherein, in order to select the value (V1, V2) of the output signal (V out), a configuration circuit receives and evaluates at least one configuration signal (CF 1, CF 2) and selects one of at least two different preset signals (V FB1, V FB2, V ref1, V ref2) on the basis of a configuration determined during the evaluation and applies it to the drive circuit (12, 12') in order to output the output signal (V out) with the selected value (V1, V2), characterized in that the at least one configuration signal (CF 1, CF 2) can be generated using a pin configuration, wherein a corresponding connection pin (K1, K2) is permanently connected to earth in order to generate a first logic signal level for the at least one configuration signal (CF 1, CF 2), and wherein a corresponding connection pin (K1, K2) is left open in order to generate a second logic signal level for the at least one configuration signal (CF 1, CF 2).
A dynamic damper, comprising: a damper housing formed into a cylindrical shape and formed radially outer side of a rotational center of a rotary member subjected to torsional vibrations in a manner such that a geometrical center thereof extends in parallel with a rotational center axis of the rotary member; a rolling surface formed on an inner wall of the damper housing; an inertial mass held in the damper housing to damp the torsional vibrations by a circumferential oscillating motion thereof on the rolling surface resulting from the torsional vibration; and a pair of receiving faces that is formed on the rolling surface symmetrically across a through-thickness central plane (ts) of the inertial mass; wherein the receiving faces are formed in a manner such that reaction forces thereof individually counteracts each load exerted thereto by the inertial mass from two directions symmetrically across the through-thickness central plane (ts) of the inertial mass perpendicular to an axial direction of the rotary member, and that lines of action of the reaction forces intersect at the through-thickness central plane (ts), so that components of each reaction force in the axial direction will act equally in opposite directions, wherein the pair of the receiving faces is formed on both width ends of the rolling surface or on a width center of the rolling surface, wherein the inertial mass is comprised of: a weight that has a predetermined mass; a plurality of rolling members that roll on the rolling surface; and a retainer member that holds the rolling member in a rotatable manner, characterized in that a plurality of arrays of the rolling members is arranged in the circumferential direction of the rotary member symmetrically across the through-thickness central plane of the inertial mass. a damper housing formed into a cylindrical shape and formed radially outer side of a rotational center of a rotary member subjected to torsional vibrations in a manner such that a geometrical center thereof extends in parallel with a rotational center axis of the rotary member; a rolling surface formed on an inner wall of the damper housing; an inertial mass held in the damper housing to damp the torsional vibrations by a circumferential oscillating motion thereof on the rolling surface resulting from the torsional vibration; and a pair of receiving faces that is formed on the rolling surface symmetrically across a through-thickness central plane (ts) of the inertial mass; a weight that has a predetermined mass; a plurality of rolling members that roll on the rolling surface; and a retainer member that holds the rolling member in a rotatable manner, characterized in that a plurality of arrays of the rolling members is arranged in the circumferential direction of the rotary member symmetrically across the through-thickness central plane of the inertial mass.
A method for irradiation of a moving target volume in a non-living body or for simulating irradiation of a moving target volume, comprising the steps of: - irradiating the target volume in a manner so that the beam used to irradiate the target volume tracks the movement of the target volume; - determining a dose distribution that occurred in a region (40, 42, 54, 62, 64, 66) different from the target volume during the irradiation of the target volume, wherein said region (40, 42, 54, 62, 64, 66) is subject to a different movement pattern than the target volume and/or wherein said region (40, 42, 54, 62, 64, 66) is subject to a different motion-related change in particle range than the target volume, characterized by: - taking into account the dose distribution that occurred in the region different from the target volume during the irradiation of the target volume for checking the motion tracking. - irradiating the target volume in a manner so that the beam used to irradiate the target volume tracks the movement of the target volume; - determining a dose distribution that occurred in a region (40, 42, 54, 62, 64, 66) different from the target volume during the irradiation of the target volume, wherein said region (40, 42, 54, 62, 64, 66) is subject to a different movement pattern than the target volume and/or wherein said region (40, 42, 54, 62, 64, 66) is subject to a different motion-related change in particle range than the target volume, - taking into account the dose distribution that occurred in the region different from the target volume during the irradiation of the target volume for checking the motion tracking.
A method of preparing a superabsorbent polymer, the method comprising the steps of: carrying out a crosslinking polymerization of a water-soluble ethylene-based unsaturated monomer having acidic groups which are at least partially neutralized, in the presence of an internal crosslinking agent represented by Chemical Formula 1, to form a water-containing gel polymer; gel-pulverizing the water-containing gel polymer; drying, pulverizing, and size-sorting the gel-pulverized water-containing gel polymer to form a base polymer powder; and carrying out a surface crosslinking of the base polymer powder by heat treatment in the presence of a surface crosslinking agent, wherein the gel-pulverizing step is carried out by extruding the water-containing gel polymer through a porous plate having a plurality of holes using a screw extruder mounted inside a cylindrical pulverizer under condition that a chopping index according to the following Equation 1 is 28 (/s) or more: in Chemical Formula 1, R 1 is a divalent organic group derived from alkane having 1 to 10 carbon atoms, and R 2 is hydrogen or a methyl group, Chopping index C. I. = ω × TSC / A × number of times of chopping T in Equation 1, ω represents angular velocity (2π X N/60s) of screw in the screw extruder, wherein N represents the number of rotation (rpm) of the screw, TSC represents a solid content (%) of the water-containing gel polymer fed into the pulverizer, and A represents porosity (πr 2 X n / πR 2) of the porous plate, wherein r represents a radius (mm) of the holes formed in the porous plate, n represents the number of holes formed in the porous plate, and R represents a radius (mm) of the porous plate. gel-pulverizing the water-containing gel polymer; drying, pulverizing, and size-sorting the gel-pulverized water-containing gel polymer to form a base polymer powder; and carrying out a surface crosslinking of the base polymer powder by heat treatment in the presence of a surface crosslinking agent, wherein the gel-pulverizing step is carried out by extruding the water-containing gel polymer through a porous plate having a plurality of holes using a screw extruder mounted inside a cylindrical pulverizer under condition that a chopping index according to the following Equation 1 is 28 (/s) or more: in Chemical Formula 1, R 1 is a divalent organic group derived from alkane having 1 to 10 carbon atoms, and R 2 is hydrogen or a methyl group, Chopping index C. I. = ω × TSC / A × number of times of chopping T in Equation 1, ω represents angular velocity (2π X N/60s) of screw in the screw extruder, wherein N represents the number of rotation (rpm) of the screw, TSC represents a solid content (%) of the water-containing gel polymer fed into the pulverizer, and A represents porosity (πr 2 X n / πR 2) of the porous plate, wherein r represents a radius (mm) of the holes formed in the porous plate, n represents the number of holes formed in the porous plate, and R represents a radius (mm) of the porous plate.