mhurhangee/ep-ind-claims huggingface dataset:
A prefilled glass syringe comprising an aqueous botulinum toxin formulation, the glass syringe comprising (a) a syringe barrel made of glass including a proximal end and a distal end, and a generally cylindrical wall extending therebetween and defining a barrel lumen, the syringe barrel having a distally projecting tip with a fluid passage extending therethrough and communicating with the barrel lumen, wherein the generally cylindrical wall has an interior surface coated with a barrier layer, (b) a capping device having an outlet engaging portion sealingly engaging and closing the distal open outlet end of the syringe, wherein the outlet engaging portion is made of an elastomeric material, and (c) a plunger rod assembly which extends into the proximal end of the syringe barrel and includes a plunger stopper in sliding fluid-tight engagement with the cylindrical wall of the barrel lumen, wherein the plunger stopper is made of an elastomeric material, which has a coating on at least a portion of the plunger stopper that contacts the aqueous botulinum toxin formulation during storage and/or injection, wherein the barrier layer of the syringe barrel is a silicone layer, wherein the elastomeric material of the outlet engaging portion is selected from styrene-butadiene rubber free of 2-mercaptobenzothiazole and a mixture of isoprene rubber and bromo butyl rubber, wherein the elastomeric material of the plunger stopper is a bromo butyl rubber, wherein the coating on the plunger stopper is a fluorinated ethylene-ethylene copolymer coating, wherein the biological activity of the botulinum toxin expressed in Mouse Units is not reduced by more than 25%, relative to the initial toxin activity, upon storage of the prefilled syringe for 12 months at 5°C or 12 months at 25°C, and wherein the pH of the aqueous botulinum toxin formulation is between 6.1 and 7.3 during storage, and wherein the aqueous botulinum toxin formulation comprises human albumin and sodium chloride. (a) a syringe barrel made of glass including a proximal end and a distal end, and a generally cylindrical wall extending therebetween and defining a barrel lumen, the syringe barrel having a distally projecting tip with a fluid passage extending therethrough and communicating with the barrel lumen, wherein the generally cylindrical wall has an interior surface coated with a barrier layer, (b) a capping device having an outlet engaging portion sealingly engaging and closing the distal open outlet end of the syringe, wherein the outlet engaging portion is made of an elastomeric material, and (c) a plunger rod assembly which extends into the proximal end of the syringe barrel and includes a plunger stopper in sliding fluid-tight engagement with the cylindrical wall of the barrel lumen, wherein the plunger stopper is made of an elastomeric material, which has a coating on at least a portion of the plunger stopper that contacts the aqueous botulinum toxin formulation during storage and/or injection,
A cathode active material for secondary batteries consisting of at least one compound selected from the following formula 1: (1-s-t)[Li(Li a Mn (1-a-x-y) Ni x Co y)O 2]*s[Li 2 CO 3]*t[LiOH] wherein 0<a<0.2, 0<x<0.9, 0<y<0.5, a+x+y < 1, 0<s<0.03, 0<t<0.03; and a, x and y represent a molar ratio, and s and t represent a weight ratio; characterized in that an amount of oxygen of the lithium transition metal oxides is substituted by another anion selected from the group consisting of halogen elements, chalcogenide elements and nitrogen and the amount of substituted anions is 0.01 to 0.2 molar ratio. wherein 0<a<0.2, 0<x<0.9, 0<y<0.5, a+x+y < 1, 0<s<0.03, 0<t<0.03; and a, x and y represent a molar ratio, and s and t represent a weight ratio;
A method for producing a three-dimensional component from a composite material containing carbon and plastics material, which method comprises the following steps: a) providing a powdered composition comprising one or more constituents selected from the group consisting of amorphous carbon, graphite and hybrid forms thereof, b) providing a liquid binder, c) depositing a layer of the material provided in a) in a planar manner and locally depositing droplets of the material provided in b) on said layer, and repeating step c) any number of times, wherein the local deposition of the droplets in the subsequent repetitions of said step is adjusted according to the desired shape of the component to be produced, d) at least partially hardening or drying the binder and obtaining a green body that has the desired shape of the component, e) impregnating the green body with a liquid synthetic resin, and f) hardening the synthetic resin so as to form a synthetic resin matrix. a) providing a powdered composition comprising one or more constituents selected from the group consisting of amorphous carbon, graphite and hybrid forms thereof, b) providing a liquid binder, c) depositing a layer of the material provided in a) in a planar manner and locally depositing droplets of the material provided in b) on said layer, and repeating step c) any number of times, wherein the local deposition of the droplets in the subsequent repetitions of said step is adjusted according to the desired shape of the component to be produced, d) at least partially hardening or drying the binder and obtaining a green body that has the desired shape of the component, e) impregnating the green body with a liquid synthetic resin, and f) hardening the synthetic resin so as to form a synthetic resin matrix.
Cutting post for assembling on a cutting device, wherein the cutting post extends along a longitudinal axis and comprises a head end and a foot end, wherein the cutting post comprises at least one receptacle for a cutting blade and at least one cutting element which is disposed on the head end and has a cutting edge, characterized in that a cutting tip which tapers in the direction from the foot end towards the head end is configured on the head end of the cutting post.
A method for wireless communication, comprising: receiving a codeword over a wireless channel, wherein the codeword is encoded from a plurality of information bits using a polar code with a plurality of stages of polarization; identifying a set of bit locations of the polar code for the plurality of information bits; and decoding the received codeword according to the polar code to obtain an information bit vector at the set of bit locations; wherein identifying comprises partitioning of bit-channels based on a reliability metric at a first stage of polarization (405-a) into two partitions (415-a, 415-b) at a second stage of polarization (405-b) and assigning information bits of the first stage of polarization to said partitions based on a binary partition assignment vector associated with the first stage of polarization; and recursively partitioning each of the obtained partitions (415-a, 415-b) of the second stage of polarization (405-b) based on the reliability metric into two partitions at a next polarization stage (405-c, 405-d) until the partitions include a predetermined number of bit channels, wherein each stage of polarization (405-b, 405-c) is associated with a respective binary partition assignment vector, and wherein at each stage of polarization the respective binary partition assignment vector is applied for each partition at the each stage of polarization to assign a number of information bits of the each partition to the respective two partitions at the next stage. receiving a codeword over a wireless channel, wherein the codeword is encoded from a plurality of information bits using a polar code with a plurality of stages of polarization; identifying a set of bit locations of the polar code for the plurality of information bits; and decoding the received codeword according to the polar code to obtain an information bit vector at the set of bit locations; wherein identifying comprises partitioning of bit-channels based on a reliability metric at a first stage of polarization (405-a) into two partitions (415-a, 415-b) at a second stage of polarization (405-b) and assigning information bits of the first stage of polarization to said partitions based on a binary partition assignment vector associated with the first stage of polarization; and recursively partitioning each of the obtained partitions (415-a, 415-b) of the second stage of polarization (405-b) based on the reliability metric into two partitions at a next polarization stage (405-c, 405-d) until the partitions include a predetermined number of bit channels, wherein each stage of polarization (405-b, 405-c) is associated with a respective binary partition assignment vector, and wherein at each stage of polarization the respective binary partition assignment vector is applied for each partition at the each stage of polarization to assign a number of information bits of the each partition to the respective two partitions at the next stage.
A compound of Formula (VIa), or pharmaceutically acceptable salt thereof, wherein, X is halogen and n is 0 or 1; Z is N or C-H; R is alkyl, aryl, aralkyl, or carbocyclylalkyl. X is halogen and n is 0 or 1; Z is N or C-H;
Throwing device comprising a throwing element (10; 110) having a top housing (12; 112; 312; 412), an aerosol canister (20; 120) having a substance to be dispersed and an aerosol canister release device being provided in the throwing element (10; 110), the aerosol canister (20; 120) being arranged in the top housing (12; 112; 312; 412) and the top housing (12; 112; 312; 412) having an opening, characterised in that a time fuze device for the aerosol canister release device is provided in the throwing element (10; 110).
A method for assisting with the search for an element having a predefined hue in an environment, the element indicating the presence of at least one person to be rescued in the environment, the method comprising: - providing at least one image in color, said or each image comprising pixels, - expressing the hue of at least one portion of the pixels of said or each image in a colorimetric system, the colorimetric system being defined by the existence of a continuous bijection (f) from the set of hues of the visible spectrum to the set of values of a parameter, the bijection (f) associating a hue with a value of the parameter and the set of values of the parameter having a total extent (E TOTAL), - selecting in said or each image pixels having a hue for which the value of the parameter associated by the bijection (f) is comprised between a first and a second values (Pmin, Pmax), the first and second values (Pmin, Pmax) being chosen so that the set of hues, for which the value of the parameter associated by the bijection (f) is comprised between both chosen values (Pmin, Pmax), comprises the predefined hue, the first and second values (Pmin, Pmax) being chosen by an operator, and - highlighting the selected pixels, the highlighting of the selected pixels comprising the setting of the saturation and luminance parameters of the selected pixels to a value greater than 75% of the maximum value. - providing at least one image in color, said or each image comprising pixels, - expressing the hue of at least one portion of the pixels of said or each image in a colorimetric system, the colorimetric system being defined by the existence of a continuous bijection (f) from the set of hues of the visible spectrum to the set of values of a parameter, the bijection (f) associating a hue with a value of the parameter and the set of values of the parameter having a total extent (E TOTAL), - selecting in said or each image pixels having a hue for which the value of the parameter associated by the bijection (f) is comprised between a first and a second values (Pmin, Pmax), the first and second values (Pmin, Pmax) being chosen so that the set of hues, for which the value of the parameter associated by the bijection (f) is comprised between both chosen values (Pmin, Pmax), comprises the predefined hue, the first and second values (Pmin, Pmax) being chosen by an operator, and - highlighting the selected pixels, the highlighting of the selected pixels comprising the setting of the saturation and luminance parameters of the selected pixels to a value greater than 75% of the maximum value.
A dual-function, cell-permeable, cell-compatible, chemoselectively-cleavable composition, comprising the formula: Z-L 1 -Y-L 2 -Q, wherein Z is a cellular interaction element, wherein the cellular interaction element non-covalently or covalently binds to a cellular target; Q is a capture element, wherein the capture element is a covalent substrate for an enzyme and comprises a haloalkane group L 1 and L 2 are independently optionally present and are independent linker moieties, wherein the linker moieties are straight or branched chains comprising any combination of alkyl, alkenyl, or alkynyl chains, and main-chain heteroatoms, and optionally may further comprise one or more substituents, pendants or side chains, and Y is a chemoselectively-cleavable moiety selected from the group consisting of allyl ether, allyl amine, allyl ester, allyl amide, allyl urea, allyl carbonate, allyl carbamate, propargyl ether, propargyl amine, propargyl ester, propargyl amide, propargyl urea, propargyl carbonate, and propargyl carbamate. wherein Z is a cellular interaction element, wherein the cellular interaction element non-covalently or covalently binds to a cellular target; Q is a capture element, wherein the capture element is a covalent substrate for an enzyme and comprises a haloalkane group L 1 and L 2 are independently optionally present and are independent linker moieties, wherein the linker moieties are straight or branched chains comprising any combination of alkyl, alkenyl, or alkynyl chains, and main-chain heteroatoms, and optionally may further comprise one or more substituents, pendants or side chains, and Y is a chemoselectively-cleavable moiety selected from the group consisting of allyl ether, allyl amine, allyl ester, allyl amide, allyl urea, allyl carbonate, allyl carbamate, propargyl ether, propargyl amine, propargyl ester, propargyl amide, propargyl urea, propargyl carbonate, and propargyl carbamate.
A light-emitting device, comprising: a light emitter including a light-emitting portion configured to emit first emission light having a first peak wavelength (λ1) in a range of 380 to 425 nm and a full width at half maximum of 15 to 35 nm; and a coating located over the light-emitting portion of the light emitter, the coating containing phosphors to emit second emission light having a second peak wavelength (λ2) in a range of 430 to 475 nm and having a third peak wavelength (λ3) in a range of 490 to 540 nm, wherein the light-emitting device emits external emission light having a peak region including the first peak wavelength (λ1), the second peak wavelength (λ2), and the third peak wavelength (λ3) and having a long wavelength region defined between an upper end of the range of the third peak wavelength (λ3) and a wavelength of 750 nm in which a light intensity decreases continuously, characterised in that the phosphors include a (Sr, Ca, Ba) 10 (PO 4) 6 C 12:Eu first phosphor emitting fluorescence corresponding to the second peak wavelength (λ2) and a Sr 4 Al 14 O 25:Eu second phosphor emitting fluorescence corresponding to the third peak wavelength (λ3), and in that the external emission light has, in a wavelength region of 430 to 475 nm, light energy constituting 20 to 30% of entire light energy across the all-wavelength region. a light emitter including a light-emitting portion configured to emit first emission light having a first peak wavelength (λ1) in a range of 380 to 425 nm and a full width at half maximum of 15 to 35 nm; and a coating located over the light-emitting portion of the light emitter, the coating containing phosphors to emit second emission light having a second peak wavelength (λ2) in a range of 430 to 475 nm and having a third peak wavelength (λ3) in a range of 490 to 540 nm, wherein the light-emitting device emits external emission light having a peak region including the first peak wavelength (λ1), the second peak wavelength (λ2), and the third peak wavelength (λ3) and having a long wavelength region defined between an upper end of the range of the third peak wavelength (λ3) and a wavelength of 750 nm in which a light intensity decreases continuously, characterised in that the phosphors include a (Sr, Ca, Ba) 10 (PO 4) 6 C 12:Eu first phosphor emitting fluorescence corresponding to the second peak wavelength (λ2) and a Sr 4 Al 14 O 25:Eu second phosphor emitting fluorescence corresponding to the third peak wavelength (λ3), and in that the external emission light has, in a wavelength region of 430 to 475 nm, light energy constituting 20 to 30% of entire light energy across the all-wavelength region.
An adaptive voltage scaler, AVS, comprising: a delay means for receiving an input signal in at least one delay circuit and for delaying the input signal by a delay amount relating to at least one delay path of a functional circuit to produce a delay output signal, characterized in that the AVS further comprises: an AVS means coupled to a database and responsive to the delay output signal, for generating a voltage level setting signal based on a voltage level stored in the database and corresponding to a combination of an operating frequency for and a temperature level of the functional circuit and further based on delay information in the delay output signal, wherein the database is configured to store a plurality of voltage levels each corresponding to a combination of an operating frequency for and a temperature level of the functional circuit. a delay means for receiving an input signal in at least one delay circuit and for delaying the input signal by a delay amount relating to at least one delay path of a functional circuit to produce a delay output signal, characterized in that the AVS further comprises: an AVS means coupled to a database and responsive to the delay output signal, for generating a voltage level setting signal based on a voltage level stored in the database and corresponding to a combination of an operating frequency for and a temperature level of the functional circuit and further based on delay information in the delay output signal, wherein the database is configured to store a plurality of voltage levels each corresponding to a combination of an operating frequency for and a temperature level of the functional circuit. an AVS means coupled to a database and responsive to the delay output signal, for generating a voltage level setting signal based on a voltage level stored in the database and corresponding to a combination of an operating frequency for and a temperature level of the functional circuit and further based on delay information in the delay output signal, wherein the database is configured to store a plurality of voltage levels each corresponding to a combination of an operating frequency for and a temperature level of the functional circuit.
Dolutegravir sodium Form-L9 characterized by a powder X-Ray diffraction pattern having peaks at about 6.1, 8.6, 12.1, 13.4, 17.1, 18.6, 19.3, 22.4, 23.8, 25.4 and 26.3 ± 0.2° 2θ.
An infrared sensor comprising: an insulating film; a first heat sensitive element and a second heat sensitive element that are disposed on one surface of the insulating film so as to be separated apart from one another; a pair of first conductive wiring films and a pair of second conductive wiring films that are formed on one surface of the insulating film and are respectively connected to the first heat sensitive element and the second heat sensitive element; an infrared reflection film that is disposed on the other surface of the insulating film so as to face the second heat sensitive element; a reinforcing plate on which a sensor part window corresponding to the region of the first heat sensitive element, the second heat sensitive element, and the infrared reflection film is formed and which is adhered to one surface of the insulating film; and a plurality of terminal electrodes (7A, 7B) that are respectively connected to the pair of first conductive wiring films and the pair of second conductive wiring films, are formed on the edge of the other surface of the insulating film, and are capable of being fitted into an external connector, wherein each of the pairs of first and second conductive wiring films has a pair of adhesion electrodes (5A, 5B) formed on the insulating film on one end thereof, wherein the pair of adhesion electrodes corresponding to the pair of first conductive wiring films is arranged around the first heat sensitive element and is formed to have a larger area than that of the pair of adhesion electrodes corresponding to the pair of second conductive wiring films. an insulating film; a first heat sensitive element and a second heat sensitive element that are disposed on one surface of the insulating film so as to be separated apart from one another; a pair of first conductive wiring films and a pair of second conductive wiring films that are formed on one surface of the insulating film and are respectively connected to the first heat sensitive element and the second heat sensitive element; an infrared reflection film that is disposed on the other surface of the insulating film so as to face the second heat sensitive element; a reinforcing plate on which a sensor part window corresponding to the region of the first heat sensitive element, the second heat sensitive element, and the infrared reflection film is formed and which is adhered to one surface of the insulating film; and a plurality of terminal electrodes (7A, 7B) that are respectively connected to the pair of first conductive wiring films and the pair of second conductive wiring films, are formed on the edge of the other surface of the insulating film, and are capable of being fitted into an external connector, wherein each of the pairs of first and second conductive wiring films has a pair of adhesion electrodes (5A, 5B) formed on the insulating film on one end thereof, wherein the pair of adhesion electrodes corresponding to the pair of first conductive wiring films is arranged around the first heat sensitive element and is formed to have a larger area than that of the pair of adhesion electrodes corresponding to the pair of second conductive wiring films.
A fan device having simultaneously foldable blades and a rotatable driving unit, wherein the rotatable driving unit having a plurality of supporting frames extending outwardly therefrom, each supporting frame having a pivot mounted on one end thereof and extending upwardly therefrom; a plurality of shells respectively rotatably mounted on the supporting frames, each shell having a center hole defined therein for receivably engaging with the pivot of the corresponding supporting frame; a plurality of blades respectively disposed on the shells, each blade having an assembling portion disposed on one end thereof for assembling with a corresponding shell, each assembling portion having a through hole defined therein for receivably engaging with a corresponding pivot such that the blade is pivotally rotatable relative to the supporting frame; characterised by a plurality of coupling rods respectively positioned between every two adjacent shells, each coupling rod having two ends respectively pivotally connected to the two corresponding adjacent shells; wherein when the driving unit rotates, the supporting frames synchronously rotated with the driving unit and driving the shells to simultaneously rotate, the shells rotatably driving the coupling rods to be pivotally moved relative to the supporting frames for simultaneously driving the blades to retractably fold/unfold.