mhurhangee/patent-ind-claim-en huggingface dataset:
A detergent supply device , comprising: a housing extending in one direction; a storage container frame withdrawably mounted in the housing ; a first storage container and a second storage container in which different first and second laundry detergents are respectively stored, and mounted in parallel to each other in the storage container frame ; and laundry detergent pumps provided at a rear portion of the housing and pumping each laundry detergent accommodated in the first and second storage containers toward the housing , characterized in that wherein a first laundry detergent passage and a second laundry detergent passage are defined at a lower surface of the housing and extend to communicate with a detergent input hole of the housing, respectively, wherein a first detergent pump of the laundry detergent pumps is configured to pump the first laundry detergent from the first storage container to the first laundry detergent passage , wherein a second detergent pump of the laundry detergent pumps is configured to pump the second laundry detergent from the second storage container to the second laundry detergent passage , wherein the first laundry detergent passage is configured to guide the first laundry detergent toward the detergent input hole , and the second laundry detergent passage is configured to guide the second laundry detergent toward the detergent input hole , and wherein the first laundry detergent passage and the second laundry detergent passage are separated from each other by a separation wall located therebetween. a housing extending in one direction; a storage container frame withdrawably mounted in the housing ; a first storage container and a second storage container in which different first and second laundry detergents are respectively stored, and mounted in parallel to each other in the storage container frame ; and laundry detergent pumps provided at a rear portion of the housing and pumping each laundry detergent accommodated in the first and second storage containers toward the housing , characterized in that wherein a first laundry detergent passage and a second laundry detergent passage are defined at a lower surface of the housing and extend to communicate with a detergent input hole of the housing, respectively, wherein a first detergent pump of the laundry detergent pumps is configured to pump the first laundry detergent from the first storage container to the first laundry detergent passage , wherein a second detergent pump of the laundry detergent pumps is configured to pump the second laundry detergent from the second storage container to the second laundry detergent passage , wherein the first laundry detergent passage is configured to guide the first laundry detergent toward the detergent input hole , and the second laundry detergent passage is configured to guide the second laundry detergent toward the detergent input hole , and wherein the first laundry detergent passage and the second laundry detergent passage are separated from each other by a separation wall located therebetween.
A method for reducing hydrogen sulfide emissions from an asphalt composition by scavenging the hydrogen sulfide, the method comprising: mixing 50 to 10,000 ppm of an additive with the asphalt composition wherein the additive comprises a hydrogen sulfide scavenger selected from a copper-based complex, or a mixture of copper-based and iron-based complexes, wherein the copper-based complex comprises copper carbonate; and wherein the ratio of the hydrogen sulfide concentration before scavenging to the concentration of the additive is in the range of 20:1 to 1:1.
A printed stretchable strain sensor characterized in : a seamless monolithic elastomeric body ; and a strain-sensitive conductive structure embedded within the seamless monolithic elastomeric body , the strain-sensitive conductive structure comprising one or more conductive filaments arranged in a continuous pattern. a seamless monolithic elastomeric body ; and a strain-sensitive conductive structure embedded within the seamless monolithic elastomeric body , the strain-sensitive conductive structure comprising one or more conductive filaments arranged in a continuous pattern.
Sifter for sprinkling material, comprising: - At least one reservoir for sprinkling material; - a sifter body , comprising at least one dispensing opening for the sprinkling material; - a transporter , for transporting the sprinkling material from the at least one reservoir to the sifter body ; wherein - the sifter body comprises a looped channel along the at least one dispensing opening , and wherein - the transporter is configured for circulation of the sprinkling material through the looped channel . characterized in that the looped channel comprises two parallel channels , wherein the two parallel channels are arranged directly next to each other and connected by U-turns at their ends , wherein the U-turns are formed by an opening between the two channels through which sprinkling material can travel. - At least one reservoir for sprinkling material; - a sifter body , comprising at least one dispensing opening for the sprinkling material; - a transporter , for transporting the sprinkling material from the at least one reservoir to the sifter body ; - the sifter body comprises a looped channel along the at least one dispensing opening , - the transporter is configured for circulation of the sprinkling material through the looped channel .
A near-to-eye display (NED) device comprising: a display subsystem to generate an image and to direct light representing the image to an eye of a user; a target sensor coupled to the display subsystem, wherein the target sensor is a camera comprising a lens barrel ; a transmitter configured to transmit a non-line-of-sight signal; a second sensor mounted on or proximate to the target sensor configured to detect the non-line-of-sight signal and to measure a parameter that varies with a displacement of the target sensor , wherein the second sensor is a magnetic field sensor comprising a coil mounted to the lens barrel of the target sensor ; and a processor coupled to the second sensor and configured to: compute the displacement of the target sensor based on the parameter; and compute an adjustment value based on the computed displacement. a display subsystem to generate an image and to direct light representing the image to an eye of a user; a target sensor coupled to the display subsystem, wherein the target sensor is a camera comprising a lens barrel ; a transmitter configured to transmit a non-line-of-sight signal; a second sensor mounted on or proximate to the target sensor configured to detect the non-line-of-sight signal and to measure a parameter that varies with a displacement of the target sensor , wherein the second sensor is a magnetic field sensor comprising a coil mounted to the lens barrel of the target sensor ; and a processor coupled to the second sensor and configured to: compute the displacement of the target sensor based on the parameter; and compute an adjustment value based on the computed displacement. compute the displacement of the target sensor based on the parameter; and compute an adjustment value based on the computed displacement.
Lifting yoke connected to a wind turbine blade transport frame , configured for lifting said wind turbine blade transport frame, said yoke being generally rectangular and comprising four corner posts connected by struts ; each corner post being configured for internally receiving therein an upwardly oriented locating finger atop a said transport frame shoulder; said corner post having a housing enclosing an internal space and extending between a lower foot face and a top; said corner post having, at said lower foot face, an aperture dimensioned to receive a said locating finger into said internal space; said corner post further comprising guide surfaces enclosed within said housing and spaced apart to define a locking space and configured to snugly receive a said locating finger; each guide surface comprising a locking aperture; wherein a movable locking element is configured to engage both said locking apertures to thereby bridge said locking space; said locking element being configured to engage a lifting point at said locating finger; said movable locking element constituting the primary lifting element of said lifting yoke , wherein a portion of said movable locking element is received in a passage which extends outside said internal space, wherein said movable locking element is reciprocably movable between a locking and a release position by an operator, said locking element being a bolt inside a sleeve , said bolt being operable using a bolt handle running in grooves or slots in said sleeve .
A reference signal transmission method, wherein the method comprises: converting (S410), by a sending device, a frequency domain reference signal from frequency domain to time domain, to generate a time domain reference signal, wherein the frequency domain reference signal comprises a reference signal sequence mapped to a frequency domain resource, the reference signal sequence is determined based on a Zadoff-Chu sequence, and a length value of the Zadoff-Chu sequence is selected from at least two length values; and sending (S420), by the sending device, the time domain reference signal; wherein the Zadoff-Chu sequence is X q ( m ), and X q ( m ) is determined according to X q m = e − j π ⋅ q ⋅ m ⋅ m + 1 M k , wherein m represents a sequence number of an element of the Zadoff-Chu sequence, m is an integer and 0 ≤ m ≤ M k - 1 , M k represents the length value of the Zadoff-Chu sequence, k is an integer and 0 ≤ k ≤ K - 1, K represents a quantity of length values of the Zadoff-Chu sequence, K is an integer greater than 1, q represents a value of a root of the Zadoff-Chu sequence, and q and M k are relatively prime; wherein a value of q is as follows: q = { 1 or M k − 1 , Q = 1 ⌊ M k / Q + 1 / 2 ⌋ or M k − ⌊ M k / Q + 1 / 2 ⌋ , M k mod Q = 1 or M k mod Q = Q − 1 , Q > 1 wherein └ ┘ represents rounding down, 1 < Q ≤ ⌊ M k 2 ⌋ , or wherein a value of q is as follows: q = q ′ ; or or q = M k − q ′ , wherein wherein M k mod q ' = 1 or M k mod q ' = q' - 1, and 1 ≤ q ' ≤ └ M k / 2 ┘. converting (S410), by a sending device, a frequency domain reference signal from frequency domain to time domain, to generate a time domain reference signal, wherein the frequency domain reference signal comprises a reference signal sequence mapped to a frequency domain resource, the reference signal sequence is determined based on a Zadoff-Chu sequence, and a length value of the Zadoff-Chu sequence is selected from at least two length values; and sending (S420), by the sending device, the time domain reference signal; wherein the Zadoff-Chu sequence is X q ( m ), and X q ( m ) is determined according to X q m = e − j π ⋅ q ⋅ m ⋅ m + 1 M k , wherein m represents a sequence number of an element of the Zadoff-Chu sequence, m is an integer and 0 ≤ m ≤ M k - 1 , M k represents the length value of the Zadoff-Chu sequence, k is an integer and 0 ≤ k ≤ K - 1, K represents a quantity of length values of the Zadoff-Chu sequence, K is an integer greater than 1, q represents a value of a root of the Zadoff-Chu sequence, and q and M k are relatively prime; wherein a value of q is as follows: q = { 1 or M k − 1 , Q = 1 ⌊ M k / Q + 1 / 2 ⌋ or M k − ⌊ M k / Q + 1 / 2 ⌋ , M k mod Q = 1 or M k mod Q = Q − 1 , Q > 1 wherein └ ┘ represents rounding down, 1 < Q ≤ ⌊ M k 2 ⌋ , or wherein a value of q is as follows: q = q ′ ; or or q = M k − q ′ , wherein wherein
A hot-dip aluminum-based alloy-coated steel sheet, comprising: a substrate steel sheet; and a hot-dip aluminum-based alloy coated layer which is formed on a surface of the substrate steel sheet and which contains boron at an average concentration of not less than 0.005 mass% and contains potassium at an average concentration of not less than 0.0004 mass%. a substrate steel sheet; and a hot-dip aluminum-based alloy coated layer which is formed on a surface of the substrate steel sheet and which contains boron at an average concentration of not less than 0.005 mass% and contains potassium at an average concentration of not less than 0.0004 mass%.
A complex comprising a compound of Formula 1, a stereoisomer thereof or a tautomer of the compound of Formula 1 or stereoisomer thereof, and a sulfobutylether β-cyclodextrin, wherein the complex is an amorphous solid.
An electronic identification card comprising: a metal substrate having a first surface and a second surface and defining a recess extending into the first surface; a ferromagnetic film disposed at along the second surface of the metal substrate; an integrated circuit disposed at least partially within the recess ; and a first coating layer disposed over the metal substrate and comprising: a first layer that extends over the first surface of the metal substrate and comprising a polymer and a pigment dispersed within the polymer; and a second layer that extends over the first layer and comprises a transparent polymer, the second layer: having a hardness that is greater than the first layer; defining an exterior surface of the electronic identification card; and having a surface roughness in a range from 0.3 μm to 1.0 μm Ra. a metal substrate having a first surface and a second surface and defining a recess extending into the first surface; a ferromagnetic film disposed at along the second surface of the metal substrate; an integrated circuit disposed at least partially within the recess ; and a first coating layer disposed over the metal substrate and comprising: a first layer that extends over the first surface of the metal substrate and comprising a polymer and a pigment dispersed within the polymer; and a second layer that extends over the first layer and comprises a transparent polymer, the second layer: having a hardness that is greater than the first layer; defining an exterior surface of the electronic identification card; and having a surface roughness in a range from 0.3 μm to 1.0 μm Ra. a first layer that extends over the first surface of the metal substrate and comprising a polymer and a pigment dispersed within the polymer; and a second layer that extends over the first layer and comprises a transparent polymer, the second layer: having a hardness that is greater than the first layer; defining an exterior surface of the electronic identification card; and having a surface roughness in a range from 0.3 μm to 1.0 μm Ra. having a hardness that is greater than the first layer; defining an exterior surface of the electronic identification card; and having a surface roughness in a range from 0.3 μm to 1.0 μm Ra.
A sensor material comprising: a plurality of conductive carbon nanotubes; a detector capable of interaction with an analyte of interest, the detector being an organic, an organometallic or an inorganic species, and the detector comprising a functional group capable of binding an analyte of interest in a solution, vapor phase or solid phase; and an ionic liquid, wherein the plurality of carbon nanotubes, the detector and the ionic liquid are combined to form a paste; the ionic liquid is selected to facilitate analyte interaction with the paste resulting in a change of the conductivity of the paste; and the carbon nanotubes are mixed with the detector in a ratio ranging from 3:1 to 1:10 by weight. a plurality of conductive carbon nanotubes; a detector capable of interaction with an analyte of interest, the detector being an organic, an organometallic or an inorganic species, and the detector comprising a functional group capable of binding an analyte of interest in a solution, vapor phase or solid phase; and an ionic liquid, wherein the plurality of carbon nanotubes, the detector and the ionic liquid are combined to form a paste; the ionic liquid is selected to facilitate analyte interaction with the paste resulting in a change of the conductivity of the paste; and the carbon nanotubes are mixed with the detector in a ratio ranging from 3:1 to 1:10 by weight.
A graphene device comprising: a transistor including a source (S), a gate (G), and a drain (D); an active layer arranged on the gate; and a graphene layer contacting the active layer, the graphene layer and the active layer configured to provide a pathway for current flow; wherein the gate is spaced apart from the graphene layer and is configured to control a work function of the graphene layer based on a voltage applied to the gate; the active layer includes an emission layer that is configured to emit light or a photoconductive layer that is configured to react with light and photoelectrically convert light, and characterized in that at least two of the source, the gate, and the drain are formed on the same plane. a transistor including a source (S), a gate (G), and a drain (D); an active layer arranged on the gate; and a graphene layer contacting the active layer, the graphene layer and the active layer configured to provide a pathway for current flow; wherein the gate is spaced apart from the graphene layer and is configured to control a work function of the graphene layer based on a voltage applied to the gate; the active layer includes an emission layer that is configured to emit light or a photoconductive layer that is configured to react with light and photoelectrically convert light, and characterized in that at least two of the source, the gate, and the drain are formed on the same plane.
An extensible conjugate fiber having a total heat of melting of less than 80 Joules per gram, said fiber comprising: a. from 0.001 to 10 % by weight of the total fiber of a first component A which comprises at least a portion of the fiber surface, said first component A comprising a polypropylene homopolymer or a propylene copolymer, b. and a second component B which comprises an elastic propylene-based olefin polymer; wherein component A comprises at least a third of the fiber surface. a. from 0.001 to 10 % by weight of the total fiber of a first component A which comprises at least a portion of the fiber surface, said first component A comprising a polypropylene homopolymer or a propylene copolymer, b. and a second component B which comprises an elastic propylene-based olefin polymer;
Tasimelteon for use in a method of treating a patient for a circadian rhythm disorder wherein the patient is being treated with a CYP3A4 inducer said method comprising: (A) reducing the dose of the CYP3A4 inducer and (B) treating the patient with tasimelteon.
A method of evaluating a mechanical property of a sample comprising whole blood, the method comprising: applying force to the sample sufficient to physically displace a portion of the sample; measuring displacement of the sample in response to the applied force; adaptively adjusting the force when the displacement measured is not within a predetermined range of displacement values, wherein the force is increased or decreased depending upon whether the measured displacement is below or above the predetermined range, respectively; and computing a mechanical property value resultant from the measured displacement of the sample, wherein the applying the force to the sample includes directing a series of acoustic pulses into the sample to physically displace a portion of the sample. applying force to the sample sufficient to physically displace a portion of the sample; measuring displacement of the sample in response to the applied force; adaptively adjusting the force when the displacement measured is not within a predetermined range of displacement values, wherein the force is increased or decreased depending upon whether the measured displacement is below or above the predetermined range, respectively; and computing a mechanical property value resultant from the measured displacement of the sample, wherein the applying the force to the sample includes directing a series of acoustic pulses into the sample to physically displace a portion of the sample.
A method for operating an apparatus , the method comprising: detecting , by a security device of the apparatus, a request signal transmitted from a control device of the apparatus to a storage device of the apparatus, the request signal being a signal for reading data stored in the storage device; identifying , by the security device, that the request signal comprises a designated address; transmitting , by the security device, a monitoring signal for detecting uncommon data to the control device in response to identifying that the request signal comprises the designated address; and detecting , by the security device, that at least one of the request signal or a control signal generated based on the request signal comprises the uncommon data including at least one of private information or financial information based on the monitoring signal. detecting , by a security device of the apparatus, a request signal transmitted from a control device of the apparatus to a storage device of the apparatus, the request signal being a signal for reading data stored in the storage device; identifying , by the security device, that the request signal comprises a designated address; transmitting , by the security device, a monitoring signal for detecting uncommon data to the control device in response to identifying that the request signal comprises the designated address; and detecting , by the security device, that at least one of the request signal or a control signal generated based on the request signal comprises the uncommon data including at least one of private information or financial information based on the monitoring signal.
A method of producing silicon carbide powder, comprising: preparing a raw material mixture by mixing an amorphous silica having a content of impurities other than silicon, carbon, oxygen and nitrogen in an amount of 50 ppm or less with a carbon black having a content of impurities other than silicon, carbon, oxygen and nitrogen in an amount of 300 ppm or less so as to have a mixture mole ratio of carbon to silicon dioxide (C/SiO 2 ) from 2.5 to 4.0 and have a content of impurities other than silicon, carbon, oxygen and nitrogen in an amount of 100 ppm or less; and firing the raw material mixture in an Acheson furnace having a heat generator formed of carbon to obtain silicon carbide powder; characterized in that the content of impurities other than silicon, carbon, oxygen and nitrogen in the heat generator is 70 ppm or less, and is equal to or less than the content of impurities other than silicon, carbon, oxygen and nitrogen in the raw material mixture. preparing a raw material mixture by mixing an amorphous silica having a content of impurities other than silicon, carbon, oxygen and nitrogen in an amount of 50 ppm or less with a carbon black having a content of impurities other than silicon, carbon, oxygen and nitrogen in an amount of 300 ppm or less so as to have a mixture mole ratio of carbon to silicon dioxide (C/SiO 2 ) from 2.5 to 4.0 and have a content of impurities other than silicon, carbon, oxygen and nitrogen in an amount of 100 ppm or less; and firing the raw material mixture in an Acheson furnace having a heat generator formed of carbon to obtain silicon carbide powder; characterized in that the content of impurities other than silicon, carbon, oxygen and nitrogen in the heat generator is 70 ppm or less, and is equal to or less than the content of impurities other than silicon, carbon, oxygen and nitrogen in the raw material mixture.
A wire rope as a traction rope for lifts, which runs over a traction sheave with a round groove, wherein the wire rope contains a steel cable insert which is surrounded by a plurality of steel outer strands provided with a plastic sheathing alternating with steel outer strands without plastic sheathing, wherein the steel outer strands provided with a plastic sheathing including the plastic sheathing relative to the steel outer strands without plastic sheathing comprise a radial supernatant of 0.1 to 3.0 mm, characterized in that the steel outer strands provided with a plastic sheathing consist of single wires which have a higher tensile strength than single wires of the steel outer strands which are not provided with a plastic sheathing.