mhurhangee/ep-ind-claims huggingface dataset:
An L-shaped adaptor used in a fitment valve assemble comprising: a vertical cylindrical housing, and a horizontal cylindrical channel; wherein said vertical cylindrical housing and said horizontal cylindrical channel are connected to each other in an L-shape; wherein said vertical cylindrical housing comprises a front wall, and is partially open at the back wall, wherein said opening is the locus for connecting a spout-valve assembly attached to a container that dispenses fluid; wherein, said front wall, on the inside, comprises a locking groove for locking said adaptor to said spout-valve assembly; wherein, said vertical cylindrical housing comprises two J- shaped pull-tabs attached to the two sides of said front wall, such that said vertical cylindrical housing's side walls protrude over the base of said J-shaped pull-tabs; wherein, attached to the opening at the back wall of said vertical cylindrical housing is a U-shaped tray that supports said spout-valve assembly attached to the fluid dispensing container; wherein said horizontal cylindrical channel comprises at least a first opening and a second opening; wherein said first opening is at the first end proximate to the joint of said L-shaped adaptor, and at the top of said horizontal cylindrical channel such that said first opening opens at the bottom of said vertical cylindrical housing; wherein said second opening, used for dispensing fluid into a fluid dispensing setup, is at the opposite end to said first end of said horizontal cylindrical channel; wherein at the base of the horizontal cylindrical channel directly below said first opening in said horizontal cylindrical channel is a cylindrical activator pin; wherein, said activator pin is supported by at least one ridge, that is triangular; wherein at the top of said first opening proximate to the bottom of said vertical cylindrical housing is an O-ring for sealing attachment with said spout-valve assembly; wherein said O-ring is situated in a second vertical cylindrical channel that is narrower that said vertical cylindrical housing; wherein, on the outside wall of said horizontal cylindrical channel, oriented generally transversely to the longitudinal axis of said second horizontal cylindrical channel and protruding outward, are locking tabs, one on each side of said horizontal cylindrical channel, that are used for locking the locking mechanism of said fluid dispensing setup with said adaptor; wherein said horizontal cylindrical channel further comprises a third opening at its second end that is in a radial plane to the longitudinal axis of said horizontal channel; wherein said third opening is closed with a cap. a vertical cylindrical housing, and a horizontal cylindrical channel;
A method comprising assembling and disassembling a mobile amusement ride having a tower on which a carrier is mounted such that the carrier can move up and down the tower, the carrier being arranged to carry riders, characterised in that: the method further comprising the assembly steps of: a. erecting an upright former; b. assembling a first section of the tower around the former; c. raising said first section of tower; d. assembling a second section of the tower around the former; e. connecting said first and second sections (31,32) of the tower; f. raising said first and second sections (31,32) of the tower; g. assembling a third section of the tower around the former; h. connecting said second and third sections (32,33) of the tower; and i. mounting said carrier on the tower: the method further comprising the subsequent disassembly steps of: j. disconnecting a lowermost section of the tower from the section above it; k. disassembling and removing the lowermost section, and allowing the section above it to move down the former and then become in turn the lowermost section, which in turn is disassembled and removed; and l. repeating steps j and k for subsequent sections of the tower that are disassembled and removed in turn. the method further comprising the assembly steps of: a. erecting an upright former; b. assembling a first section of the tower around the former; c. raising said first section of tower; d. assembling a second section of the tower around the former; e. connecting said first and second sections (31,32) of the tower; f. raising said first and second sections (31,32) of the tower; g. assembling a third section of the tower around the former; h. connecting said second and third sections (32,33) of the tower; and i. mounting said carrier on the tower: a. erecting an upright former; b. assembling a first section of the tower around the former; c. raising said first section of tower; d. assembling a second section of the tower around the former; e. connecting said first and second sections (31,32) of the tower; f. raising said first and second sections (31,32) of the tower; g. assembling a third section of the tower around the former; h. connecting said second and third sections (32,33) of the tower; and i. mounting said carrier on the tower: the method further comprising the subsequent disassembly steps of: j. disconnecting a lowermost section of the tower from the section above it; k. disassembling and removing the lowermost section, and allowing the section above it to move down the former and then become in turn the lowermost section, which in turn is disassembled and removed; and l. repeating steps j and k for subsequent sections of the tower that are disassembled and removed in turn. j. disconnecting a lowermost section of the tower from the section above it; k. disassembling and removing the lowermost section, and allowing the section above it to move down the former and then become in turn the lowermost section, which in turn is disassembled and removed; and l. repeating steps j and k for subsequent sections of the tower that are disassembled and removed in turn.
An antiperspirant composition for personal body care, made up as a nonaerosol, stick, soft solid, cream, gel, non-sprayable suspension, non-sprayable solution or impregnated on a substrate, containing a) at least one active antiperspirant substance, b) at least one oil which is liquid under normal conditions as carrier, c) 0 - 7 wt.%, preferably 0 - 3 wt.%, free water, based on the weight of the composition, d) at least one alkyl-modified polyether of the general formula ACTIVATOR- wherein R 1 signifies an aliphatic hydrocarbon residue with 1 to 3 C atoms, R 2 signifies an aliphatic hydrocarbon residue with 8 to 30 C atoms, m is a rational number from 10 to 50, n is a rational number from 0 to 10, p is a rational number from 1 to 10. a) at least one active antiperspirant substance, b) at least one oil which is liquid under normal conditions as carrier, c) 0 - 7 wt.%, preferably 0 - 3 wt.%, free water, based on the weight of the composition, d) at least one alkyl-modified polyether of the general formula ACTIVATOR- wherein R 1 signifies an aliphatic hydrocarbon residue with 1 to 3 C atoms, R 2 signifies an aliphatic hydrocarbon residue with 8 to 30 C atoms, m is a rational number from 10 to 50, n is a rational number from 0 to 10, p is a rational number from 1 to 10. wherein R 1 signifies an aliphatic hydrocarbon residue with 1 to 3 C atoms, R 2 signifies an aliphatic hydrocarbon residue with 8 to 30 C atoms, m is a rational number from 10 to 50, n is a rational number from 0 to 10, p is a rational number from 1 to 10.
A sensor system comprising: a sensor network comprising at least one optical fiber that includes one or more optical sensors, the optical sensors being configured to sense vibration of an electrical device and to produce a time varying light output in response to the vibration; at least one detector configured to generate an electrical time domain signal in response to the time varying light output of at least one optical sensor of the sensor network; and characterized in that the sensor system further comprises: an analyzer configured to: transform the time domain signal to a frequency domain signal; acquire at least one snapshot frequency component signal comprising one or more time varying signals of frequency components of the frequency domain signal over a data acquisition time period; and detect a condition of the electrical device based on the snapshot frequency component signal. a sensor network comprising at least one optical fiber that includes one or more optical sensors, the optical sensors being configured to sense vibration of an electrical device and to produce a time varying light output in response to the vibration; at least one detector configured to generate an electrical time domain signal in response to the time varying light output of at least one optical sensor of the sensor network; and characterized in that the sensor system further comprises: an analyzer configured to: transform the time domain signal to a frequency domain signal; acquire at least one snapshot frequency component signal comprising one or more time varying signals of frequency components of the frequency domain signal over a data acquisition time period; and detect a condition of the electrical device based on the snapshot frequency component signal. transform the time domain signal to a frequency domain signal; acquire at least one snapshot frequency component signal comprising one or more time varying signals of frequency components of the frequency domain signal over a data acquisition time period; and detect a condition of the electrical device based on the snapshot frequency component signal.
Water-in-oil surfactant consisting of a mixture of compounds of formula: wherein the compound of formula has an average degree of polymerisation n of between 4 and 6, R1, R2 and R3 being, independently of one another, a hydrogen atom or an R4 group derived from at least one carboxylic acid, the carboxylic acid being 12-hydroxystearic acid or a mixture of 12-hydroxystearic acid and ricinoleic acid, R4 being a group C(=O)- -CH -(CH 2) 5 -CH 3 or C(=O)- -CH[(CH 2) 5 -CH 3]-O-{C(=O)- -CH[ (CH 2) 5 -CH 3]-O} P C(=0)- -CH[(CH 2) 5 -CH 3]-OH where p = 0 to 5, R5 being a group (CH 2) 10 or a mixture of the groups (CH 2) 10 and (CH 2) 7 -(CH=CH)-CH 2, at least one of the R1, R2 and R3 groups being an R4 group. wherein the compound of formula has an average degree of polymerisation n of between 4 and 6, R1, R2 and R3 being, independently of one another, a hydrogen atom or an R4 group derived from at least one carboxylic acid, the carboxylic acid being 12-hydroxystearic acid or a mixture of 12-hydroxystearic acid and ricinoleic acid, R4 being a group C(=O)- -CH -(CH 2) 5 -CH 3 or C(=O)- -CH[(CH 2) 5 -CH 3]-O-{C(=O)- -CH[ (CH 2) 5 -CH 3]-O} P C(=0)- -CH[(CH 2) 5 -CH 3]-OH where p = 0 to 5, R5 being a group (CH 2) 10 or a mixture of the groups (CH 2) 10 and (CH 2) 7 -(CH=CH)-CH 2, at least one of the R1, R2 and R3 groups being an R4 group.
Method for the detection and identification of particles in a suspension, comprising the following steps: a. generation of acoustic signals using an acoustic source; b. directing the acoustic signals at at least one measurement volume within the suspension, the boundaries of the measurement volume in the axial direction with respect to the acoustic source being defined with the aid of time windows; c. reception of acoustic reflection signals produced by reflection of the acoustic signals by the particles in the at least one measurement volume; d. conversion of the acoustic reflection signals into electrical reflection signals; e. counting numbers of electrical reflection signals which have an amplitude in excess of a predetermined value and conversion thereof into numbers of particles which are larger than a certain size; characterized in that the method also comprises the step of applying an inversion algorithm on the amplitudes of the electrical reflection signals to deduce at least one feature from a set of features comprising: material properties, particle concentration, particle shapes, particle size and standard deviation thereof and particle size distribution, wherein the following equation is used for the inversion algorithm: p → A = W A D q → D where W is a forward matrix of size j x i, i and j being predetermined integer numbers, which relates likelihood q(D j) for a particle to have a diameter in a predetermined interval D j - ΔD/2..D j + ΔD/2 to probability p(A i) of measuring an amplitude Ai. a. generation of acoustic signals using an acoustic source; b. directing the acoustic signals at at least one measurement volume within the suspension, the boundaries of the measurement volume in the axial direction with respect to the acoustic source being defined with the aid of time windows; c. reception of acoustic reflection signals produced by reflection of the acoustic signals by the particles in the at least one measurement volume; d. conversion of the acoustic reflection signals into electrical reflection signals; e. counting numbers of electrical reflection signals which have an amplitude in excess of a predetermined value and conversion thereof into numbers of particles which are larger than a certain size; characterized in that the method also comprises the step of applying an inversion algorithm on the amplitudes of the electrical reflection signals to deduce at least one feature from a set of features comprising: material properties, particle concentration, particle shapes, particle size and standard deviation thereof and particle size distribution, wherein the following equation is used for the inversion algorithm: p → A = W A D q → D where W is a forward matrix of size j x i, i and j being predetermined integer numbers, which relates likelihood q(D j) for a particle to have a diameter in a predetermined interval D j - ΔD/2..D j + ΔD/2 to probability p(A i) of measuring an amplitude Ai.
A centrifugal micro-fluidic structure, comprising: a plurality of chambers; channels through which the chambers are connected to one another; and valves for opening and closing the channels, wherein the plurality of chambers include a first reaction chamber comprising a first material which has a first affinity to glycated hemoglobin; a second reaction chamber comprising a second material which has a second affinity to glycated hemoglobin, said second affinity being different from the first affinity; and a third reaction chamber which is free of the first material and the second material and serves as a control chamber, wherein the first material is an anti-glycated hemoglobin antibody; and the second material is a boronic acid compound which is capable of binding to a cis-diol group of glycated hemoglobin. a plurality of chambers; channels through which the chambers are connected to one another; and valves for opening and closing the channels, wherein the plurality of chambers include a first reaction chamber comprising a first material which has a first affinity to glycated hemoglobin; a second reaction chamber comprising a second material which has a second affinity to glycated hemoglobin, said second affinity being different from the first affinity; and a third reaction chamber which is free of the first material and the second material and serves as a control chamber, wherein the first material is an anti-glycated hemoglobin antibody; and the second material is a boronic acid compound which is capable of binding to a cis-diol group of glycated hemoglobin.
Road construction machine, in particular a road finishing machine, with a measuring system for the road construction machine, wherein the measuring system comprises a control unit which is operationally connected using a field bus to at least one field device (3, 4, 5), wherein said field device (3, 4, 5) comprises a voltage input and a voltage output, where a voltage input signal is transmittable by said control unit via said field bus to said voltage input of said field device (3, 4, 5), wherein based on a magnitude of said voltage input signal, an exclusive bus address is assignable to said field device (3, 4, 5), characterized in that said field device (3, 4, 5) is adapted to generate from said voltage input signal a voltage output signal which is increased by an offset voltage and which is transmittable from said voltage output of said field device (3, 4, 5) via said fieldbus to a voltage input of a further field device (3, 4, 5), so that based on said voltage output signal outputted by said field device (3, 4, 5), a different exclusive bus address can be assigned in the measuring system to the further field device.
A resource request sending method, wherein a short Physical Uplink Control Channel, PUCCH, occupies two symbols, the two symbols comprise a first symbol and a second symbol, and the method comprises: when a first resource request Scheduling Request, SR, resource is configured in the first symbol, and there is a second SR resource in the second symbol, transmitting, by user equipment UE, a resource request SR by using the first SR resource in the first symbol and the second SR resource in the second symbol; or when a first SR resource is configured in the first symbol, and there is a second SR resource in the second symbol, transmitting, by user equipment UE, physical uplink control signaling and indicating the SR by using the first SR resource in the first symbol and the second SR resource in the second symbol; or when a first SR resource is configured in the first symbol, transmitting, by user equipment UE, the physical uplink control signaling and indicating the SR by using the first SR resource in the first symbol, and transmitting the physical uplink control signaling on a first resource in the second symbol; or when a first SR resource is configured in the first symbol, and a second SR resource is configured in the second symbol, transmitting, by user equipment UE, the physical uplink control signaling and indicating the SR by using the first SR resource in the first symbol, and transmitting the physical uplink control signaling on a first resource in the second symbol, wherein frequency domain resources or code domain resources in the first resource and the second SR resource are different. when a first resource request Scheduling Request, SR, resource is configured in the first symbol, and there is a second SR resource in the second symbol, transmitting, by user equipment UE, a resource request SR by using the first SR resource in the first symbol and the second SR resource in the second symbol; or when a first SR resource is configured in the first symbol, and there is a second SR resource in the second symbol, transmitting, by user equipment UE, physical uplink control signaling and indicating the SR by using the first SR resource in the first symbol and the second SR resource in the second symbol; or when a first SR resource is configured in the first symbol, transmitting, by user equipment UE, the physical uplink control signaling and indicating the SR by using the first SR resource in the first symbol, and transmitting the physical uplink control signaling on a first resource in the second symbol; or when a first SR resource is configured in the first symbol, and a second SR resource is configured in the second symbol, transmitting, by user equipment UE, the physical uplink control signaling and indicating the SR by using the first SR resource in the first symbol, and transmitting the physical uplink control signaling on a first resource in the second symbol, wherein frequency domain resources or code domain resources in the first resource and the second SR resource are different.
Device for producing a customized cosmetic product, by mixing at least two components which are housed in a respective container, at least one of the components being an active component contained in a capsule, and at least one of the components being a base component contained in a pot which preferably comprises a pump nozzle, at least one of said containers comprising an identification code, the device comprising - a mixing device - a device for selecting and dosing at least one base component contained in a pot - a device for selecting at least one active component in its capsule - means for detecting the identification code - an interface (In) for collecting customized data for interaction with the user (Ut) to allow the user to specify their customized data, preferably selected from a predefined database, - a device for processing said data, which comprises an algorithm for processing the customized data in order to automatically define instructions for producing a customized product to determine at least one, preferably all of the components to be contained in the customized product and/or to calculate the quantities of said component(s) according to the customized data, characterized in that the customized data comprise the user's number of hours of sport per day or per week and the user's number of hours of sleep per night, and the characteristics of the user's skin selected from: - the user's skin type, selected from: dry skin, oily skin, combination skin, or normal skin; - the user's skin phototype; - the radiance of the user's complexion, selected from: dull complexion or luminous complexion; - the sensitivity of the user's skin; - the presence of wrinkles and/or fine lines on the user's skin; - the presence of blemishes on the user's skin; - the firmness of the user's skin, and/or; - the presence of dark circles and/or puffiness in the eye contour area. - a mixing device - a device for selecting and dosing at least one base component contained in a pot - a device for selecting at least one active component in its capsule - means for detecting the identification code - an interface (In) for collecting customized data for interaction with the user (Ut) to allow the user to specify their customized data, preferably selected from a predefined database, - a device for processing said data, which comprises an algorithm for processing the customized data in order to automatically define instructions for producing a customized product to determine at least one, preferably all of the components to be contained in the customized product and/or to calculate the quantities of said component(s) according to the customized data, - the user's skin type, selected from: dry skin, oily skin, combination skin, or normal skin; - the user's skin phototype; - the radiance of the user's complexion, selected from: dull complexion or luminous complexion; - the sensitivity of the user's skin; - the presence of wrinkles and/or fine lines on the user's skin; - the presence of blemishes on the user's skin; - the firmness of the user's skin, and/or; - the presence of dark circles and/or puffiness in the eye contour area.
A method for preparing a thermoplastic polyoxazolidone by catalytic reaction of one or more aromatic diisocyanates and one or more diepoxides, wherein the one or more diepoxides consist wholly or partly of 2-phenylpropane-1,3-diol diglycidyl ether derivatives.