mhurhangee/patent-ind-claim-en huggingface dataset:
A device for generating oxygen, comprising - at least one reaction chamber housing a composition for generating oxygen, the composition comprising an oxygen source formulation and an ionic liquid formulation , the oxygen source formulation comprising a peroxide compound, and the ionic liquid formulation comprising an ionic liquid having a cation and a metallate anion, - means (5; 6; 17) for maintaining the oxygen source formulation and the ionic liquid formulation physically separated from each other, - means (18, 19; 20, 20'; 22, 23) for establishing physical contact of the oxygen source formulation and the ionic liquid formulation , and - means (15; 16) for allowing oxygen to exit the reaction chamber . - at least one reaction chamber housing a composition for generating oxygen, the composition comprising an oxygen source formulation and an ionic liquid formulation , the oxygen source formulation comprising a peroxide compound, and the ionic liquid formulation comprising an ionic liquid having a cation and a metallate anion, - means (5; 6; 17) for maintaining the oxygen source formulation and the ionic liquid formulation physically separated from each other, - means (18, 19; 20, 20'; 22, 23) for establishing physical contact of the oxygen source formulation and the ionic liquid formulation , and - means (15; 16) for allowing oxygen to exit the reaction chamber .
Pipe structure which has an inner pipe made of a metal, wherein the inner pipe has an inner surface and an outer surface , at least one strand surrounding the outer surface of the inner pipe and has a plurality of yarns, wherein at least one of the yarns has carbon fibres, and a protective pipe surrounding the strand and the inner pipe , characterised in that the at least one strand has a tubular design; and the inner pipe is a high-pressure pipe having an inside diameter (D1), an outside diameter (D2) and a wall thickness (w), wherein the wall thickness (w) is equal to or greater than the inside diameter (D1), and the protective tube consists of a metal. an inner pipe made of a metal, wherein the inner pipe has an inner surface and an outer surface , at least one strand surrounding the outer surface of the inner pipe and has a plurality of yarns, wherein at least one of the yarns has carbon fibres, and a protective pipe surrounding the strand and the inner pipe , characterised in that the at least one strand has a tubular design; and the inner pipe is a high-pressure pipe having an inside diameter (D1), an outside diameter (D2) and a wall thickness (w), wherein the wall thickness (w) is equal to or greater than the inside diameter (D1), and the protective tube consists of a metal.
A cellular mobile device configured to operate in a cellular communication network , comprising: generator to generate an outgoing divergent beam for an optical source that is coincident with an incoming divergent beam for an optical detector ; determinator to determine an adjustment to a mirror to cause an optical alignment of the incoming divergent beam with the optical detector based on at least an optical intensity across the optical detector , wherein the alignment is with respect to another cellular mobile device ; adjustor to adjust a position of the mirror according to the determined adjustment; and change the outgoing divergent beam to an outgoing collimated beam to enable optical communications with the other cellular mobile device via the outgoing collimated beam. generator to generate an outgoing divergent beam for an optical source that is coincident with an incoming divergent beam for an optical detector ; determinator to determine an adjustment to a mirror to cause an optical alignment of the incoming divergent beam with the optical detector based on at least an optical intensity across the optical detector , wherein the alignment is with respect to another cellular mobile device ; adjustor to adjust a position of the mirror according to the determined adjustment; and change the outgoing divergent beam to an outgoing collimated beam to enable optical communications with the other cellular mobile device via the outgoing collimated beam.
A vehicle seat comprising a seat back frame having left and right side frames that have a plate-shaped portion spreading along a vertical plane orthogonal to a rotational axis (SX) around a rotating shaft and extending upward along the vertical plane, and an upper frame (39; 81; 111) that provides a link between the left and right side frames above the rotating shaft , the upper frame (39; 81; 111) being bendingly formed from a plate material and having a front wall (54; 84) that is partitioned by an upper ridge line (52; 82) and a lower ridge line (53; 83) extending in a horizontal direction, an upper wall (55; 85) that spreads rearward continuously from the upper ridge line (52; 82), an upper standing wall (56; 86) that is formed so as to be bent upward from a rear end of the upper wall (55; 85), a lower wall (57; 87) that spreads rearward continuously from the lower ridge line (53; 83), and a lower standing wall (58; 88) that is formed so as to be bent downward from a rear end of the lower wall (57; 87), wherein the side frame has a front wall that is formed so as to be bent inward continuously from a front edge of the plate-shaped portion and forms a curved region extending vertically from around the rotating shaft and reaching the upper frame (39; 81; 111), and a rear wall that is formed so as to be bent inward continuously from a rear edge of the plate-shaped portion and forms a curved region extending vertically from around the rotating shaft and reaching the upper frame (39; 81; 111), and an inner edge of the front wall has a projecting piece that spreads to the inside from a virtual outline corresponding to a shape of the upper frame (39; 81; 111) and is superimposed on the front wall (54; 84) from a rear. the upper frame (39; 81; 111) being bendingly formed from a plate material and having a front wall (54; 84) that is partitioned by an upper ridge line (52; 82) and a lower ridge line (53; 83) extending in a horizontal direction, an upper wall (55; 85) that spreads rearward continuously from the upper ridge line (52; 82), an upper standing wall (56; 86) that is formed so as to be bent upward from a rear end of the upper wall (55; 85), a lower wall (57; 87) that spreads rearward continuously from the lower ridge line (53; 83), and a lower standing wall (58; 88) that is formed so as to be bent downward from a rear end of the lower wall (57; 87), wherein the side frame has a front wall that is formed so as to be bent inward continuously from a front edge of the plate-shaped portion and forms a curved region extending vertically from around the rotating shaft and reaching the upper frame (39; 81; 111), and a rear wall that is formed so as to be bent inward continuously from a rear edge of the plate-shaped portion and forms a curved region extending vertically from around the rotating shaft and reaching the upper frame (39; 81; 111), and an inner edge of the front wall has a projecting piece that spreads to the inside from a virtual outline corresponding to a shape of the upper frame (39; 81; 111) and is superimposed on the front wall (54; 84) from a rear.
A rotary x-ray anode with integrated liquid metal bearing outer shell, comprising an anode disk (5; 5'; 5′′′) made of Mo or an Mo-based alloy and having a hole formed in the center in the region of the axis of rotation and extending in axial direction at least through a portion of the anode disk (5; 5'; 5′′′) and a bushing made of Mo or of an Mo-based alloy, wherein the inner wall of the bushing is formed circumferentially as a liquid metal bearing running surface at least over an axial section thereof and forms a first subsection of the liquid metal bearing outer shell, and wherein the liquid metal bearing outer shell is formed by the first and an adjoining second subsection and has a continuous liquid metal bearing running surface, characterized in that the anode disk (5; 5'; 5′′′), toward the side of the bushing , has a connection port (16; 16`), the inner wall of which extends the hole in the anode disk (5; 5'; 5′′′), and which protrudes with respect to the peripheral face on the outside of the anode disk (5; 5'; 5′′′), in that at least an axial section of the inner wall of the connection port (16; 16`) is formed circumferentially as a liquid metal bearing running surface and forms a portion of the second subsection of the liquid metal bearing outer shell, and in that a material bonding connection is formed between the protruding connection port (16; 16`) of the anode disk (5; 5'; 5′′′) and the bushing , wherein the material bonding connection is a bond established via a friction welding bond or a beam welding bond. an anode disk (5; 5'; 5′′′) made of Mo or an Mo-based alloy and having a hole formed in the center in the region of the axis of rotation and extending in axial direction at least through a portion of the anode disk (5; 5'; 5′′′) and a bushing made of Mo or of an Mo-based alloy, wherein the inner wall of the bushing is formed circumferentially as a liquid metal bearing running surface at least over an axial section thereof and forms a first subsection of the liquid metal bearing outer shell, and wherein the liquid metal bearing outer shell is formed by the first and an adjoining second subsection and has a continuous liquid metal bearing running surface, characterized in that the anode disk (5; 5'; 5′′′), toward the side of the bushing , has a connection port (16; 16`), the inner wall of which extends the hole in the anode disk (5; 5'; 5′′′), and which protrudes with respect to the peripheral face on the outside of the anode disk (5; 5'; 5′′′), in that at least an axial section of the inner wall of the connection port (16; 16`) is formed circumferentially as a liquid metal bearing running surface and forms a portion of the second subsection of the liquid metal bearing outer shell, and in that a material bonding connection is formed between the protruding connection port (16; 16`) of the anode disk (5; 5'; 5′′′) and the bushing , wherein the material bonding connection is a bond established via a friction welding bond or a beam welding bond.
An ultrasonic oscillating unit (S, A, K) comprising a cylindrical base body having a center axis (M) and a jacket surface into which a plurality of slits (14 - 19) are introduced which extend obliquely to the center axis in a side view of the jacket surface, wherein the slits (14 - 19) extend so far in the radial direction of the base body that they are in communication with one another and the slits (14 - 19) extend in a curved manner in the side view of the jacket surface , characterized in that the curvature is not constant and the curvature at the center of a slit (14 - 19) is larger than at the ends of the slit.
A method for estimating a time-variable physical quantity P(T) by means of a distributed measurement system having a centralized platform and a set composed of a plurality of distributed measurement equipment items (2 i ) each able to communicate remotely with said centralized platform via a communication network , the method comprising a step of measuring, by means of each measurement equipment item (2 i ) of said set, a local datum representative of said physical quantity P(T), a step of collecting, over a predetermined sampling period T, measurement samples originating from a subset of said set in which each measurement equipment item belonging to said subset transmits, to said centralized platform , a measurement sample P i of the local datum via said communication network , and a step of estimating said physical quantity P(T) over the sampling period from an aggregate of the collected measurement samples P i , the method being characterized in that it includes, in each sampling period T, a phase of executing, at each measurement equipment item (2 i ) of said set, a local decision algorithm (22 i ) able to decide, randomly and based on a sending probability π i associated with each measurement equipment item (2 i ), whether the corresponding measurement equipment item is part of said subset by generating a random number and by comparing this random number to said sending probability, and in that said physical quantity P(T) is estimated in each sampling period T from the collected measurement samples P i and the sending probability π i associated with each measurement device belonging to said subset by calculation according to the following relationship P T = ∑ i = 1 N ′ P i T π i T in which N' is the number of measurement equipment items of the subset.
System for the treatment of blood, in particular for the safe removal of CO2 and Bicarbonates from the blood, in a blood circuit connectable to a patient by means of a venous-venous connection having at least an inlet or tube line for receiving a flow of blood for CO2 or bicarbonate removal and an outlet or tube line for the blood deprived of CO2 or bicarbonate, and a hemofilter or dialyzer , disposed between said inlet and said outlet , and provided with means for separating the plasmatic water from the blood and for conveying the same plasmatic water through a second tube line ; characterized in that it comprises a device for removing bicarbonates and/or CO2, disposed and acting on said second tube line , in a position which is downstream of said hemofilter and upstream of a third tube line which brings back the treated plasmatic water in the blood circuit downstream of said hemofilter .
An optical power equilibrium method, wherein the method is applied to an optical cross device that is based on a liquid crystal on silicon, LCOS , wherein a wavelength division multiplexing, WDM, signal including a plurality of signals for different wavelengths, namely a plurality of wavelength signals, emitted from an input port, passes through an optical cross component , wherein the wavelength signals in the WDM signal are incident to different locations in the LCOS, and wherein the method comprises: a) configuring the LCOS as a blazed grating pattern whose phase periodically changes, wherein each period comprises three grating segments, each grating segment including pixels, and a pixel quantity in each period is the same, wherein a second grating segment is located between a first grating segment and a third grating segment, and the second grating segment has only one phase variation rate at a same moment, the phase variation rate being a slope of the phase modulation depth over the pixel quantity and at the same moment indicating a constant slope, and does not have a phase variation rate the same as both phase variation rates of the first grating segment and the third grating segment; b) monitoring power of the wavelength signals in the WDM signal, wherein the WDM signal comprises a first wavelength signal; and c) reducing a phase modulation depth and a pixel quantity of the second grating segment in each period at a first location if power of the first wavelength signal is greater than a preset target power, so that the power of the first wavelength signal is the same as the target power, wherein the first location is a location at which the first wavelength signal is incident to the LCOS. a) configuring the LCOS as a blazed grating pattern whose phase periodically changes, wherein each period comprises three grating segments, each grating segment including pixels, and a pixel quantity in each period is the same, wherein a second grating segment is located between a first grating segment and a third grating segment, and the second grating segment has only one phase variation rate at a same moment, the phase variation rate being a slope of the phase modulation depth over the pixel quantity and at the same moment indicating a constant slope, and does not have a phase variation rate the same as both phase variation rates of the first grating segment and the third grating segment; b) monitoring power of the wavelength signals in the WDM signal, wherein the WDM signal comprises a first wavelength signal; and c) reducing a phase modulation depth and a pixel quantity of the second grating segment in each period at a first location if power of the first wavelength signal is greater than a preset target power, so that the power of the first wavelength signal is the same as the target power, wherein the first location is a location at which the first wavelength signal is incident to the LCOS.
A method for carving an outer surface of a vehicle wheel, comprising: a step of priming: applying a primer on an outer surface of the wheel to form a painted surface ; a step of carving: carving a selected area of the primer from the wheel by laser to remove the painted surface from the selected area, the selected area having an exposed area with metallic luster, and characterized by a step of fine-polish: polishing the outer surface of the wheel to form a fine-polished area at the exposed area. a step of priming: applying a primer on an outer surface of the wheel to form a painted surface ; a step of carving: carving a selected area of the primer from the wheel by laser to remove the painted surface from the selected area, the selected area having an exposed area with metallic luster, and characterized by a step of fine-polish: polishing the outer surface of the wheel to form a fine-polished area at the exposed area.
A supersonic compressor rotor comprising: a substantially cylindrical disk body comprising an upstream surface , a downstream surface , and a radially outer surface that extends generally axially between said upstream surface and said downstream surface , said disk body defining a centerline axis ; a plurality of vanes coupled to said radially outer surface , adjacent said vanes forming a pair and oriented such that a flow channel is defined between each said pair of adjacent vanes, said flow channel extending generally axially between an inlet opening and an outlet opening ; and at least one supersonic compression ramp positioned within said flow channel, characterized by said supersonic compression ramp being selectively positionable at a first position , at a second position , and at any position therebetween. a substantially cylindrical disk body comprising an upstream surface , a downstream surface , and a radially outer surface that extends generally axially between said upstream surface and said downstream surface , said disk body defining a centerline axis ; a plurality of vanes coupled to said radially outer surface , adjacent said vanes forming a pair and oriented such that a flow channel is defined between each said pair of adjacent vanes, said flow channel extending generally axially between an inlet opening and an outlet opening ; and at least one supersonic compression ramp positioned within said flow channel, characterized by said supersonic compression ramp being selectively positionable at a first position , at a second position , and at any position therebetween.
A method of digital printing of a polyester textile, which method comprises pre-treating, at least a part of, a surface of a polyester textile so as to increase hydrophobicity wherein the pre-treating comprises an atmospheric pressure plasma process using one or more of a silicon-containing or fluorine-containing monomer; inkjet printing a water-based disperse dye ink composition having a surface tension as determined using the Ring method of Du Noüy between 35 dynes/cm (35 mN/m) and 50 dynes/cm (50 mN/m) on the treated surface of the polyester textile; and heating the printed polyester textile wherein the heating comprises dry heating, so as to fix the printed image on the treated surface of the polyester textile.
Layer construction containing at least one layer (i) comprising a thermoplastic and at least one further layer (ii) comprising a thermoplastic, characterized in that the Vicat softening temperature B/50 determined according to ISO 306 (50N; 50°/h) of the layer (i) is ≥ 3°C to ≤ 45°C, preferably ≥ 10 to ≤ 40°C, particularly preferably ≥ 15 to ≤ 30°C, higher or lower than the softening temperature of the layer (ii), and in that at least one embossed hologram is applied to the layer (i) or (ii) such that the nanostructure of the at least one embossed hologram points in the direction of the layer having the lower softening temperature.
A lab-on-chip detection device for detecting a marker in a liquid, preferably a fuel, comprising: a reaction chamber suitable for holding the liquid under consideration, the reaction chamber being provided with a polymer formulation with variable conductivity building a path between two conductive pads connected to a resistivity measurement device, wherein the conductive polymer formulation is able to react with a marker to thereby change its resistivity; a heater element arranged to heat and to evaporate the marker dissolved in the liquid; a housing for enclosing the reaction chamber, wherein said housing comprises a heat conducting part on a side opposing said conductive pads, wherein a volume is arranged between said heat conducting part and said conductive pads; and a housing cover comprising a printed circuit board, wherein said conducting pads are arranged on said printed circuit board facing the reaction chamber. a reaction chamber suitable for holding the liquid under consideration, the reaction chamber being provided with a polymer formulation with variable conductivity building a path between two conductive pads connected to a resistivity measurement device, wherein the conductive polymer formulation is able to react with a marker to thereby change its resistivity; a heater element arranged to heat and to evaporate the marker dissolved in the liquid; a housing for enclosing the reaction chamber, wherein said housing comprises a heat conducting part on a side opposing said conductive pads, wherein a volume is arranged between said heat conducting part and said conductive pads; and a housing cover comprising a printed circuit board, wherein said conducting pads are arranged on said printed circuit board facing the reaction chamber.
A method for characterising a wireless communications link between a transmitter and a receiver , comprising: obtaining first data contained in a signal transmitted from the transmitter to the receiver, the first data including a position of the transmitter (T); obtaining second data including a position of a receiver (R); obtaining a determination of transmitted power (P T ) at an output of the transmitter; obtaining a determination of received power (P R ) at an input to the receiver, generating at least one non line-of-sight metric (λ 1 ,..., λ n ) to characterise the wireless link between the transmitter and the receiver based on the position of the receiver, the position of the transmitter, the transmitted power and the received power; and outputting the non line-of-sight metric to characterise the wireless communications link; wherein at least one of the transmitter and the receiver is mobile. obtaining first data contained in a signal transmitted from the transmitter to the receiver, the first data including a position of the transmitter (T); obtaining second data including a position of a receiver (R); obtaining a determination of transmitted power (P T ) at an output of the transmitter; obtaining a determination of received power (P R ) at an input to the receiver, generating at least one non line-of-sight metric (λ 1 ,..., λ n ) to characterise the wireless link between the transmitter and the receiver based on the position of the receiver, the position of the transmitter, the transmitted power and the received power; and outputting the non line-of-sight metric to characterise the wireless communications link; wherein at least one of the transmitter and the receiver is mobile.