mhurhangee/patent-ind-claim-en huggingface dataset:
A pyridyl imidazobenzodiazepine propionate compound 1, characterized in that the structural general formula of the compound 1 is as follows: wherein: R is selected from the group consisting of C1-C6 alkyl, trifluoromethyl, methoxy, nitro, fluorine, chlorine, and bromine; R 1 is selected from the group consisting of C1-C6 alkyl, trifluoromethyl, methoxy, nitro, fluorine, chlorine, and bromine; R 2 is a pyridine ring with nitrogen at position 2, 3 or 4; R 3 is C1-C6 alkyl; HX represents any acceptable pharmaceutical inorganic acids and organic acids. R is selected from the group consisting of C1-C6 alkyl, trifluoromethyl, methoxy, nitro, fluorine, chlorine, and bromine; R 1 is selected from the group consisting of C1-C6 alkyl, trifluoromethyl, methoxy, nitro, fluorine, chlorine, and bromine; R 2 is a pyridine ring with nitrogen at position 2, 3 or 4; R 3 is C1-C6 alkyl; HX represents any acceptable pharmaceutical inorganic acids and organic acids.
Lock device for an electronic locking system , the lock device comprising: - an input member arranged to rotate about an input rotational axis ; - an output member arranged to rotate about an output rotational axis ; - an energy harvesting arrangement configured to generate electric energy from rotation of the input member in a first direction about the input rotational axis ; and - a selective transfer device movable between a locking state, in which the output member cannot be rotated about the output rotational axis by means of rotation of the input member about the input rotational axis , and an unlocking state, in which the output member can be rotated about the output rotational axis by means of rotation of the input member in the first direction about the input rotational axis ; characterized in that the lock device further comprises a Geneva mechanism having a rotatable drive wheel and a rotatable driven wheel ; wherein the transfer device is powered by the energy harvesting arrangement , wherein the drive wheel is rotatable by rotation of the input member about the first rotational axis when the transfer device adopts the unlocking state, wherein the drive wheel cannot be rotated by rotation of the input member about the first rotational axis when the transfer device adopts the locking state, and wherein the output member is constituted by the driven wheel . - an input member arranged to rotate about an input rotational axis ; - an output member arranged to rotate about an output rotational axis ; - an energy harvesting arrangement configured to generate electric energy from rotation of the input member in a first direction about the input rotational axis ; and - a selective transfer device movable between a locking state, in which the output member cannot be rotated about the output rotational axis by means of rotation of the input member about the input rotational axis , and an unlocking state, in which the output member can be rotated about the output rotational axis by means of rotation of the input member in the first direction about the input rotational axis ; characterized in that the lock device further comprises a Geneva mechanism having a rotatable drive wheel and a rotatable driven wheel ; wherein the transfer device is powered by the energy harvesting arrangement , wherein the drive wheel is rotatable by rotation of the input member about the first rotational axis when the transfer device adopts the unlocking state, wherein the drive wheel cannot be rotated by rotation of the input member about the first rotational axis when the transfer device adopts the locking state, and wherein the output member is constituted by the driven wheel .
A coating composition comprising a phenolic novolak and an aliphatic organosilane, wherein the composition and/or any components thereof are substantially free of BPA, i.e., contain less than 1000 ppm thereof.
An aqueous polymer latex composition for the preparation of an elastomeric film comprising: (I) particles of a latex polymer obtainable by free-radical emulsion polymerization of a mixture of ethylenically unsaturated monomers said particles bearing functional groups (a), wherein the latex polymer has an average gel content of less than 70 wt.-%; and (II) a cross-linking component selected from monomeric compounds and oligomeric or polymeric compounds that are not prepared be free-radical addition polymerization, said cross-linking component comprising functional groups (b) and (c) that are different from each other, wherein - functional group (b) forms upon reaction with functional group (a) a thermally reversible linkage selected from one or more of (i) a linkage having the structural formula wherein X is -O- or -NR 1 -, n is 0 or 1, R 1 is hydrogen or a hydrocarbyl group, and R 2 is a hydrocarbyl group; and (ii) a beta-hydroxy ester linkage; and - functional groups (c) on different molecules of component (II) are capable of reacting with each other. (I) particles of a latex polymer obtainable by free-radical emulsion polymerization of a mixture of ethylenically unsaturated monomers said particles bearing functional groups (a), wherein the latex polymer has an average gel content of less than 70 wt.-%; and (II) a cross-linking component selected from monomeric compounds and oligomeric or polymeric compounds that are not prepared be free-radical addition polymerization, said cross-linking component comprising functional groups (b) and (c) that are different from each other, wherein - functional group (b) forms upon reaction with functional group (a) a thermally reversible linkage selected from one or more of (i) a linkage having the structural formula wherein X is -O- or -NR 1 -, n is 0 or 1, R 1 is hydrogen or a hydrocarbyl group, and R 2 is a hydrocarbyl group; and (ii) a beta-hydroxy ester linkage; and - functional groups (c) on different molecules of component (II) are capable of reacting with each other. - functional group (b) forms upon reaction with functional group (a) a thermally reversible linkage selected from one or more of (i) a linkage having the structural formula wherein X is -O- or -NR 1 -, n is 0 or 1, R 1 is hydrogen or a hydrocarbyl group, and R 2 is a hydrocarbyl group; and (ii) a beta-hydroxy ester linkage; and (i) a linkage having the structural formula wherein X is -O- or -NR 1 -, n is 0 or 1, R 1 is hydrogen or a hydrocarbyl group, and R 2 is a hydrocarbyl group; and X is -O- or -NR 1 -, n is 0 or 1, R 1 is hydrogen or a hydrocarbyl group, and R 2 is a hydrocarbyl group; (ii) a beta-hydroxy ester linkage; and - functional groups (c) on different molecules of component (II) are capable of reacting with each other.
A solid pharmaceutical composition suitable for vaginal administration, wherein the pharmaceutical composition comprises a. 5 to 30 wt% Glucono-δ-lactone (GDL); and b. 10 to 40 wt% Hypromellose (HPMC). a. 5 to 30 wt% Glucono-δ-lactone (GDL); and b. 10 to 40 wt% Hypromellose (HPMC).
A plasma source chamber adapted for use in a spectrometer, the plasma source chamber comprising: - an inner housing , and - an outer housing accommodating the inner housing, wherein the outer housing comprises at least one outer air inlet opening in a first wall of the outer housing and at least one outer air outlet opening in a second wall of the outer housing, wherein walls of the inner housing and walls of the outer housing define a spacing so as to allow a first air flow from the at least one outer air inlet opening to the at least one outer air outlet opening through the spacing between the inner housing and the outer housing, thus cooling the outer housing with air that does not pass through the inner housing, wherein the inner housing comprises at least one inner air inlet opening in a first wall of the inner housing and at least one inner air outlet opening in a second wall of the inner housing to allow a second air flow from the at least one inner air inlet opening to the at least one inner air outlet opening through the inner housing, characterized in that the inner housing is adapted for accommodating a plasma source, and in that further openings are provided in the walls of both the inner housing and the outer housing , which further openings are adapted to accommodate the plasma source and at least one periscopic viewing element. - an inner housing , and - an outer housing accommodating the inner housing, wherein the outer housing comprises at least one outer air inlet opening in a first wall of the outer housing and at least one outer air outlet opening in a second wall of the outer housing, wherein walls of the inner housing and walls of the outer housing define a spacing so as to allow a first air flow from the at least one outer air inlet opening to the at least one outer air outlet opening through the spacing between the inner housing and the outer housing, thus cooling the outer housing with air that does not pass through the inner housing, wherein the inner housing comprises at least one inner air inlet opening in a first wall of the inner housing and at least one inner air outlet opening in a second wall of the inner housing to allow a second air flow from the at least one inner air inlet opening to the at least one inner air outlet opening through the inner housing, characterized in that the inner housing is adapted for accommodating a plasma source, and in that further openings are provided in the walls of both the inner housing and the outer housing , which further openings are adapted to accommodate the plasma source and at least one periscopic viewing element.
A method for microbubble destruction with a medical ultrasound scanner, the method comprising: imaging a field of view of a patient with the medical ultrasound scanner; wherein imaging comprises imaging with a transducer probe; and further comprising detecting motion of the transducer probe; identifying , by the medical ultrasound scanner, locations in the field of view having contrast agents; destroying , with acoustic energy generated by the medical ultrasound scanner interleaved with the imaging , the contrast agents at the locations, the destroying occurring over a first period; adapting a duration of the first period based on intensity of imaging return from the contrast agent at the locations and not other locations; continuing the imaging after the first period without continuing the destroying ; characterized in that adapting the duration comprises ceasing the destroying when the intensity of imaging return from the contrast agent is below a first threshold and the motion is below a second threshold. imaging a field of view of a patient with the medical ultrasound scanner; wherein imaging comprises imaging with a transducer probe; and further comprising detecting motion of the transducer probe; identifying , by the medical ultrasound scanner, locations in the field of view having contrast agents; destroying , with acoustic energy generated by the medical ultrasound scanner interleaved with the imaging , the contrast agents at the locations, the destroying occurring over a first period; adapting a duration of the first period based on intensity of imaging return from the contrast agent at the locations and not other locations; continuing the imaging after the first period without continuing the destroying ;
A method for cleaning an SCR system whereby reducing agent is supplied to an exhaust flow upstream of an SCR catalyst , NOx contents of the exhaust flow are determined upstream and downstream of said SCR catalyst and reducing agent crystals are removed by a high-temperature procedure, characterised by the steps of - switching off the supply of reducing agent to the exhaust flow, - determining (s430) a ratio (K1) between respective NO X contents determined downstream and upstream of said SCR catalyst at a temperature (T1) of said SCR catalyst at which reducing agent crystals do not vaporise, - raising the temperature (s440) of the exhaust flow in order to vaporise reducing agent crystals with a view to cleaning, - determining (s450) a ratio (Kn) between respective NO X contents determined downstream and upstream of said SCR catalyst at a temperature (T2) of said SCR catalyst at which reducing agent crystals vaporise, - comparing (s460) said ratios (K1, Kn) with each other and using this comparison as a basis for deciding whether reducing agent crystals have been removed to an intended extent, wherein, if a difference between said ratios (K1, Kn) is not greater than a predetermined threshold value (TH), it is determined that reducing agent crystals have been removed to an intended extent. - switching off the supply of reducing agent to the exhaust flow, - determining (s430) a ratio (K1) between respective NO X contents determined downstream and upstream of said SCR catalyst at a temperature (T1) of said SCR catalyst at which reducing agent crystals do not vaporise, - raising the temperature (s440) of the exhaust flow in order to vaporise reducing agent crystals with a view to cleaning, - determining (s450) a ratio (Kn) between respective NO X contents determined downstream and upstream of said SCR catalyst at a temperature (T2) of said SCR catalyst at which reducing agent crystals vaporise, - comparing (s460) said ratios (K1, Kn) with each other and using this comparison as a basis for deciding whether reducing agent crystals have been removed to an intended extent,
A device , comprising: a first substrate; a photonic integrated circuit, PIC, provided on a first region of the first substrate the PIC including an optical source , the optical source generating light when a voltage or current is applied to the optical source, the optical source being provided on the first region of the first substrate; a second substrate , a second region of the second substrate forming a cavity with the first region of the first substrate, the optical source extending into the cavity , the first substrate being mounted onto the second substrate ; a surface connector provided on a surface of the second substrate ; an electrical connector provided on a surface of the first substrate; a hermetic seal formed by the PIC and the second substrate ; and wherein the second substrate includes a conductive pass through that electrically connects the surface connector with the electrical connector to facilitate electrical connection of portions of the PIC inside the hermetical seal to one or more devices outside the hermetical seal, the conductive pass through extending beneath a portion of the second substrate and spaced from the surface of the second substrate , and an optical interconnect , the optical interconnect being provided on or in the second substrate and outside the cavity , the optical interconnect being configured to receive the light from the optical source . a first substrate; a photonic integrated circuit, PIC, provided on a first region of the first substrate the PIC including an optical source , the optical source generating light when a voltage or current is applied to the optical source, the optical source being provided on the first region of the first substrate; a second substrate , a second region of the second substrate forming a cavity with the first region of the first substrate, the optical source extending into the cavity , the first substrate being mounted onto the second substrate ; a surface connector provided on a surface of the second substrate ; an electrical connector provided on a surface of the first substrate; and wherein the second substrate includes a conductive pass through that electrically connects the surface connector with the electrical connector to facilitate electrical connection of portions of the PIC inside the hermetical seal to one or more devices outside the hermetical seal, the conductive pass through extending beneath a portion of the second substrate and spaced from the surface of the second substrate , and an optical interconnect , the optical interconnect being provided on or in the second substrate and outside the cavity , the optical interconnect being configured to receive the light from the optical source .
An antenna structure, comprising: a resonant arm , a first feed line portion , a first ground plane , a substrate , a second ground plane , a second feed line portion , and at least two radiation elements , wherein the resonant arm is electrically connected to the first ground plane through the first feed line portion ; the substrate is attached to the second ground plane , the second ground plane is disposed on a surface of the substrate proximate to the first ground plane , and two ends of a shield layer of the second feed line portion are connected to the first ground plane and the second ground plane , respectively; and the at least two radiation elements are disposed on a surface of the substrate away from the second ground plane , the second feed line portion wraps a feed line inside, and the feed line passes through the substrate and the second ground plane and electrically connects to the at least two radiation elements ; wherein the shield layer of the second feed line portion is connected to a first end of the second ground plane , which is away from the resonant arm . the resonant arm is electrically connected to the first ground plane through the first feed line portion ; the substrate is attached to the second ground plane , the second ground plane is disposed on a surface of the substrate proximate to the first ground plane , and two ends of a shield layer of the second feed line portion are connected to the first ground plane and the second ground plane , respectively; and the at least two radiation elements are disposed on a surface of the substrate away from the second ground plane , the second feed line portion wraps a feed line inside, and the feed line passes through the substrate and the second ground plane and electrically connects to the at least two radiation elements ; wherein the shield layer of the second feed line portion is connected to a first end of the second ground plane , which is away from the resonant arm .
A plastic bottle for containing a product under pressure, the plastic bottle comprising: (a) a rounded base at a bottom end of the bottle , the rounded base being convex towards the outside of the bottle ; (b) a body extending about an axis of the bottle from the base towards a top end of the bottle ; and (c) a finish at the top end of the bottle , the finish extending about the axis of the bottle , wherein the plastic bottle is configured such that the product can be dispensed as an aerosol, and characterised by the base being thickest at a position adjacent to the axis of the bottle , with the thickness decreasing at a rate of 3.8 mm per mm along the base from the axis of the bottle . (a) a rounded base at a bottom end of the bottle , the rounded base being convex towards the outside of the bottle ; (b) a body extending about an axis of the bottle from the base towards a top end of the bottle ; and (c) a finish at the top end of the bottle , the finish extending about the axis of the bottle , wherein the plastic bottle is configured such that the product can be dispensed as an aerosol, and characterised by the base being thickest at a position adjacent to the axis of the bottle , with the thickness decreasing at a rate of 3.8 mm per mm along the base from the axis of the bottle .
A hermetic compressor comprising: an airtight case including a lower portion configured to store oil; a frame disposed in the airtight case ; a compression mechanism disposed in the frame and configured to compress a refrigerant; a motor mechanism including a stator fixed to the frame and a rotor configured to rotate inside the stator ; a rotation shaft coupled to the rotor and including a cavity at a lower portion of the rotation shaft , wherein the rotation shaft is configured to rotate together with the rotor and operates the compression mechanism ; a stationary shaft inserted into the cavity of the rotation shaft , fixed to the airtight case , and including a helical groove formed on an outer circumferential surface of the stationary shaft ; and an oil raising member fixed to the cavity of the rotation shaft , comprising a hollow cylindrical shape, and configured to surround the stationary shaft , wherein the oil raising member is configured to rotate integrally with the rotation shaft , move relative to the stationary shaft , and raise the oil stored in the lower portion of the airtight case , characterized in that a plurality of protrusions or a plurality of grooves are disposed on the surface of the oil raising member facing the stationary shaft, and in that a cross-section of each of the plurality of protrusions or the plurality of grooves comprises any one of a polygonal shape, a circular shape, a semicircular shape, or an elliptical shape. an airtight case including a lower portion configured to store oil; a frame disposed in the airtight case ; a compression mechanism disposed in the frame and configured to compress a refrigerant; a motor mechanism including a stator fixed to the frame and a rotor configured to rotate inside the stator ; a rotation shaft coupled to the rotor and including a cavity at a lower portion of the rotation shaft , wherein the rotation shaft is configured to rotate together with the rotor and operates the compression mechanism ; a stationary shaft inserted into the cavity of the rotation shaft , fixed to the airtight case , and including a helical groove formed on an outer circumferential surface of the stationary shaft ; and an oil raising member fixed to the cavity of the rotation shaft , comprising a hollow cylindrical shape, and configured to surround the stationary shaft , wherein the oil raising member is configured to rotate integrally with the rotation shaft , move relative to the stationary shaft , and raise the oil stored in the lower portion of the airtight case , characterized in that a plurality of protrusions or a plurality of grooves are disposed on the surface of the oil raising member facing the stationary shaft, and in that a cross-section of each of the plurality of protrusions or the plurality of grooves comprises any one of a polygonal shape, a circular shape, a semicircular shape, or an elliptical shape.
A reservoir lid for a continuous ink jet printer, including a so-called upper surface (33 1 ), a so-called lower surface (33 2 ), between which are included an upper part and a lower part of the lid, at least the latter being delimited sideways by a peripheral surface (S e ), and: - at least one 1 st duct , which passes through at least one part of the lid, for leading a 1 st fluid from said upper part to said lower part and direct it, at least partly, sideways, to said peripheral surface (S e ), - at least one 1 st chamber delimited by an internal surface into which said duct opens, and by said peripheral surface (S e ), and means for flowing a liquid contained in this chamber along said peripheral surface. - at least one 1 st duct , which passes through at least one part of the lid, for leading a 1 st fluid from said upper part to said lower part and direct it, at least partly, sideways, to said peripheral surface (S e ), - at least one 1 st chamber delimited by an internal surface into which said duct opens, and by said peripheral surface (S e ), and means for flowing a liquid contained in this chamber along said peripheral surface.