mhurhangee/patent-ind-claim-en huggingface dataset:
Pharmaceutical active ingredient consisting exclusively of the combination of: - -3-{[ -3-(3,4-dihydroxyphenyl)-2-propenoyl]oxy}-1,4,5-trihydroxycyclohexanecarboxylic acid, and - methyl -4-{2-[2-(3,4-dihydroxyphenyl)ethoxy]-2-oxoethyl}-3-ethylidene-2-(β-D-glucopyranosyloxy)-3,4-dihydro-2H-pyran-5-carboxylale for use as a drug or veterinary product. - -3-{[ -3-(3,4-dihydroxyphenyl)-2-propenoyl]oxy}-1,4,5-trihydroxycyclohexanecarboxylic acid, and - methyl -4-{2-[2-(3,4-dihydroxyphenyl)ethoxy]-2-oxoethyl}-3-ethylidene-2-(β-D-glucopyranosyloxy)-3,4-dihydro-2H-pyran-5-carboxylale for use as a drug or veterinary product.
A hose-end spreader device configured for broadcasting granular product and water onto a lawn, terrain or another surface, the device comprising: a hopper configured to contain an amount of granular product, the hopper comprising a hopper inlet and a hopper outlet in communication with the hopper inlet ; a first chamber in communication with the hopper outlet , the first chamber comprising a first opening through which the granular product exits the device ; a first impeller disposed in the first chamber ; a housing disposed below the first chamber , the housing comprising a fluid inlet , a second chamber in communication with the fluid inlet , and a second opening in communication with the second chamber through which a fluid exits the device ; and a second impeller disposed in the second chamber and being coupled to the first impeller . a hopper configured to contain an amount of granular product, the hopper comprising a hopper inlet and a hopper outlet in communication with the hopper inlet ; a first chamber in communication with the hopper outlet , the first chamber comprising a first opening through which the granular product exits the device ; a first impeller disposed in the first chamber ; a housing disposed below the first chamber , the housing comprising a fluid inlet , a second chamber in communication with the fluid inlet , and a second opening in communication with the second chamber through which a fluid exits the device ; and a second impeller disposed in the second chamber and being coupled to the first impeller .
A gas bag system for being mounted at an interior panel of a vehicle, comprising: a fabric housing for receiving a gas bag , the fabric housing comprising a first fabric element and a second fabric element , wherein a connection section of the first fabric element is connected to the second fabric element , and characterized in that the first fabric element contains a weakened zone being aligned with a predetermined split line in the plastic material cover that is designed to form at least one flap for providing a deployment opening in the fabric housing for releasing the gas bag in case of deployment of the gas bag , and at least a central area of the first fabric element is embedded in or overmolded with a plastic material cover , and an attachment section at an end section of the second fabric element is embedded in or overmolded with the plastic material cover . a fabric housing for receiving a gas bag , the fabric housing comprising a first fabric element and a second fabric element , wherein a connection section of the first fabric element is connected to the second fabric element , and characterized in that the first fabric element contains a weakened zone being aligned with a predetermined split line in the plastic material cover that is designed to form at least one flap for providing a deployment opening in the fabric housing for releasing the gas bag in case of deployment of the gas bag , and at least a central area of the first fabric element is embedded in or overmolded with a plastic material cover , and an attachment section at an end section of the second fabric element is embedded in or overmolded with the plastic material cover .
A cleansing agent, comprising: a polyvalent alcohol; component (A) in the form of one or more types of ionic surfactant selected from the group consisting of a fatty acid soap, fatty acid amide sulfonate having 8 to 22 carbon atoms, alkyl sulfate ester salt, N-acyl glutamate, N-acyl glycinate, a betaine-based surfactant and an imidazoline-based surfactant; and component (B) in the form of a hydroxystearic acid polymer which is a polymer obtained by polymerizing 12-hydroxystearic acid; wherein the amount of the aforementioned component (A) is 5% by weight to 60% by weight, the amount of the aforementioned component (B) is 0.1% by weight to 15% by weight. a polyvalent alcohol; component (A) in the form of one or more types of ionic surfactant selected from the group consisting of a fatty acid soap, fatty acid amide sulfonate having 8 to 22 carbon atoms, alkyl sulfate ester salt, N-acyl glutamate, N-acyl glycinate, a betaine-based surfactant and an imidazoline-based surfactant; and component (B) in the form of a hydroxystearic acid polymer which is a polymer obtained by polymerizing 12-hydroxystearic acid; wherein the amount of the aforementioned component (A) is 5% by weight to 60% by weight, the amount of the aforementioned component (B) is 0.1% by weight to 15% by weight.
Method for producing metallic surface discharge electrodes on non-metallic substrates, comprising the steps: a. producing a metallic seed layer on a substrate, b. electrically contacting the seed layer with a metal wire network and an electrolyte containing metal ions, c. electrodepositing a metal film from the electrolyte at least on the seed layer, with the metal wire network being embedded in the metal film, characterized in that d. metal wire filaments which are movable relative to one another are arranged to form an electrically percolating metal wire network, e. the arrangement of the metal wire filaments is cast into a gel and the gel is then dried to form the gel matrix, and f. the dried gel matrix with the metal wire network embedded therein is applied to the substrate and is wetted with a solvent of the gel matrix. a. producing a metallic seed layer on a substrate, b. electrically contacting the seed layer with a metal wire network and an electrolyte containing metal ions, c. electrodepositing a metal film from the electrolyte at least on the seed layer, with the metal wire network being embedded in the metal film, d. metal wire filaments which are movable relative to one another are arranged to form an electrically percolating metal wire network, e. the arrangement of the metal wire filaments is cast into a gel and the gel is then dried to form the gel matrix, and f. the dried gel matrix with the metal wire network embedded therein is applied to the substrate and is wetted with a solvent of the gel matrix.
An indoor unit of an air conditioning apparatus in which conditioned air heat-exchanged by a heat exchanger using a slightly flammable refrigerant or a flammable refrigerant having specific gravity higher than that of air is blown out from a blowout port by an indoor fan , the indoor unit comprising: a refrigerant detector configured to detect leakage of the refrigerant; and a blowout port opening/closing mechanism capable of closing a part of the blowout port , characterized in that , when the refrigerant detector detects the leakage of the refrigerant, the indoor fan is driven in a state in which the part of the blowout port is closed by the blowout port opening/closing mechanism to suppress or block blowing of the conditioned air from the part of the blowout port , wherein the indoor unit is a floor mount type indoor unit , the blowout port is a rectangular blowout port formed in an upper surface of a casing of the indoor unit , the indoor unit is configured to be disposable on a wall side so that, in use, one long side of the rectangular blowout port is arranged along a wall surface, and the blowout port opening/closing mechanism is configured to close a part of the rectangular blowout port along a long side of the rectangular blowout port opposite to the wall. a refrigerant detector configured to detect leakage of the refrigerant; and a blowout port opening/closing mechanism capable of closing a part of the blowout port , characterized in that , when the refrigerant detector detects the leakage of the refrigerant, the indoor fan is driven in a state in which the part of the blowout port is closed by the blowout port opening/closing mechanism to suppress or block blowing of the conditioned air from the part of the blowout port , wherein the indoor unit is a floor mount type indoor unit , the blowout port is a rectangular blowout port formed in an upper surface of a casing of the indoor unit , the indoor unit is configured to be disposable on a wall side so that, in use, one long side of the rectangular blowout port is arranged along a wall surface, and the blowout port opening/closing mechanism is configured to close a part of the rectangular blowout port along a long side of the rectangular blowout port opposite to the wall.
A series resonant circuit power converter comprising: - an inverter ; - a series LC resonant circuit; - a transformer (T1) comprising a primary circuit and a secondary circuit ; and - means for controlling the inverter, the inverter being connected to the series LC resonant circuit that is intended to be connected to an output load (Rout) through the transformer (T1), characterised in that the primary circuit comprises a first winding of N11 turns and a second winding of N12 turns with N11 = N12, an inductor (Lx) parallel to the first winding, a capacity capacitor Cx parallel to the second winding, and in that the inductor Lx parallel to the first winding, the capacitor Cx and the inductor Lr of the series LC resonant circuit are such that C X = 4 L R ∗ 1 ω 2 2 − ω 0 2 + 1 L X ω 2 2 , with ω 2 being the low-load resonant pulse and ω 0 being the high-load resonant pulse. - an inverter ; - a series LC resonant circuit; - a transformer (T1) comprising a primary circuit and a secondary circuit ; and - means for controlling the inverter, the inverter being connected to the series LC resonant circuit that is intended to be connected to an output load (Rout) through the transformer (T1), characterised in that the primary circuit comprises a first winding of N11 turns and a second winding of N12 turns with N11 = N12, an inductor (Lx) parallel to the first winding, a capacity capacitor Cx parallel to the second winding, and in that the inductor Lx parallel to the first winding, the capacitor Cx and the inductor Lr of the series LC resonant circuit are such that C X = 4 L R ∗ 1 ω 2 2 − ω 0 2 + 1 L X ω 2 2 , with ω 2 being the low-load resonant pulse and ω 0 being the high-load resonant pulse.
A centering stabilizer comprising: a first section to produce a pulling force along a longitudinal axis thereof; a second section to produce a pushing force along a longitudinal axis thereof, wherein the longitudinal axis of the first section is aligned with the longitudinal axis of the second section; first mounting assembly attached to a first distal end of the centering stabilizer , wherein said first mounting assembly securely attaches the centering stabilizer to a steering system of a vehicle, wherein said vehicle steering system moves in association with a set of steerable wheels; second mounting assembly attached to a second distal end of the centering stabilizer , wherein said second mounting assembly securely attaches said second section of said centering stabilizer to a vehicle frame of the vehicle, wherein when the set of steerable wheels is displaced from a straight ahead driving position, a distance between said vehicle steering system and said vehicle frame changes; and the centering stabilizer further comprising a dynamically adjustable mount to adjust a centering position of the centering stabilizer from within the vehicle. a first section to produce a pulling force along a longitudinal axis thereof; a second section to produce a pushing force along a longitudinal axis thereof, wherein the longitudinal axis of the first section is aligned with the longitudinal axis of the second section; first mounting assembly attached to a first distal end of the centering stabilizer , wherein said first mounting assembly securely attaches the centering stabilizer to a steering system of a vehicle, wherein said vehicle steering system moves in association with a set of steerable wheels; second mounting assembly attached to a second distal end of the centering stabilizer , wherein said second mounting assembly securely attaches said second section of said centering stabilizer to a vehicle frame of the vehicle, wherein when the set of steerable wheels is displaced from a straight ahead driving position, a distance between said vehicle steering system and said vehicle frame changes; and the centering stabilizer further comprising a dynamically adjustable mount to adjust a centering position of the centering stabilizer from within the vehicle.
Hydraulic system for controlling a stabilizer drive by means of open-loop control, in particular for controlling an angle of attack and/or a pivoting out and in of a stabilizer wing by means of open-loop control, preferably on ships, comprising: a rotary vane motor that changes the angle of attack of the stabilizer wing and a hydraulic cylinder for pivoting the stabilizer wing out and in; a first hydraulic circuit having: a low-pressure circuit and a high-pressure circuit ; a device for providing an admission pressure of the low-pressure circuit; two anti-cavitation valves separating the low-pressure circuit from the high-pressure circuit ; a first hydraulic pump driven by an electric motor and having two connections being integrated in the high-pressure circuit and being hydraulically connected to the rotary vane motor and the hydraulic cylinder ; characterized in that the two connections of the first hydraulic pump are each fluidically connected to a first line , the first line being fluidically connected to the rotary vane motor and the hydraulic cylinder , the two connections of the first hydraulic pump each being fluidically connected via a check valve to the first line . a rotary vane motor that changes the angle of attack of the stabilizer wing and a hydraulic cylinder for pivoting the stabilizer wing out and in; a first hydraulic circuit having: a low-pressure circuit and a high-pressure circuit ; a device for providing an admission pressure of the low-pressure circuit; two anti-cavitation valves separating the low-pressure circuit from the high-pressure circuit ; a first hydraulic pump driven by an electric motor and having two connections being integrated in the high-pressure circuit and being hydraulically connected to the rotary vane motor and the hydraulic cylinder ; characterized in that the two connections of the first hydraulic pump are each fluidically connected to a first line , the first line being fluidically connected to the rotary vane motor and the hydraulic cylinder , the two connections of the first hydraulic pump each being fluidically connected via a check valve to the first line . a low-pressure circuit and a high-pressure circuit ; a device for providing an admission pressure of the low-pressure circuit; two anti-cavitation valves separating the low-pressure circuit from the high-pressure circuit ; a first hydraulic pump driven by an electric motor and having two connections being integrated in the high-pressure circuit and being hydraulically connected to the rotary vane motor and the hydraulic cylinder ; characterized in that the two connections of the first hydraulic pump are each fluidically connected to a first line , the first line being fluidically connected to the rotary vane motor and the hydraulic cylinder , the two connections of the first hydraulic pump each being fluidically connected via a check valve to the first line .
A composition comprising a live, attenuated or genetically modified herpesvirus, at least two or more pharmaceutically acceptable excipients, wherein the at least two or more pharmaceutically acceptable excipients comprise 1 mM to 50 mM histidine and a non-reducing disaccharide, wherein the non-reducing disaccharide is 1% to 20% w/v sucrose or 1% to 20% w/v trehalose, and one or more additional pharmaceutically acceptable excipients, wherein the one or more additional pharmaceutically acceptable excipients comprise 10 mM to 100 mM glutamate, wherein the composition has a pH of 6.5 to 7.5. a live, attenuated or genetically modified herpesvirus, at least two or more pharmaceutically acceptable excipients, wherein the at least two or more pharmaceutically acceptable excipients comprise 1 mM to 50 mM histidine and a non-reducing disaccharide, wherein the non-reducing disaccharide is 1% to 20% w/v sucrose or 1% to 20% w/v trehalose, and one or more additional pharmaceutically acceptable excipients, wherein the one or more additional pharmaceutically acceptable excipients comprise 10 mM to 100 mM glutamate, wherein the composition has a pH of 6.5 to 7.5.
An implantable neurological device, comprising: a support tube ; a cylindrical member coupled with the support tube, the cylindrical member comprising a distal end and a proximal end; and a microelectrode film formed along at least a portion of the cylindrical member , the microelectrode film comprising a plurality of circumferential, segmented electrodes coupled with one another via the microelectrode film , the plurality of circumferential, segmented electrodes spaced along a longitudinal axis of the cylindrical member toward the distal end of the cylindrical member, each of the plurality of circumferential, segmented electrodes comprising at least three microelectrodes about the longitudinal axis. a support tube ; a cylindrical member coupled with the support tube, the cylindrical member comprising a distal end and a proximal end; and a microelectrode film formed along at least a portion of the cylindrical member , the microelectrode film comprising a plurality of circumferential, segmented electrodes coupled with one another via the microelectrode film , the plurality of circumferential, segmented electrodes spaced along a longitudinal axis of the cylindrical member toward the distal end of the cylindrical member, each of the plurality of circumferential, segmented electrodes comprising at least three microelectrodes about the longitudinal axis.
Installation for fitting out the inside of an enclosure, in particular a cellar, comprising: - a floor including at least one plate and resting on a plurality of feet of adjustable heights, the floor being distant from the base of the feet , - rails received on the floor and extending along at least one portion of the perimeter of the floor , - a plurality of side walls each being formed of at least one plate being housed in at least one rail , characterised in that said plates have an oriented wooden strip-base of lengths greater than 20 millimetres, in that the side walls support at least one profiled beam comprising a suspended hook , and in that the installation comprises a console comprising a plate and two side uprights fixed to the plate , as well as at least one suspended hook arranged to cooperate with the suspended hook of the beam so as to retain the console . - a floor including at least one plate and resting on a plurality of feet of adjustable heights, the floor being distant from the base of the feet , - rails received on the floor and extending along at least one portion of the perimeter of the floor , - a plurality of side walls each being formed of at least one plate being housed in at least one rail ,
A method of power factor correction in which an input voltage (V in ) is applied to an inductor (L1) which is cyclically discharged through a diode (D1) by the operation of a switch (Q3), the method including: operating a controller to obtain an indication of the voltage across the switch (Q3), monitoring the indication of the voltage across the switch (Q3) to determine when the inductor (L1) reaches a discharged state in response to the switch being in an off state, and operating the controller to control the switch (Q3) to vary the on period of the switch (Q3), during which the inductor is charged, for adjusting an output voltage (V bus ) towards a target value (V bus_target ), characterised by the step of: operating the controller to monitor at least one of the indication of the voltage across the switch (Q3) and the ratio of the switch on period (T on ) to the switch off period (T off ) for detecting that the input voltage (V in ) has a low value, wherein the input voltage (V in ) has the low value, when the input voltage (V in ) is below a voltage threshold for at least a predetermined period. operating a controller to obtain an indication of the voltage across the switch (Q3), monitoring the indication of the voltage across the switch (Q3) to determine when the inductor (L1) reaches a discharged state in response to the switch being in an off state, and operating the controller to control the switch (Q3) to vary the on period of the switch (Q3), during which the inductor is charged, for adjusting an output voltage (V bus ) towards a target value (V bus_target ), characterised by the step of: operating the controller to monitor at least one of the indication of the voltage across the switch (Q3) and the ratio of the switch on period (T on ) to the switch off period (T off ) for detecting that the input voltage (V in ) has a low value, wherein the input voltage (V in ) has the low value, when the input voltage (V in ) is below a voltage threshold for at least a predetermined period. operating the controller to monitor at least one of the indication of the voltage across the switch (Q3) and the ratio of the switch on period (T on ) to the switch off period (T off ) for detecting that the input voltage (V in ) has a low value, wherein the input voltage (V in ) has the low value, when the input voltage (V in ) is below a voltage threshold for at least a predetermined period.