mhurhangee/ep-ind-claims huggingface dataset:
A water in fuel sensor comprising: a main body defining a surface and an electrical connector; a pair of electrical contacts (50, 52) each having a first end portion (60, 62) that is located above the surface of the main body, wherein a predetermined resistance exists between the pair of electrical contacts (50, 52) when the first end portions (60, 62) of the pair of electrical contacts (50, 52) are submerged in water; and a third electrical contact assembly having a first end portion and a second end portion, wherein the first end portion of the third electrical contact assembly is located above the surface of the main body; wherein the second end portion of the third electrical contact assembly is located within a cavity of the electrical connector and is connectable to a ground; wherein the first end portion of the third electrical contact assembly extends beyond the first end portions (60, 62) of the pair of electrical contacts (50, 52) in an upwards direction; characterized in that the third electrical contact assembly is biased in the upwards direction. a main body defining a surface and an electrical connector; a pair of electrical contacts (50, 52) each having a first end portion (60, 62) that is located above the surface of the main body, wherein a predetermined resistance exists between the pair of electrical contacts (50, 52) when the first end portions (60, 62) of the pair of electrical contacts (50, 52) are submerged in water; and a third electrical contact assembly having a first end portion and a second end portion, wherein the first end portion of the third electrical contact assembly is located above the surface of the main body; wherein the second end portion of the third electrical contact assembly is located within a cavity of the electrical connector and is connectable to a ground; wherein the first end portion of the third electrical contact assembly extends beyond the first end portions (60, 62) of the pair of electrical contacts (50, 52) in an upwards direction; characterized in that the third electrical contact assembly is biased in the upwards direction.
A traction fluid comprising a blend of - the molecule of Formula I: and - the molecule of Formula II: wherein Formula I is present in an amount between 18 (w/w %) and 82 (w/w %) and Formula II is present in an amount between 10 (w/w %) and 75 (w/w %). - the molecule of Formula I: and - the molecule of Formula II: wherein Formula I is present in an amount between 18 (w/w %) and 82 (w/w %) and Formula II is present in an amount between 10 (w/w %) and 75 (w/w %).
A copper plating bath comprising an additive consumption inhibiting alcohol, brighteners and a copper salt, wherein the additive consumption inhibiting alcohol is a compound with a formula as follows: wherein R, R 1, R 2 and R 3 independently comprise hydrogen; -OH; hydroxy (C 1 -C 20) linear, branched, or cyclic alkyl; hydroxy (C 2 -C 20) linear, or branched alkenyl; hydroxy (C 2 -C 20) linear, or branched alkynyl; hydroxy (C 1 -C 20) linear, or branched alkoxy; hydroxyaryl; (C 1 -C 20) linear, branched, or cyclic alkyl; (C 2 -C 20) linear, or branched alkenyl; (C 2 -C 20) linear, or branched alkynyl; (C 1 -C 20) linear, or branched alkynyl; aryl; halogen; thienyl; silane; silyl; -Si 3; aminyl; aminyl halide; hydroxy aminyl; -CN; SCN; -C=NS; -SH; -NO 2; SO 2 H; -SO 3 M; PO 3 M; keto; ester; -P(R 4), where R 4 is hydrogen or halogen; or acyl halide; provided that at least one of R, R 1, R 2, or R 3 is -OH, hydroxy (C 1 -C 20) alkyl, hydroxy (C 2 -C 20) alkenyl, hydroxy (C 2 -C 20) alkynyl, hydroxy (C 1 -C 20) alkoxy, or hydroxyaryl; and M is hydrogen or an alkali metal; the hydroxy (C 1 -C 20) alkyl, hydroxy (C 2 -C 20) alkenyl, hydroxy (C 2 -C 20) alkynyl, hydroxy (C 1 -C 20) alkoxy, hydroxy aryl, (C 2 -C 20) alkyl, (C 2 -C 20) alkenyl, (C 2 -C 20) alkynyl, and the aryl groups may be unsubstituted or substituted; and the brighteners are chosen from compounds having the formulas: HO 3 -S-R 11 -SH; HO 3 S-R 11 -S-S-R 11 -SO 3 H and salts thereof, where R 11 is C 1 -C 6 alkyl or an aryl group; or HO 3 -Ar-S-S-Ar-SO 3 H and salts thereof, where Ar is phenyl or naphthyl, the alky and aryl groups may be unsubstituted or substituted with an alkyl group, halo or alkoxy group; and wherein the pH of the bath ranges from 0 to 8.
Scattering system for producing scattering material mats made of scattering material during the production of particle boards, with a scattering belt conveyor having a scattering belt onto which the scattering material can be scattering to form the scattering material mat, wherein on the scattering belt conveyor, above the scattering belt, lateral limiting walls are arranged which are designed to laterally limit the scattering material mat on the scattering material conveyor and which can be placed perpendicularly to the conveying direction of the scattering belt conveyor against the lateral mat edges, characterised in that both lateral limiting walls are adjustable with actuators, in that downstream to the lateral limiting walls is at least one measuring device, with which the scattering distribution, which involves the weight per unit area profile over the mat width, can be measured, wherein in order to position the lateral limiting walls, the actuators can be controlled or regulated with a control or regulating device as a function of the scattering distribution measured by the measuring device.
A turbomachine modification apparatus for modifying a static seal or shroud of a turbomachine, comprising: a machining device; a machining device mount attached to the machining device, a blade mount configured to be attached to one or more turbomachine blades, the blade mount attached to the machining device mount, characterized by the machining device mount configured to radially and axially adjust a position of the machining device; the blade mount further comprising: an aft plate and a forward plate, the aft plate configured to be placed on an aft side of the turbomachine blades and the forward plate configured to be placed on a forward side of the turbomachine blades; and each of the aft plate and the forward plate comprising grooves generally conforming to a profile of the turbomachine blades. a machining device; a machining device mount attached to the machining device, a blade mount configured to be attached to one or more turbomachine blades, the blade mount attached to the machining device mount, characterized by the machining device mount configured to radially and axially adjust a position of the machining device; the blade mount further comprising: an aft plate and a forward plate, the aft plate configured to be placed on an aft side of the turbomachine blades and the forward plate configured to be placed on a forward side of the turbomachine blades; and each of the aft plate and the forward plate comprising grooves generally conforming to a profile of the turbomachine blades. an aft plate and a forward plate, the aft plate configured to be placed on an aft side of the turbomachine blades and the forward plate configured to be placed on a forward side of the turbomachine blades; and each of the aft plate and the forward plate comprising grooves generally conforming to a profile of the turbomachine blades.
A method for forming a pelletised evaporite mineral product, the method comprising: forming a material comprising a liquid and at least 50% by mass of an evaporite mineral powder, wherein the evaporate mineral is polyhalite; and processing the material using a pan pelletiser to form pellets comprising the material, the pan pelletiser being configured so that the mean dwell time of the material in the pan of the pelletiser is in the range from 60 to 120 seconds and the mean diameter of the pellets formed by the pelletiser is in the range from 1 to 8mm. forming a material comprising a liquid and at least 50% by mass of an evaporite mineral powder, wherein the evaporate mineral is polyhalite; and processing the material using a pan pelletiser to form pellets comprising the material, the pan pelletiser being configured so that the mean dwell time of the material in the pan of the pelletiser is in the range from 60 to 120 seconds and the mean diameter of the pellets formed by the pelletiser is in the range from 1 to 8mm.
A coating composition comprising an emulsion which comprises a polyvinyl alcohol-based resin as a dispersing agent, an acrylic resin as a dispersoid, and water as a dispersion medium and fibrous metal oxide microparticles, wherein the fibrous metal oxide microparticles have an average major-axis length of 10 to 2,500 nm and an average aspect ratio of 10 to 450, respectively in terms of an average value determined from particle diameters measured on an electron micrograph.
A method of selectively modifying a T cell population comprising: (a) forming T cell-targeted synthetic nanocarriers utilizing a process comprising: adding antibody-functionalized polyglutamic acid that selectively binds the T cell population to nucleic acid encapsulated within a positively-charged polymer carrier, thereby forming the T cell-targeted synthetic nanocarriers, wherein the T cell-targeted synthetic nanocarriers comprise: nucleic acid encapsulated within the positively-charged polymer carrier, wherein the nucleic acid encodes a gene editing agent or a phenotype-altering protein; a neutrally or negatively-charged coating comprising the PGA on the outer surface of the positively-charged polymer carrier; and the antibody extending from the outer surface of the neutrally or negatively-charged coating and linked to the PGA within the neutrally or negatively-charged coating; and (b) administering the formed T cell-targeted synthetic nanocarriers to a heterogenous mixture of ex vivo cells comprising the T cell population thereby selectively modifying the T cell population. (a) forming T cell-targeted synthetic nanocarriers utilizing a process comprising: adding antibody-functionalized polyglutamic acid that selectively binds the T cell population to nucleic acid encapsulated within a positively-charged polymer carrier, thereby forming the T cell-targeted synthetic nanocarriers, wherein the T cell-targeted synthetic nanocarriers comprise: nucleic acid encapsulated within the positively-charged polymer carrier, wherein the nucleic acid encodes a gene editing agent or a phenotype-altering protein; a neutrally or negatively-charged coating comprising the PGA on the outer surface of the positively-charged polymer carrier; and the antibody extending from the outer surface of the neutrally or negatively-charged coating and linked to the PGA within the neutrally or negatively-charged coating; and nucleic acid encapsulated within the positively-charged polymer carrier, wherein the nucleic acid encodes a gene editing agent or a phenotype-altering protein; a neutrally or negatively-charged coating comprising the PGA on the outer surface of the positively-charged polymer carrier; and the antibody extending from the outer surface of the neutrally or negatively-charged coating and linked to the PGA within the neutrally or negatively-charged coating; and (b) administering the formed T cell-targeted synthetic nanocarriers to a heterogenous mixture of ex vivo cells comprising the T cell population thereby selectively modifying the T cell population.
A corner connector (100, 200, 300) for joining mitred hollow profiles (1, 2) of a window or door frame, wherein the corner connector (100, 200, 300) comprises a first leg (110, 210, 310), designed to be longitudinally inserted into an internal space of a first hollow profile and a second leg (120, 220, 320) designed to be longitudinally inserted into an internal space of a second hollow profile, and which is designed to connect the two hollow profiles (1, 2) together along a mitred edge, wherein the corner connector (100, 200, 300) can be brought from a first state in which the two legs (110, 120, 210, 220, 310, 320) can be introduced into and removed out of the respective internal spaces (4, 5) of the hollow profiles (1, 2) into a second expanded state in which the two legs (110, 120, 210, 220, 310, 320) are frictionally connected to the respective hollow profiles (1, 2), wherein the corner connector (100, 200, 300) comprises transversely spaced first and second regions (101, 102, 201, 202, 301, 302), each having a first and a second leg (111, 112, 121, 122, 211, 212, 221, 222, 311, 312, 321, 322), which are connected or connectible together by at least one connecting element (130, 131, 132, 230, 330, 331) such that a screw channel (140, 340) forms between the two regions (101, 102, 201, 202, 301, 302), wherein the first and second region (101, 102, 201, 202) of the corner connector (100, 200) are each designed as a single component able to be releasably connected together by means of the at least one connecting element (130, 131, 132, 230); characterized in that the at least one connecting element (130, 131, 132, 230) is made from a flexible material.
A solid form of the hydrochloride salt of 4-[2-[[5-methyl-1-(2-naphthalenyl)-1 H-pyrazol-3-yl]oxy]ethyl]morpholine having a degree of crystallinity below 30%.
Closure device for a box, comprising a cylinder in which a key can be introduced for actuating a lock for closing or opening the box, as well as a blocking-up element comprising means for positioning a locking device capable of preventing the key from being introduced into the cylinder, characterised in that the blocking-up element is positioned such that it slides with respect to the cylinder, the blocking-up element being capable of sliding between a sunken position in which the blocking-up element is positioned inside the cylinder, thus preventing access to said positioning means of a locking device, and a protruding position in which the blocking-up element protrudes from the cylinder, thus allowing access to said positioning means for a locking device.
A method for producing a compound having the following formula: (wherein R 1 represents a hydrogen atom or a C 1 -C 4 alkyl group, and R a represents a hydrogen atom or a C 1 -C 4 alkyl group) by oxidizing a compound having the following formula: (wherein R a represents a hydrogen atom or a C 1 -C 4 alkyl group) using an oxidizing agent in the presence of a radical initiation reagent, and then reacting the resulting compound with an ammonia-generating reagent and a compound having the formula R 1 CHO (wherein R 1 represents a hydrogen atom or a C 1 -C 4 alkyl group) or a compound having the formula R 1 C(OR b) 3 (wherein R 1 represents a hydrogen atom or a C 1 -C 4 alkyl group, and R b represents a C 1 -C 6 alkyl group).
Method for producing a pore-containing opaque quartz glass, the method comprising the steps of: (a) producing porous SiO 2 granulate particles by agglomeration of amorphous, synthetically produced SiO 2 primary particles, (b) thermally densifying the SiO 2 granulate particles to form partly densified SiO 2 granulate particles, (c) forming a dispersion containing a dispersion liquid and the partly densified SiO 2 granulate particles dispersed therein, (d) comminuting at least a part of the partly densified SiO 2 granulate particles in the dispersion to form a slip which contains comminuted SiO 2 granulate particles, (e) shaping the slip into a shaped body and removing the dispersion liquid to form a porous SiO 2 green body with a green density pG, and (f) sintering the SiO 2 green body into the opaque quartz glass, characterized in (i) that during the thermal densification of step (b), the partly densified SiO 2 granulate particles are produced with a specific surface BET- in the range of 0.025 to 2.5 m 2 /g determined by BET sorption measurement, and (ii) that during the comminution of step (d), the comminuted SiO 2 granulate particles are produced with a specific surface BET- in the range of 4 to 10 m 2 /g determined by BET sorption measurement. (a) producing porous SiO 2 granulate particles by agglomeration of amorphous, synthetically produced SiO 2 primary particles, (b) thermally densifying the SiO 2 granulate particles to form partly densified SiO 2 granulate particles, (c) forming a dispersion containing a dispersion liquid and the partly densified SiO 2 granulate particles dispersed therein, (d) comminuting at least a part of the partly densified SiO 2 granulate particles in the dispersion to form a slip which contains comminuted SiO 2 granulate particles, (e) shaping the slip into a shaped body and removing the dispersion liquid to form a porous SiO 2 green body with a green density pG, and (f) sintering the SiO 2 green body into the opaque quartz glass, (i) that during the thermal densification of step (b), the partly densified SiO 2 granulate particles are produced with a specific surface BET- in the range of 0.025 to 2.5 m 2 /g determined by BET sorption measurement, and (ii) that during the comminution of step (d), the comminuted SiO 2 granulate particles are produced with a specific surface BET- in the range of 4 to 10 m 2 /g determined by BET sorption measurement.
A sound generation control apparatus, comprising: a display control section which displays, on a display screen, an image of an icon placement region having a time axis and which displays, in the icon placement region, an icon image, with which feature amount information descriptive of a feature of material data comprising a waveform of a sound material is associated, in association with a desired time position on the time axis; a setting section adapted to, in response to user operation, designate a desired time range, on the time axis, in the icon placement region and select, from among a plurality of types of databases, a particular database to be used in the designated time range, wherein the plurality of types of databases stores material data in association with feature amount information; and a sound generation control section which acquires, on the basis of the feature amount information associated with the icon image, the material data from the database selected in association with the time range containing the time position where the icon image is placed, and which generates tone data on the basis of the acquired material data and the time position where the icon image is placed. a display control section which displays, on a display screen, an image of an icon placement region having a time axis and which displays, in the icon placement region, an icon image, with which feature amount information descriptive of a feature of material data comprising a waveform of a sound material is associated, in association with a desired time position on the time axis; a setting section adapted to, in response to user operation, designate a desired time range, on the time axis, in the icon placement region and select, from among a plurality of types of databases, a particular database to be used in the designated time range, wherein the plurality of types of databases stores material data in association with feature amount information; and a sound generation control section which acquires, on the basis of the feature amount information associated with the icon image, the material data from the database selected in association with the time range containing the time position where the icon image is placed, and which generates tone data on the basis of the acquired material data and the time position where the icon image is placed.
A packaging material for a vacuum insulator, comprising: a barrier film comprising a plastic base member; an aluminum-deposited ethylene-vinyl alcohol copolymer film stacked on the barrier film; and a heat-fusible layer stacked on the aluminum-deposited ethylene-vinyl alcohol copolymer film, wherein a vapor-deposited thin film layer and a coating layer are sequentially stacked in layers in order on at least one surface of the plastic base member of the barrier film, wherein the vapor-deposited thin film layer is formed of a composite comprising: a metal or an inorganic oxide, or a metal and an inorganic oxide, wherein the coating layer is made of an aqueous solution or a coating agent, wherein the aqueous solution comprises: a water-soluble polymer; and at least one of (a) and (b), (a) being at least one of, one or more kinds of alkoxide, and one or more kinds of hydrolyzate of alkoxide, (b) being tin chlorides, wherein the coating agent comprises as a main agent a mixed solution of water and alcohol, and wherein a surface of the plastic base member opposite to the surface of the plastic base member on which the vapor-deposited thin film layer is formed, is an uppermost layer of the packaging material, the aluminum-deposited ethylene-vinyl alcohol copolymer film includes an aluminum vapor-deposited layer, and the aluminum vapor-deposited layer is adhesively attached to the coating layer. a barrier film comprising a plastic base member; an aluminum-deposited ethylene-vinyl alcohol copolymer film stacked on the barrier film; and a heat-fusible layer stacked on the aluminum-deposited ethylene-vinyl alcohol copolymer film, wherein a vapor-deposited thin film layer and a coating layer are sequentially stacked in layers in order on at least one surface of the plastic base member of the barrier film, wherein the vapor-deposited thin film layer is formed of a composite comprising: a metal or an inorganic oxide, or a metal and an inorganic oxide, wherein the coating layer is made of an aqueous solution or a coating agent, wherein the aqueous solution comprises: a water-soluble polymer; and at least one of (a) and (b), (a) being at least one of, one or more kinds of alkoxide, and one or more kinds of hydrolyzate of alkoxide, (b) being tin chlorides, wherein the coating agent comprises as a main agent a mixed solution of water and alcohol, and wherein a surface of the plastic base member opposite to the surface of the plastic base member on which the vapor-deposited thin film layer is formed, is an uppermost layer of the packaging material, the aluminum-deposited ethylene-vinyl alcohol copolymer film includes an aluminum vapor-deposited layer, and the aluminum vapor-deposited layer is adhesively attached to the coating layer.
An air valve assembly comprising: a main housing comprising a coupling flange for coupling to a pipe; an air valve fluidly coupled to said main housing; an actuator in fluid communication with an inlet to said air valve and with a discharge tube; and a non-contact liquid level sensor located in an external housing coupled to said main housing, said non-contact liquid level sensor being in operative communication with said actuator; wherein said main housing comprises a guiding structure for guiding or diverting fluid to flow towards an area inside said main housing next to said external liquid level sensor, characterized in that said guiding structure is a curved wall that causes the liquid to circulate or flow faster towards said sensor. a main housing comprising a coupling flange for coupling to a pipe; an air valve fluidly coupled to said main housing; an actuator in fluid communication with an inlet to said air valve and with a discharge tube; and a non-contact liquid level sensor located in an external housing coupled to said main housing, said non-contact liquid level sensor being in operative communication with said actuator; wherein said main housing comprises a guiding structure for guiding or diverting fluid to flow towards an area inside said main housing next to said external liquid level sensor, characterized in that said guiding structure is a curved wall that causes the liquid to circulate or flow faster towards said sensor.