mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a degree of heat damage to hair, comprising: while exposing a hair sample of the hair to UV or UV/VIS light, recording a spectrum of at least one part of the UV or UV/VIS light that has interacted with the hair sample; comparing at least one part of the spectrum with a spectroscopic calibration model obtained by means of UV or UV/VIS spectra and degrees of heat damage to a plurality of calibration hair samples; and determining the degree of heat damage to the hair taking into account the comparison, wherein the method further comprises: creating the calibration model, comprising: for the plurality of calibration hair samples: while exposing the calibration hair sample to UV or UV/VIS light, recording a spectrum of at least one part of the UV or VIS light that has interacted with the hair sample; determining a degree of heat damage to the calibration hair sample using an independent method; and assigning the degree of heat damage to the calibration spectrum; and determining a correlation between the plurality of calibration spectra and the plurality of degrees of heat damage. while exposing a hair sample of the hair to UV or UV/VIS light, recording a spectrum of at least one part of the UV or UV/VIS light that has interacted with the hair sample; comparing at least one part of the spectrum with a spectroscopic calibration model obtained by means of UV or UV/VIS spectra and degrees of heat damage to a plurality of calibration hair samples; and determining the degree of heat damage to the hair taking into account the comparison, wherein the method further comprises: creating the calibration model, comprising: for the plurality of calibration hair samples: while exposing the calibration hair sample to UV or UV/VIS light, recording a spectrum of at least one part of the UV or VIS light that has interacted with the hair sample; determining a degree of heat damage to the calibration hair sample using an independent method; and assigning the degree of heat damage to the calibration spectrum; and determining a correlation between the plurality of calibration spectra and the plurality of degrees of heat damage. while exposing the calibration hair sample to UV or UV/VIS light, recording a spectrum of at least one part of the UV or VIS light that has interacted with the hair sample; determining a degree of heat damage to the calibration hair sample using an independent method; and assigning the degree of heat damage to the calibration spectrum; and determining a correlation between the plurality of calibration spectra and the plurality of degrees of heat damage.
A down product comprising at least one bonding pattern line for compartment separation which is composed of an inner bonding line formed between an inner fabric and an outer fabric and a surface pattern line formed on the outer surface of the outer fabric, wherein: - said inner bonding line is formed on the inner surfaces of the inner fabric and the outer fabric by fixing a heat-reactive adhesive (103, 104) on the surface of the inner or outer fabrics in a predetermined printing pattern, high-frequency heating and curing said fixed adhesive, and thus combining said fabrics with the reacted and cured adhesive, - said surface pattern line is formed on the surface of the outer fabric by pressing said inner fabric and outer fabric together in a predetermined pressing pattern under the high-frequency heating to cause a difference in surface texture, - the inner bonding line issued from said printing pattern and the surface pattern line issued from said pressing pattern are the same in pattern shape and have a width difference of 10% or less, and - said surface pattern line is substantially unified with the inner bonding line by the adhesive (103, 104) oozed onto or near to the surface of the outer fabric and then cured. - said inner bonding line is formed on the inner surfaces of the inner fabric and the outer fabric by fixing a heat-reactive adhesive (103, 104) on the surface of the inner or outer fabrics in a predetermined printing pattern, high-frequency heating and curing said fixed adhesive, and thus combining said fabrics with the reacted and cured adhesive, - said surface pattern line is formed on the surface of the outer fabric by pressing said inner fabric and outer fabric together in a predetermined pressing pattern under the high-frequency heating to cause a difference in surface texture, - the inner bonding line issued from said printing pattern and the surface pattern line issued from said pressing pattern are the same in pattern shape and have a width difference of 10% or less, and - said surface pattern line is substantially unified with the inner bonding line by the adhesive (103, 104) oozed onto or near to the surface of the outer fabric and then cured.
Current transformer, comprising a current sensor, which is designed to convert a conductor current (1, I LOAD), flowing in an electrical conductor, into an output voltage proportional to the conductor current (1, I LOAD), characterized in that the current transformer comprises a first processing branch in which a means is provided for calculating the effective value of the output voltage, as well as a second processing branch in which a means is provided for detecting a polarity (+/-) of the direct current component of the output voltage, wherein the current transformer is arranged to multiply the effective value by a positive or negative factor, depending on the detected polarity (+/-) of the output voltage of the current sensor, wherein the positive factor is also chosen in case of a pure alternating current as the conductor current (1, I LOAD), and to output the signed effective value as an output signal (2, U OUT / I OUT).
A bedding or seating product comprising a spring core made up of upper and lower border wires and a plurality of identically configured coil springs each made of a single piece of wire having a central spiral portion defining a central spring axis and terminating at opposing ends with unknotted upper and lower end turns (72a, 72b) disposed in planes substantially perpendicular to the spring axis, each of the upper and lower end turns (72a, 72b) being substantially U-shaped and having an arcuate long leg and an arcuate short leg joined by an arcuate connector, the arcuate long leg being at the free unknotted end of one of said end turns and the arcuate short leg being at the free unknotted end of the other of the end turns, the arcuate connectors of one of the end turns being on the opposite side of the central spring axis from the arcuate connector of the other end turn of the coil spring, the coil springs being arranged in side-by-side rows and columns (30a, 31a) and being connected with each other at the upper and lower end turns (72a, 72b) by helical lacing wires, the coil springs being oriented the same direction in the spring core except the coil springs of the outermost columns of the spring core, every other one of the coil springs in each outermost column (31 a) being flipped and rotated.
A charged particle beam system comprising: a control apparatus configured to control: an ion source (1, 2) configured to generate a plurality of kinds of ions different in weight from each other; an accelerator configured to accelerate ons generated in the ion source; a beam transport system configured to transport an ion beam extracted from the accelerator; an irradiation nozzle configured to irradiate the ion beam to an irradiation target in an irradiation direction; a rotating gantry configured to set the rradiation direction of the ion beam to the irradiation target, wherein the irradiation nozzle is installed in the rotating gantry, and wherein the irradiation nozzle is controlled for irradiating the same target with the plurality of kinds of ions, wherein one of the plurality of kinds of ions generated in the ion source (1,2) is irradiated from the irradiation direction, and a different one of the plurality of kinds of ons generated in the ion source (1,2) is irradiated from a different irradiation direction, wherein the target is irradiated with a first kind of ions and a second kind of ions, consecutively. a control apparatus configured to control: an ion source (1, 2) configured to generate a plurality of kinds of ions different in weight from each other; an accelerator configured to accelerate ons generated in the ion source; a beam transport system configured to transport an ion beam extracted from the accelerator; an irradiation nozzle configured to irradiate the ion beam to an irradiation target in an irradiation direction; a rotating gantry configured to set the rradiation direction of the ion beam to the irradiation target, wherein the irradiation nozzle is installed in the rotating gantry, and wherein the irradiation nozzle is controlled for irradiating the same target with the plurality of kinds of ions, wherein one of the plurality of kinds of ions generated in the ion source (1,2) is irradiated from the irradiation direction, and a different one of the plurality of kinds of ons generated in the ion source (1,2) is irradiated from a different irradiation direction, a rotating gantry configured to set the rradiation direction of the ion beam to the irradiation target, wherein the irradiation nozzle is installed in the rotating gantry, and wherein the irradiation nozzle is controlled for irradiating the same target with the plurality of kinds of ions, wherein one of the plurality of kinds of ions generated in the ion source (1,2) is irradiated from the irradiation direction, and a different one of the plurality of kinds of ons generated in the ion source (1,2) is irradiated from a different irradiation direction, wherein the target is irradiated with a first kind of ions and a second kind of ions, consecutively.
A resonance suppression apparatus that suppresses resonance occurring in a power system in which a first power facility (3, 120) is connected to a second power facility (5, 110) via a power line, the resonance suppression apparatus comprising: a current reference value generation unit which inputs the current reference value to a power conversion unit (16, 200) so as to cause the power conversion unit to supply a compensation current, characterised in that the current reference value generation unit generates a current reference value by subtracting a value obtained by multiplying a second transfer function by a harmonic component of a voltage input from the power system from a value obtained by multiplying a first transfer function by a harmonic component of a current input from at least one of the first and second power facilities. a current reference value generation unit which inputs the current reference value to a power conversion unit (16, 200) so as to cause the power conversion unit to supply a compensation current, characterised in that the current reference value generation unit generates a current reference value by subtracting a value obtained by multiplying a second transfer function by a harmonic component of a voltage input from the power system from a value obtained by multiplying a first transfer function by a harmonic component of a current input from at least one of the first and second power facilities.
Two-dimensional gel electrophoresis apparatus comprising: a plurality of electrodes (6a, 6b, 6c, 6d) defining an electrophoresis zone and a gel support for retaining an electrophoresis gel in the electrophoresis zone, the electrophoresis zone having at least four edges, each of which is defined by at least one of the said plurality of electrodes, the at least four edges comprising first and second pairs of opposed edges, wherein at least one of the second pair of edges is defined by a group of discrete electrodes, characterised in that some or all of the electrodes have an outer wall with a generally concave formation on the side facing the opposed edge of the electrophoresis zone.
An arrangement for drying a user's hands at a sink, the arrangement comprising a fixture for delivering drying air over the basin of a sink, the fixture comprising a supply inlet for the drying air and a delivery outlet for the drying air in the form of an air nozzle, a motor driven fan unit being connected to the supply inlet for forcing drying air through the air nozzle, the supply inlet being connected to the air nozzle through a hollow body of the fixture, the hollow body comprising two straight, hollow metal tubes: a first tube arranged to be mounted next to the basin of the sink in use, and a second tube so as to project out over the basin of the sink in use, one or more inserts (32, 34) being provided inside the first metal tube, characterised in that the second tube is joined to the wall of the first tube and in that inserts together define a curved elbow duct inside the first metal tube for guiding the drying air from the first metal tube into the second metal tube.
A ranging method comprising: a first step of emitting light to a target object and starting a time measurement; a second step of amplifying a received light signal reflected from the target object with a first gain to detect the amplified signal; and a third step (S105: Yes, S107: Yes) of detecting a first echo, from the received light signal detected in the second step; characterized by a fourth step of amplifying the received light signal reflected from the target object with a second gain greater than the first gain to detect the amplified signal; a fifth step (S101: No) of detecting a second echo and a third echo with a time interval, from the received light signal detected in the fourth step; a sixth step of stopping the time measurement at a time of detecting the first echo when the time interval between the time point of detecting the second echo and the time point of detecting the first echo is longer than the time interval between the time point of detecting the first echo and the time point of detecting the third echo (S109: Yes), and stopping the time measurement at a time of detecting the third echo when the time interval between the time point of detecting the second echo and the time point of detecting the first echo is shorter than the time interval between the time point of detecting the first echo and the time point of detecting the third echo (S109: No); and a seventh step (S110, S111) of calculating the measured distance based on the time interval from the starting of the time measurement to the stopping of the time measurement. a first step of emitting light to a target object and starting a time measurement; a second step of amplifying a received light signal reflected from the target object with a first gain to detect the amplified signal; and a third step (S105: Yes, S107: Yes) of detecting a first echo, from the received light signal detected in the second step; characterized by a fourth step of amplifying the received light signal reflected from the target object with a second gain greater than the first gain to detect the amplified signal; a fifth step (S101: No) of detecting a second echo and a third echo with a time interval, from the received light signal detected in the fourth step; a sixth step of stopping the time measurement at a time of detecting the first echo when the time interval between the time point of detecting the second echo and the time point of detecting the first echo is longer than the time interval between the time point of detecting the first echo and the time point of detecting the third echo (S109: Yes), and stopping the time measurement at a time of detecting the third echo when the time interval between the time point of detecting the second echo and the time point of detecting the first echo is shorter than the time interval between the time point of detecting the first echo and the time point of detecting the third echo (S109: No); and a seventh step (S110, S111) of calculating the measured distance based on the time interval from the starting of the time measurement to the stopping of the time measurement.
An assay for determining borate concentration, the assay comprising a catechol dye, a multivalent cation chelator, polyethylene glycol as solubilizing agent, and a buffer, wherein the assay comprises a freeze-dried solution and wherein the solubilizing agent is present in an amount ranging from 1% to 10%.
An attachment management entity for a communications network arranged to process an attachment request received from terminal equipment to cause a location update to be performed in a service register associated with the terminal equipment characterized in that a user identity associated with the terminal is associated with a routing manager to which communications addressed to the user identity of the terminal may be directed for forwarding to the terminal, wherein the attachment management entity is arranged to perform a service-aware attachment function to cause the service register to associate the user identity with two or more alternative routing managers (4,7) each appropriate for a respective type of incoming communication service types.
A circuit assembly for protecting a unit to be operated from a supply network against surges, comprising an input having a first and a second input connection (L; N), which are connected to the supply network, and an output to which the unit to be protected can be connected, and a protective circuit provided between the first and the second input connections (L; N) in order to limit the voltage applied thereto, said protective circuit comprising a power semiconductor (IGBT), furthermore at least one Zener element being connected between the collector and gate of the power semiconductor, the Zener voltage yielding a clamping voltage for the power semiconductor (IGBT), characterized in that a plurality of Zener elements (TVS1 to TVSn) is connected in series, wherein circuit means are provided at the nodal points of the series connection which are configured such that, depending on the instantaneous value of the voltage of the supply network, one or more of the Zener elements enter the conducting state and thus the protective level of the protective circuit is automatically adapted.
A method for controlling retarder operation of a motor vehicle (100, 110), comprising the steps of: - continuously detecting temperatures of the retarder's fluid; - continuously determining a change in the detected temperature; characterised - by automatically disconnecting the operation of the retarder when said detected temperature exceeds a predetermined temperature; and - by said predetermined temperature being determined continuously on the basis of the magnitude of the change per unit time. - continuously detecting temperatures of the retarder's fluid; - continuously determining a change in the detected temperature; characterised - by automatically disconnecting the operation of the retarder when said detected temperature exceeds a predetermined temperature; and - by said predetermined temperature being determined continuously on the basis of the magnitude of the change per unit time.
A piezochromic device comprising a transparent or semi-transparent cover layer and a magnetic layer, wherein a liquid medium containing magnetically alignable, platelet-like shaped pigments is provided between the cover layer and the magnetic layer.
A method for assembling nanoelements, the method comprising the steps of: a) providing a patterned substrate comprising: - a base layer of insulating material, - a metal conductive layer deposited onto the base layer, - an insulating layer deposited onto the conductive layer, and - a patterned layer deposited onto the insulating layer, wherein the patterned layer is interrupted according to a pattern that defines one or more voids in the patterned layer, wherein the patterned layer forms the walls of the voids, and the insulating layer forms the bottom of the voids; b) submerging at least a portion of the substrate in a liquid suspension of nanoelements, the liquid suspension disposed within a container, and having a surface interfacing with a gaseous medium, and applying an electrical potential between the conductive layer of the substrate and a counter electrode in the suspension; and c) pulling the substrate from the liquid suspension through the surface thereof while applying an electrical potential between the conductive layer of the substrate, and a counter electrode in the suspension; said method resulting in assembly of nanoelements from the suspension in the voids of the patterned substrate. a) providing a patterned substrate comprising: - a base layer of insulating material, - a metal conductive layer deposited onto the base layer, - an insulating layer deposited onto the conductive layer, and - a patterned layer deposited onto the insulating layer, wherein the patterned layer is interrupted according to a pattern that defines one or more voids in the patterned layer, wherein the patterned layer forms the walls of the voids, and the insulating layer forms the bottom of the voids; - a base layer of insulating material, - a metal conductive layer deposited onto the base layer, - an insulating layer deposited onto the conductive layer, and - a patterned layer deposited onto the insulating layer, b) submerging at least a portion of the substrate in a liquid suspension of nanoelements, the liquid suspension disposed within a container, and having a surface interfacing with a gaseous medium, and applying an electrical potential between the conductive layer of the substrate and a counter electrode in the suspension; and c) pulling the substrate from the liquid suspension through the surface thereof while applying an electrical potential between the conductive layer of the substrate, and a counter electrode in the suspension;
Drive device for an injection valve which has - an actuator designed to exert a force along a first axis of force action (L_1), - a lever device which is mechanically coupled to the actuator, - a drive output element which is mechanically coupled to the lever device and which is designed to absorb a force from the lever device along a second axis of force action (L_2), wherein the second axis of force action (L_2) is arranged offset with respect to the first axis of force action (L_1), - a transmission element which is arranged between the actuator and the lever device, which transmission element is coupled in a first contact region (K_1) to the actuator and in a second contact region (K_2) to the lever device, and - is guided therebetween through a guide bore, wherein - the first contact region (K_1) of the transmission element is arranged so as to be intersected by the first axis of force action (L_1), and - the second contact region (K_2) of the transmission element is arranged so as to be intersected by the second axis of force action (L_2). - an actuator designed to exert a force along a first axis of force action (L_1), - a lever device which is mechanically coupled to the actuator, - a drive output element which is mechanically coupled to the lever device and which is designed to absorb a force from the lever device along a second axis of force action (L_2), wherein the second axis of force action (L_2) is arranged offset with respect to the first axis of force action (L_1), - a transmission element which is arranged between the actuator and the lever device, which transmission element is coupled in a first contact region (K_1) to the actuator and in a second contact region (K_2) to the lever device, and - is guided therebetween through a guide bore, wherein - the first contact region (K_1) of the transmission element is arranged so as to be intersected by the first axis of force action (L_1), and - the second contact region (K_2) of the transmission element is arranged so as to be intersected by the second axis of force action (L_2).