mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing food packaging comprising a receptacle of a final shape and a coating, the method comprising: fabricating the receptacle from raw materials, the raw materials comprising a fibrous material and a biopolymer, wherein forming the final shape of the receptacle comprises thermoforming; applying at least one layer of the coating to the receptacle, the coating comprising a biopolymer coating, wherein applying the at least one layer of the coating comprises spraying the receptacle using a Twin Air Spray System; and drying the at least one layer of the coating. fabricating the receptacle from raw materials, the raw materials comprising a fibrous material and a biopolymer, wherein forming the final shape of the receptacle comprises thermoforming; applying at least one layer of the coating to the receptacle, the coating comprising a biopolymer coating, wherein applying the at least one layer of the coating comprises spraying the receptacle using a Twin Air Spray System; and drying the at least one layer of the coating.
A non-dusting copper pyrithione dispersion characterized by comprising (a) from 40% to 55% by weight of solid copper pyrithione particles dispersed in (b) at least 10% by weight of a liquid dispersant selected from the group consisting of water, organic solvents, and combinations thereof, said dispersion additionally comprising (c) from 0.05% to 30% by weight of a dust-inhibiting agent selected from the group consisting of polymer resins, binders, and combinations thereof; wherein said polymer resin is selected from the group consisting of acrylic resins, vinyl resins, alkyd resins, epoxy resins, polyurethane resins, natural resins, polyester resins, plastisols, and combinations thereof; wherein said binder is selected from the group consisting of rosins, acrylates, xanthate or guar gums, polyvinyl alcohol, ethyl acetate, and combinations thereof; and wherein all weight percents are based upon the total weight of said dispersion. wherein said polymer resin is selected from the group consisting of acrylic resins, vinyl resins, alkyd resins, epoxy resins, polyurethane resins, natural resins, polyester resins, plastisols, and combinations thereof; wherein said binder is selected from the group consisting of rosins, acrylates, xanthate or guar gums, polyvinyl alcohol, ethyl acetate, and combinations thereof; and
A wireless power transmission apparatus comprising: a transmitting antenna configured to magnetically couple and resonate with a receiving antenna included in a receiving apparatus at a resonant frequency f0, wherein when the receiving antenna is a parallel resonant circuit, the transmitting antenna is a series resonant circuit, and when the receiving antenna is a series resonant circuit, the transmitting antenna is a parallel resonant circuit; and a control section configured to control a transmission frequency according to the magnitude of the power being transmitted between the antennas, characterized in that if the power is greater than a reference value P1, the control section sets the transmission frequency to be a value that falls within a first level range that is higher than the frequency f0, and if the power is smaller than the reference value P1, the control section sets the transmission frequency to be a value that falls within a second level range that is lower than the first level range. a transmitting antenna configured to magnetically couple and resonate with a receiving antenna included in a receiving apparatus at a resonant frequency f0, wherein when the receiving antenna is a parallel resonant circuit, the transmitting antenna is a series resonant circuit, and when the receiving antenna is a series resonant circuit, the transmitting antenna is a parallel resonant circuit; and a control section configured to control a transmission frequency according to the magnitude of the power being transmitted between the antennas, characterized in that if the power is greater than a reference value P1, the control section sets the transmission frequency to be a value that falls within a first level range that is higher than the frequency f0, and if the power is smaller than the reference value P1, the control section sets the transmission frequency to be a value that falls within a second level range that is lower than the first level range.
Aircraft interior lining component which is composed at least partially of a thermoplastic foam material and comprises: - a first surface which faces an interior of an aircraft cabin when the aircraft interior lining component is mounted in an aircraft, and - a second surface which faces away from the interior of the aircraft cabin when the aircraft interior lining component is mounted in an aircraft and which comprises at least one supporting section (18a-d) and at least one surface section (20a-e) adjacent to the supporting section (18a-d) and recessed relative to the supporting section (18a-d), characterised in that the supporting section (18a-d) is dimensioned and arranged so that it is supported, when the aircraft interior lining component is mounted to a primary structure of an aircraft via existing fastening points provided on the primary structure or by means of hook-and-loop tapes, on a stringer (24a-d) of the primary structure of the aircraft in a load-transmitting manner at least when a hand load acts on the first surface of the aircraft interior lining component. - a first surface which faces an interior of an aircraft cabin when the aircraft interior lining component is mounted in an aircraft, and - a second surface which faces away from the interior of the aircraft cabin when the aircraft interior lining component is mounted in an aircraft and which comprises at least one supporting section (18a-d) and at least one surface section (20a-e) adjacent to the supporting section (18a-d) and recessed relative to the supporting section (18a-d),
A transparent ink-jet recording film comprising: a transparent substrate comprising a polyester, said substrate comprising at least a first surface and a second surface; at least one under-layer disposed on the first surface, said at least one under-layer comprising gelatin and at least one borate or borate derivative; at least one image-receiving layer disposed on the at least one under-layer, said at least one image-receiving layer comprising at least one inorganic particle and at least one water soluble or water dispersible polymer comprising at least one hydroxyl group; and at least one back-coat layer disposed on the second surface, said at least one back-coat layer comprising gelatin and at least one core-shell particle comprising at least one thermoplastic polymer core and at least one colloidal silica shell. a transparent substrate comprising a polyester, said substrate comprising at least a first surface and a second surface; at least one under-layer disposed on the first surface, said at least one under-layer comprising gelatin and at least one borate or borate derivative; at least one image-receiving layer disposed on the at least one under-layer, said at least one image-receiving layer comprising at least one inorganic particle and at least one water soluble or water dispersible polymer comprising at least one hydroxyl group; and at least one back-coat layer disposed on the second surface, said at least one back-coat layer comprising gelatin and at least one core-shell particle comprising at least one thermoplastic polymer core and at least one colloidal silica shell.
A package (500, 1700, 2000, 2200, 2500, 2600) for holding a medical device that includes an elongated shaft, the package comprising: a blow-molded one-piece body (520, 1720, 2020, 2220) that defines a spiral lumen (526, 1726, 2526) configured to receive the elongated shaft of the medical device, the one-piece body having webbing (544, 944), an upper spiral rib (521, 2521) raised in a first direction relative to the webbing, and a second spiral rib (523, 2523) raised in a second opposing direction relative to the webbing (544, 944), wherein the upper and lower spiral ribs collectively form a spiral casing (522, 1722, 2022, 2522) within which the spiral lumen (526, 1726, 2526) is defined such that webbing (544, 944) extends between adjacent curved portions (524, 1724, 2224A, 2224B) of the spiral casing (522, 1722, 2022, 2522).
A method of color error correction for a segmented LED array comprising a plurality of LED segments, wherein each LED segment can be selectively controlled to illuminate a correlated part of a scene, the method comprising: (a) detecting an initial luminance pattern, wherein the initial luminance pattern comprises a brightness profile of a scene; (b) calculating a target luminance per LED segments of the segmented LED array, the target luminance corresponding to a target brightness profile to be generated in the scene; (c) determining a luminance ratio based on the target luminance, the luminance ratio defined as a ratio of a primary luminance value of a primary LED segment to a secondary luminance value of at least one adjacent LED segment adjacent to the primary LED segment; (d) providing a predefined threshold ratio, which predefined threshold ratio is defined by a relative luminance of a single LED segment compared to a luminance of an adjacent LED segment, and comparing the luminance ratio to the predefined threshold ratio, and (i) if the luminance ratio is greater than or equal to the predefined threshold ratio, then the secondary luminance value of the at least one adjacent LED segment is maintained, or (ii) if the luminance ratio is less than the predefined threshold ratio, then the secondary luminance value of the at least one adjacent LED segment is increased. (a) detecting an initial luminance pattern, wherein the initial luminance pattern comprises a brightness profile of a scene; (b) calculating a target luminance per LED segments of the segmented LED array, the target luminance corresponding to a target brightness profile to be generated in the scene; (c) determining a luminance ratio based on the target luminance, the luminance ratio defined as a ratio of a primary luminance value of a primary LED segment to a secondary luminance value of at least one adjacent LED segment adjacent to the primary LED segment; (d) providing a predefined threshold ratio, which predefined threshold ratio is defined by a relative luminance of a single LED segment compared to a luminance of an adjacent LED segment, and comparing the luminance ratio to the predefined threshold ratio, and (i) if the luminance ratio is greater than or equal to the predefined threshold ratio, then the secondary luminance value of the at least one adjacent LED segment is maintained, or (ii) if the luminance ratio is less than the predefined threshold ratio, then the secondary luminance value of the at least one adjacent LED segment is increased. (i) if the luminance ratio is greater than or equal to the predefined threshold ratio, then the secondary luminance value of the at least one adjacent LED segment is maintained, or (ii) if the luminance ratio is less than the predefined threshold ratio, then the secondary luminance value of the at least one adjacent LED segment is increased.
A method for charging with liquefied ammonia, comprising: a feeding step of feeding gaseous ammonia to a condenser, a liquefaction step of converting the gaseous ammonia into liquefied ammonia in the condenser, a cooling step of feeding the liquefied ammonia formed in the condenser to a vessel and cooling the vessel by the latent heat of vaporization of the liquefied ammonia, a circulation step of feeding the gaseous ammonia formed through vaporization of the liquefied ammonia in the previous cooling step to the condenser, and a charging step of feeding the liquefied ammonia formed in the condenser to the vessel to thereby charge the vessel with the liquefied ammonia. a feeding step of feeding gaseous ammonia to a condenser, a liquefaction step of converting the gaseous ammonia into liquefied ammonia in the condenser, a cooling step of feeding the liquefied ammonia formed in the condenser to a vessel and cooling the vessel by the latent heat of vaporization of the liquefied ammonia, a circulation step of feeding the gaseous ammonia formed through vaporization of the liquefied ammonia in the previous cooling step to the condenser, and a charging step of feeding the liquefied ammonia formed in the condenser to the vessel to thereby charge the vessel with the liquefied ammonia.
A method for producing a radiation-emitting body including InGaG, comprising the following steps of: - forming a layer sequence having an active layer for generating electromagnetic radiation on a substrate, - roughening of an interface of the active layer so that the active layer has a roughening on the side opposite the substrate, and the roughening has a lateral structuring having a plurality of protruding structural elements, and the structural elements are produced by means of wet-chemical etching or dry etching with a structure size in the region of > 4 μm, - forming an electrically conductive intermediate layer made of a transparent conductive oxide directly and positively interlocking on the active layer by means of a spin coating method, wherein the intermediate layer is permeable to the generated radiation, - planarizing the intermediate layer so that a planar surface is produced, - forming a reflection layer directly and positively interlocking on the planar surface of the intermediate layer, wherein the reflection layer comprises a titanium-silver-titanium layer sequence. - forming a layer sequence having an active layer for generating electromagnetic radiation on a substrate, - roughening of an interface of the active layer so that the active layer has a roughening on the side opposite the substrate, and the roughening has a lateral structuring having a plurality of protruding structural elements, and the structural elements are produced by means of wet-chemical etching or dry etching with a structure size in the region of > 4 μm, - forming an electrically conductive intermediate layer made of a transparent conductive oxide directly and positively interlocking on the active layer by means of a spin coating method, wherein the intermediate layer is permeable to the generated radiation, - planarizing the intermediate layer so that a planar surface is produced, - forming a reflection layer directly and positively interlocking on the planar surface of the intermediate layer, wherein the reflection layer comprises a titanium-silver-titanium layer sequence.
Sealing tool of a packaging machine, the sealing tool comprising a box (1.0) with a central axis (1.09), an inner wall (1.01) defining a closed contour and a lower base (1.00), and a sealing assembly which is housed in the box (1.0) and formed by at least one sealing plate (1.1) comprising a lower surface (1.10) and a heating plate (1.2) configured for heating said sealing plate (1.1), the heating plate (1.2) being arranged, in an initial position with respect to the box (1.0), on the sealing plate (1.1), attached to said sealing plate (1.1), with the sealing assembly in an initial operating position, and the lower surface (1.10) of the sealing plate (1.1) being arranged at a first distance (D1.1), predetermined for said sealing plate (1.1), with respect to the lower base (1.00) of the box (1.0), with said sealing assembly in the initial operating position, the sealing plate (1.1) and the heating plate (1.2) being attached to one another in a detachable manner, such that the sealing plate (1.1) of the sealing assembly can be replaced with another sealing plate (1.1), the sealing tool comprising an adjustment mechanism configured for adjusting the initial position of the heating plate (1.2) of the sealing assembly with respect to the box (1.0), such that the lower surface (1.10) of the sealing plate (1.1) of said sealing assembly is arranged at the corresponding first predetermined distance (D1.1) with respect to the lower base (1.00) of said box (1.0), with said sealing assembly in the initial operating position, characterized in that the adjustment mechanism comprises a movable element (3.0) attached with freedom of movement to the heating plate (1.2), said movable element (3.0) being configured for being arranged in at least a first adjustment position and a second adjustment position with respect to said heating plate (1.2), said movable element (3.0) being configured for cooperating with the box (1.0) in at least one of said adjustment positions and each of said adjustment positions being associated with a corresponding initial position of said heating plate (1.2).
A method for the production of a tube having, in sections, a non-circular profile by deforming, comprising: a) providing a tube made of glass, plastic or a plastic composite material, wherein the tube has a circular initial profile; b) conveying the tube in a hot, malleable state through a nip, which is formed by squeezing rollers and has a first nip width, which is larger than or equal to an outer dimension of the initial profile; c) adjusting the squeezing rollers for setting a second nip width, which is smaller than the outer dimension of the initial profile, and deforming the initial profile in said hot, malleable state for obtaining said non-circular cross section; and d) adjusting the squeezing rollers for setting a third nip width, which is larger than or equal to the outer dimension of the initial profile, and severing said tube in a region having a circular cross section; so that respective end portions (L1; L1*) of said tube have a circular cross section. a) providing a tube made of glass, plastic or a plastic composite material, wherein the tube has a circular initial profile; b) conveying the tube in a hot, malleable state through a nip, which is formed by squeezing rollers and has a first nip width, which is larger than or equal to an outer dimension of the initial profile; c) adjusting the squeezing rollers for setting a second nip width, which is smaller than the outer dimension of the initial profile, and deforming the initial profile in said hot, malleable state for obtaining said non-circular cross section; and d) adjusting the squeezing rollers for setting a third nip width, which is larger than or equal to the outer dimension of the initial profile, and severing said tube in a region having a circular cross section; so that respective end portions (L1; L1*) of said tube have a circular cross section.
An RF switch (200, 600, 800) comprising: a plurality of series-coupled RF switch cells coupled between an RF input (202, 602, 802) and ground, each RF switch cell comprising a transistor (T 1 to T x) and a first resistor (RDS, R DS1 - R DSx) parallel to the transistor (T 1 - T x); characterized by a first sense transistor (T sens) comprising a first current node coupled to a first load resistor (R sens), a second current node coupled to ground, and a control node coupled to a first internal switch node associated with one of the plurality of series-coupled RF switch cells, wherein the first sense transistor (T sens) is configured to sense an RF voltage present at the internal switch node and to half-wave rectify the sensed RF voltage; and a first low pass filter (R Filt, C Filt) having an input coupled to the first current node of the first sense transistor (T sens) and an output configured for providing a DC voltage corresponding to the RF power present at the first internal switch node. a plurality of series-coupled RF switch cells coupled between an RF input (202, 602, 802) and ground, each RF switch cell comprising a transistor (T 1 to T x) and a first resistor (RDS, R DS1 - R DSx) parallel to the transistor (T 1 - T x); characterized by a first sense transistor (T sens) comprising a first current node coupled to a first load resistor (R sens), a second current node coupled to ground, and a control node coupled to a first internal switch node associated with one of the plurality of series-coupled RF switch cells, wherein the first sense transistor (T sens) is configured to sense an RF voltage present at the internal switch node and to half-wave rectify the sensed RF voltage; and a first low pass filter (R Filt, C Filt) having an input coupled to the first current node of the first sense transistor (T sens) and an output configured for providing a DC voltage corresponding to the RF power present at the first internal switch node.
An abnormality monitoring apparatus for a wind farm, which is configured to perform abnormality monitoring on a monitoring group including at least two of a plurality of wind turbine power generating apparatuses belonging to a windfarm, the abnormality monitoring apparatus comprising: a parameter obtaining part configured to obtain, from each of at least two of the plurality of wind turbine power generating apparatuses, a power generation parameter related to power generation of the wind turbine power generating apparatus and a strain parameter measured by a sensor mounted to a wind turbine blade of the wind turbine power generating apparatus; a member candidate extraction part configured to extract, as member candidates of the monitoring group, at least two of the wind turbine power generating apparatuses in which a correlation between the power generation parameters of the at least two wind turbine power generating apparatuses obtained by the parameter obtaining part is not smaller than a first predetermined value, and a correlation between the strain parameters of the at least two wind turbine power generating apparatuses is not smaller than a second predetermined value; a monitoring group setting part configured to set, as members of the monitoring group, at least two of the wind turbine power generating apparatuses from among the member candidates; and a group monitoring part configured to perform abnormality monitoring on the monitoring group set by the monitoring group setting part. a parameter obtaining part configured to obtain, from each of at least two of the plurality of wind turbine power generating apparatuses, a power generation parameter related to power generation of the wind turbine power generating apparatus and a strain parameter measured by a sensor mounted to a wind turbine blade of the wind turbine power generating apparatus; a member candidate extraction part configured to extract, as member candidates of the monitoring group, at least two of the wind turbine power generating apparatuses in which a correlation between the power generation parameters of the at least two wind turbine power generating apparatuses obtained by the parameter obtaining part is not smaller than a first predetermined value, and a correlation between the strain parameters of the at least two wind turbine power generating apparatuses is not smaller than a second predetermined value; a monitoring group setting part configured to set, as members of the monitoring group, at least two of the wind turbine power generating apparatuses from among the member candidates; and a group monitoring part configured to perform abnormality monitoring on the monitoring group set by the monitoring group setting part.
A periorbital skin serum consisting of: squalane in an amount of approximately 98.3 percent by weight, vitamin E in an amount of approximately 0.2 percent by weight, vitamin C in an amount of approximately 0.2 percent by weight, ubiquinone in an amount of approximately 0.075 percent by weight, iris pallida leaf cell extract in an amount of approximately 0.1 percent by weight caprylic /capric triglyceride in an amount of approximately 0.4 percent by weight, and C12-15 alkyl benzoate in an amount of approximately 0.725 percent by weight. squalane in an amount of approximately 98.3 percent by weight, vitamin E in an amount of approximately 0.2 percent by weight, vitamin C in an amount of approximately 0.2 percent by weight, ubiquinone in an amount of approximately 0.075 percent by weight, iris pallida leaf cell extract in an amount of approximately 0.1 percent by weight caprylic /capric triglyceride in an amount of approximately 0.4 percent by weight, and C12-15 alkyl benzoate in an amount of approximately 0.725 percent by weight.