mhurhangee/ep-ind-claims huggingface dataset:
Packaging and distribution assembly for a fluid product, comprising: a receptacle able to receive a first fluid composition, said receptacle comprising an opening provided with first removable means of assembly; - a storage member, comprising: - second removable means of assembly, able to cooperate with the first removable means of assembly for closing the receptacle; and - a tubular reservoir, integral with said second removable means of assembly and able to receive a second fluid composition, said tubular reservoir comprising a closed end, configured to be arranged inside the receptacle in an assembled configuration of said receptacle with said storage member; and - a pressurization member of the tubular reservoir; characterized in that the storage member and the pressurization member comprise respectively a first and a second sealing skirts, said first and second sealing skirts being configured to be inserted one in the other in a sealed manner, in such a way as to define a closed chamber in communication with the tubular reservoir, to be displaced axially one in relation to the other in such a way as to decrease the volume (132, 144) of said closed chamber. a receptacle able to receive a first fluid composition, said receptacle comprising an opening provided with first removable means of assembly; - a storage member, comprising: - second removable means of assembly, able to cooperate with the first removable means of assembly for closing the receptacle; and - a tubular reservoir, integral with said second removable means of assembly and able to receive a second fluid composition, said tubular reservoir comprising a closed end, configured to be arranged inside the receptacle in an assembled configuration of said receptacle with said storage member; and - a pressurization member of the tubular reservoir; - a storage member, comprising: - second removable means of assembly, able to cooperate with the first removable means of assembly for closing the receptacle; and - a tubular reservoir, integral with said second removable means of assembly and able to receive a second fluid composition, said tubular reservoir comprising a closed end, configured to be arranged inside the receptacle in an assembled configuration of said receptacle with said storage member; and - second removable means of assembly, able to cooperate with the first removable means of assembly for closing the receptacle; and - a tubular reservoir, integral with said second removable means of assembly and able to receive a second fluid composition, - a pressurization member of the tubular reservoir; characterized in that the storage member and the pressurization member comprise respectively a first and a second sealing skirts, said first and second sealing skirts being configured to be inserted one in the other in a sealed manner, in such a way as to define a closed chamber in communication with the tubular reservoir, to be displaced axially one in relation to the other in such a way as to decrease the volume (132, 144) of said closed chamber.
A motor vehicle, namely a lorry, in particular a box lorry, having a driver's cab and having a vehicle frame for mounting a box body, wherein at least one engine- and unit-cooling device is arranged on the vehicle frame side, characterized in that the vehicle front of the driver's cab is structurally designed to have a continuous surface, with the result that it has no air inlet for engine and unit cooling.
An electrolyte solution for a dye sensitized solar cell, comprising a chain sulfone compound represented by formula as a solvent: wherein R 1 and R 2 each independently represent an alkyl group having from 1 to 12 carbon atoms, which may be partially substituted by a halogen, an alkoxy group or an aromatic ring, an alkoxy group, or a phenyl group, and characterised in that a total number of carbon atoms of R 1 and R 2 is 5 or more.
A method of performing online diagnostics for a valve, said method comprising: receiving valve information while the valve is in operation, the valve information including setpoint data and position data associated with the valve, whereby the valve information includes a number of samples of setpoint and position data collected over a period time; processing the setpoint data and the position data at a plurality of time intervals; detecting (212, 410) an occurrence of a stick-slip based on the processing, characterized in that processing the setpoint data and the position data comprises: - calculating a setpoint value, which is the p-norm of a difference of setpoint using the equation RSp = Δ SP p N p where N is a number of points, p is an algorithm parameter and ΔSp is the difference between each setpoint; - calculating a position value, which is p-norm of a difference of position using the equation RPos = Δ Pos p N p where N is a number of points, p is an algorithm parameter and ΔPos is the difference between each position; - calculating the ratio of RPos over RSp; and - comparing the ratio to a stick-slip threshold. receiving valve information while the valve is in operation, the valve information including setpoint data and position data associated with the valve, whereby the valve information includes a number of samples of setpoint and position data collected over a period time; processing the setpoint data and the position data at a plurality of time intervals; detecting (212, 410) an occurrence of a stick-slip based on the processing, characterized in that processing the setpoint data and the position data comprises: - calculating a setpoint value, which is the p-norm of a difference of setpoint using the equation RSp = Δ SP p N p where N is a number of points, p is an algorithm parameter and ΔSp is the difference between each setpoint; - calculating a position value, which is p-norm of a difference of position using the equation RPos = Δ Pos p N p where N is a number of points, p is an algorithm parameter and ΔPos is the difference between each position; - calculating the ratio of RPos over RSp; and - comparing the ratio to a stick-slip threshold. - calculating a setpoint value, which is the p-norm of a difference of setpoint using the equation RSp = Δ SP p N p where N is a number of points, p is an algorithm parameter and ΔSp is the difference between each setpoint; - calculating a position value, which is p-norm of a difference of position using the equation RPos = Δ Pos p N p where N is a number of points, p is an algorithm parameter and ΔPos is the difference between each position; - calculating the ratio of RPos over RSp; and - comparing the ratio to a stick-slip threshold.
A battery module, which includes a module housing provided in an angular tube shape and a cell assembly having a plurality of pouch-type battery cells stacked and arranged in one direction with broad surfaces being erect and accommodated in the module housing, wherein the battery module comprises a sensing assembly configured to electrically connect electrode leads extending from the pouch-type battery cells and cover a front portion and a rear portion of the cell assembly, respectively, wherein flow paths through which a cooling air flows are formed between a top plate and the cell assembly and between a bottom plate and the cell assembly, respectively, the top and bottom plates (130, 140) serving as upper and lower portions of the module housing, and wherein ventilation holes for allowing the cooling air to flow into and out of the flow path are formed at a top end and a bottom end of the sensing assembly; wherein the pouch-type battery cells are closely disposed so that broad surfaces thereof are in contact with each other. wherein the battery module comprises a sensing assembly configured to electrically connect electrode leads extending from the pouch-type battery cells and cover a front portion and a rear portion of the cell assembly, respectively, wherein flow paths through which a cooling air flows are formed between a top plate and the cell assembly and between a bottom plate and the cell assembly, respectively, the top and bottom plates (130, 140) serving as upper and lower portions of the module housing, and wherein ventilation holes for allowing the cooling air to flow into and out of the flow path are formed at a top end and a bottom end of the sensing assembly; wherein the pouch-type battery cells are closely disposed so that broad surfaces thereof are in contact with each other.
A solution for producing a rare-earth superconductive film, wherein the solution is a homogeneous solution, comprising: a metal complex in which pyridine and/or at least one type of tertiary amine, at least one type of carboxylic acid group having a carbon number of 1 to 8, and, as needed, an acetylacetonato group, are coordinated relative to metal ions of a metallic species containing rare-earth elements, barium and copper, as a solute; univalent linear alcohol having a carbon number of 1 to 8 and/or water as a solvent; and polyhydric alcohol as an additive in an amount of 0.02 to 0.04 ml per 1 g of the solution, wherein the polyhydric alcohol comprises: ethylene glycol, hexylene glycol, octylene glycol, glycerin, diethylene glycol, triethylene glycol, tetraethylene glycol or propylene glycol and wherein the solution concentration is 0.2 to 0.3 millimoles of rare-earth metallic species per 1 g of the solution. a metal complex in which pyridine and/or at least one type of tertiary amine, at least one type of carboxylic acid group having a carbon number of 1 to 8, and, as needed, an acetylacetonato group, are coordinated relative to metal ions of a metallic species containing rare-earth elements, barium and copper, as a solute; univalent linear alcohol having a carbon number of 1 to 8 and/or water as a solvent; and polyhydric alcohol as an additive in an amount of 0.02 to 0.04 ml per 1 g of the solution, wherein the polyhydric alcohol comprises: ethylene glycol, hexylene glycol, octylene glycol, glycerin, diethylene glycol, triethylene glycol, tetraethylene glycol or propylene glycol and wherein the solution concentration is 0.2 to 0.3 millimoles of rare-earth metallic species per 1 g of the solution.
A wireless power transmitter, comprising: a transmit antenna configured as a resonant tank, the transmit antenna including a first capacitor coupled in parallel with a first inductor, said transmit antenna configured to wirelessly transmit power to a receive antenna in response to a time-varying, unmodulated signal; a second inductor coupled in series with the transmit antenna; a second capacitor coupled in series with the second inductor and the transmit antenna; and a driver configured to drive the transmit antenna, the driver coupled in series with the second capacitor, wherein the second inductor is coupled between the said second capacitor and the transmit antenna, said second inductor and the first capacitor together define a filter configured to filter said time-varying, unmodulated signal and match an impedance of a load including said loaded receive antenna. a transmit antenna configured as a resonant tank, the transmit antenna including a first capacitor coupled in parallel with a first inductor, said transmit antenna configured to wirelessly transmit power to a receive antenna in response to a time-varying, unmodulated signal; a second inductor coupled in series with the transmit antenna; a second capacitor coupled in series with the second inductor and the transmit antenna; and a driver configured to drive the transmit antenna, the driver coupled in series with the second capacitor, wherein the second inductor is coupled between the said second capacitor and the transmit antenna, said second inductor and the first capacitor together define a filter configured to filter said time-varying, unmodulated signal and match an impedance of a load including said loaded receive antenna.
An optical component comprising: an optical fiber holding member for holding an optical fiber; a light conversion member; and a cap including an inner hole for allowing the light conversion member and the optical fiber holding member to be inserted into said cap; wherein the light conversion member inserted into the inner hole of the cap is fixed in the inner hole by being sandwiched between the optical fiber holding member and the cap, and the light conversion member contains phosphor in a glass and converts the wavelength of the light exit of the optical fiber to light having a different wavelength, characterized in that: the cap further includes an engagement part with an opening for engaging the inserted members at one end of the inner hole, the opening of the engagement part is smaller than a maximum diameter of the light conversion member, and the light conversion member inserted into the inner hole of the cap is pressed against the engagement part by said sandwiching. an optical fiber holding member for holding an optical fiber; a light conversion member; and a cap including an inner hole for allowing the light conversion member and the optical fiber holding member to be inserted into said cap; wherein the light conversion member inserted into the inner hole of the cap is fixed in the inner hole by being sandwiched between the optical fiber holding member and the cap, and the light conversion member contains phosphor in a glass and converts the wavelength of the light exit of the optical fiber to light having a different wavelength, characterized in that: the cap further includes an engagement part with an opening for engaging the inserted members at one end of the inner hole, the opening of the engagement part is smaller than a maximum diameter of the light conversion member, and the light conversion member inserted into the inner hole of the cap is pressed against the engagement part by said sandwiching. the cap further includes an engagement part with an opening for engaging the inserted members at one end of the inner hole, the opening of the engagement part is smaller than a maximum diameter of the light conversion member, and the light conversion member inserted into the inner hole of the cap is pressed against the engagement part by said sandwiching.
An implantable access port (14, 102) for use with a gastric band for the treatment of obesity, the access port comprising: a substantially ellipsoid-shaped housing defining an internal fluid reservoir and a conduit for the movement of fluid into and out of the internal fluid reservoir, characterized by at least a portion of the housing including a mesh layer for enhancing the self-sealing properties of the housing, by constraining materials of the housing, to prevent fluid from leaking from the reservoir; and by the access port further comprising an anchor member coupled with the housing for attachment of the access port to body tissue. a substantially ellipsoid-shaped housing defining an internal fluid reservoir and a conduit for the movement of fluid into and out of the internal fluid reservoir, characterized by at least a portion of the housing including a mesh layer for enhancing the self-sealing properties of the housing, by constraining materials of the housing, to prevent fluid from leaking from the reservoir; and by the access port further comprising an anchor member coupled with the housing for attachment of the access port to body tissue.
Respirator for ventilating a patient, comprising: a respiratory tube connector (29, 30) for connecting a respiratory tube (4, 5); an actuator (8, 10, 13) that is pneumatically connected to the respiratory tube connector (29, 30) for delivering air to a patient via the respiratory tube connector (29, 30); an oximeter connector for delivering an oxygen saturation signal; a digital programmable controller that is electrically connected to said oximeter connector for delivering the oxygen saturation signal to said digital programmable controller, wherein the digital programmable controller is programmed • to calculate the oxygen saturation from the oxygen saturation signal, and • to determine whether the oxygen saturation falls below a lower limit and to start backup respiration at a predetermined frequency in this case, and • to reduce the frequency of the backup respiration if the oxygen saturation exceeds the lower limit value again. characterized in that the controller is further programmed to further reduce (104, 105) the frequency of backup ventilation when the oxygen saturation exceeds a saturation target value, wherein the saturation target value is greater than the lower limit value. a respiratory tube connector (29, 30) for connecting a respiratory tube (4, 5); an actuator (8, 10, 13) that is pneumatically connected to the respiratory tube connector (29, 30) for delivering air to a patient via the respiratory tube connector (29, 30); an oximeter connector for delivering an oxygen saturation signal; a digital programmable controller that is electrically connected to said oximeter connector for delivering the oxygen saturation signal to said digital programmable controller, wherein the digital programmable controller is programmed • to calculate the oxygen saturation from the oxygen saturation signal, and • to determine whether the oxygen saturation falls below a lower limit and to start backup respiration at a predetermined frequency in this case, and • to reduce the frequency of the backup respiration if the oxygen saturation exceeds the lower limit value again. • to calculate the oxygen saturation from the oxygen saturation signal, and • to determine whether the oxygen saturation falls below a lower limit and to start backup respiration at a predetermined frequency in this case, and • to reduce the frequency of the backup respiration if the oxygen saturation exceeds the lower limit value again. characterized in that the controller is further programmed to further reduce (104, 105) the frequency of backup ventilation when the oxygen saturation exceeds a saturation target value, wherein the saturation target value is greater than the lower limit value.
A sliding member comprising a substrate and a copper alloy layer bonded to the substrate, wherein the copper alloy layer comprises a copper alloy including: 4.0 to 25.0 mass% of Bi; optionally a total amount of not more than 50.0 mass% of one or more selected from Sn, Al, Zn, Mn, Si, Ni, Fe, P, Zr, Ti and Mg; optionally a total amount of not more than 10 volume % of either or both of MoS 2 and graphite; optionally 1.0 to 10.0 volume % of hard particles composed of a metal boride, silicide, oxide, nitride or carbide, or intermetallic compound; and the balance of copper and inevitable impurities, wherein the copper alloy has a structure in which Bi phases are dispersed in a copper alloy matrix, and wherein a volume ratio of the Bi phases in a region extending 10 μm from a bonding interface between the copper alloy layer and the substrate is not more than 3.0%. wherein the copper alloy layer comprises a copper alloy including: 4.0 to 25.0 mass% of Bi; optionally a total amount of not more than 50.0 mass% of one or more selected from Sn, Al, Zn, Mn, Si, Ni, Fe, P, Zr, Ti and Mg; optionally a total amount of not more than 10 volume % of either or both of MoS 2 and graphite; optionally 1.0 to 10.0 volume % of hard particles composed of a metal boride, silicide, oxide, nitride or carbide, or intermetallic compound; and the balance of copper and inevitable impurities, wherein the copper alloy has a structure in which Bi phases are dispersed in a copper alloy matrix, and wherein a volume ratio of the Bi phases in a region extending 10 μm from a bonding interface between the copper alloy layer and the substrate is not more than 3.0%.
Cooking hob with a cooking hob plate, which has a cooking zone with a measuring point and with a household appliance device having at least one light conductor element, which is at least partially transparent for electromagnetic radiation, and with at least one sensor unit, which has at least one infrared sensor and is provided to detect an intensity of infrared light transmitted by the light conductor element, wherein a casing which is non-transparent at least for infrared light is provided in a region of a visual coupling of the light conductor element and the sensor unit, characterised by at least one filter unit, which is arranged visually between a measuring surface of the measuring point and the light conductor element and is formed by a coating of the cooking hob plate.
An automotive light comprising: a rear body adapted to be fixed to the vehicle; a front half-shell placed to close the mouth of said rear body; and at least a first lighting assembly that is located inside the rear body and is adapted to backlight a corresponding transparent or semitransparent sector of the front half-shell; said automotive light being characterized in that said first lighting assembly comprises: a pair of light-guide bars made of photoconductive material, which extend toward each other inside the rear body, while remaining both substantially grazing the front half-shell, and have their respective proximal ends adjacent and aligned with each other; and a pair of electrically-powered light sources that are located within the rear body, each adjacent to the distal end of a respective light-guide bar, and are oriented so as to direct the light produced into the body of the facing light-guide bar; wherein the proximal ends of said light-guide bars are shaped so as to form respective plate-like heads that are locally substantially coplanar to one another and are arranged inside the rear body one spaced beside the other, so as to form/delimit therebetween a small transversal slot; wherein each plate-like head is arranged with its front face facing the front half-shell and being structured so as to cause the light from said light sources to come out of the same front face; and wherein each plate-like head has, along its front edge, a series of collimator prisms that are shaped so as to deflect the light rays (r) coming from the distal end of the same light-guide bar toward the facing front edge of the other plate-like head, while orienting light rays parallel to a predetermined direction (d 0). said automotive light being characterized in that said first lighting assembly comprises: a pair of light-guide bars made of photoconductive material, which extend toward each other inside the rear body, while remaining both substantially grazing the front half-shell, and have their respective proximal ends adjacent and aligned with each other; and a pair of electrically-powered light sources that are located within the rear body, each adjacent to the distal end of a respective light-guide bar, and are oriented so as to direct the light produced into the body of the facing light-guide bar; wherein the proximal ends of said light-guide bars are shaped so as to form respective plate-like heads that are locally substantially coplanar to one another and are arranged inside the rear body one spaced beside the other, so as to form/delimit therebetween a small transversal slot; wherein each plate-like head is arranged with its front face facing the front half-shell and being structured so as to cause the light from said light sources to come out of the same front face; and wherein each plate-like head has, along its front edge, a series of collimator prisms that are shaped so as to deflect the light rays (r) coming from the distal end of the same light-guide bar toward the facing front edge of the other plate-like head, while orienting light rays parallel to a predetermined direction (d 0).