mhurhangee/patent-ind-claim-en huggingface dataset:
A compact respiratory therapy device suitable for use by a patient during sleep to provide respiratory pressure therapy at a pressure between 4-30 cmH 2 O, the device comprising: a housing ; an inlet ; an outlet ; a motor including a rotor ; and an impeller configured to be rotated by the rotor to deliver a flow of air from the inlet toward the outlet, the impeller comprising: a set of impeller blades , each impeller blade comprising a leading edge and a trailing edge ; and a first shroud and a second shroud , each shroud at least partly defining a flow passage through the impeller, the first shroud comprising a wall defining a periphery of an impeller inlet ; wherein the compact respiratory therapy device is configured to deliver the flow of air from the outlet for delivery to the patient at a pressure between 4-30 cmH 2 O at an overall sound power level of less than 50 dB(A) thereby reducing any disturbance to a quality of sleep for the patient, and wherein: a diameter of the impeller is less than 50 mm; the first shroud and the second shroud are configured such that the flow passage is narrower in an axial direction at an outer portion of the impeller than at an inner portion of the impeller; and a diameter of the impeller inlet is at least 50 % of the diameter of the impeller. a housing ; an inlet ; an outlet ; a motor including a rotor ; and an impeller configured to be rotated by the rotor to deliver a flow of air from the inlet toward the outlet, the impeller comprising: a set of impeller blades , each impeller blade comprising a leading edge and a trailing edge ; and a first shroud and a second shroud , each shroud at least partly defining a flow passage through the impeller, the first shroud comprising a wall defining a periphery of an impeller inlet ; a set of impeller blades , each impeller blade comprising a leading edge and a trailing edge ; and a first shroud and a second shroud , each shroud at least partly defining a flow passage through the impeller, the first shroud comprising a wall defining a periphery of an impeller inlet ; wherein the compact respiratory therapy device is configured to deliver the flow of air from the outlet for delivery to the patient at a pressure between 4-30 cmH 2 O at an overall sound power level of less than 50 dB(A) thereby reducing any disturbance to a quality of sleep for the patient, and wherein: a diameter of the impeller is less than 50 mm; the first shroud and the second shroud are configured such that the flow passage is narrower in an axial direction at an outer portion of the impeller than at an inner portion of the impeller; and a diameter of the impeller inlet is at least 50 % of the diameter of the impeller. a diameter of the impeller is less than 50 mm; the first shroud and the second shroud are configured such that the flow passage is narrower in an axial direction at an outer portion of the impeller than at an inner portion of the impeller; and a diameter of the impeller inlet is at least 50 % of the diameter of the impeller.
A computer-implemented method of estimating a trend in a blood pressure surrogate, the method comprising: obtaining a set of blood pressure surrogate measurement values of a blood pressure surrogate for a subject; characterized in that the method further comprises: obtaining , for each blood pressure surrogate measurement value, an error value indicating a measurement error for the blood pressure surrogate measurement value; and analysing the set of blood pressure surrogate measurement values and the respective error values using Bayesian inference to determine a trend in the blood pressure surrogate over time. obtaining , for each blood pressure surrogate measurement value, an error value indicating a measurement error for the blood pressure surrogate measurement value; and analysing the set of blood pressure surrogate measurement values and the respective error values using Bayesian inference to determine a trend in the blood pressure surrogate over time.
A method for forming a conductive pattern by electromagnetic irradiation, comprising the steps of: molding a composition for forming a conductive pattern to a resin product or applying it to another product so as to form a resin layer; irradiating an electromagnetic wave to a predetermined region of the resin product or the resin layer so as to generate metal cores containing the first or second metal or the ion thereof from the non-conductive metal compound; and chemically reducing or plating the region generating the metal cores so as to form a conductive metal layer, wherein the composition comprises 1 to 10% by weight of a non-conductive metal compound containing a first metal and a second metal with respect to the total composition and a polymer resin included in the remaining amount, wherein the non-conductive metal compound has a three-dimensional structure containing a plurality of first layers that contains at least one metal of the first and second metals and has edge-shared octahedrons two-dimensionally connected to each other, and a second layer that contains a metal different from that of the first layer and is arranged between the neighboring first layers; wherein the non-conductive metal compound includes CuCr02, wherein in the step of generating the metal cores, a laser electromagnetic wave having a wavelength of 1000 nm to 1200 nm is irradiated at an average power of 7 to 15 W, wherein the polymer resin is a polycarbonate resin. molding a composition for forming a conductive pattern to a resin product or applying it to another product so as to form a resin layer; irradiating an electromagnetic wave to a predetermined region of the resin product or the resin layer so as to generate metal cores containing the first or second metal or the ion thereof from the non-conductive metal compound; and chemically reducing or plating the region generating the metal cores so as to form a conductive metal layer, wherein the composition comprises 1 to 10% by weight of a non-conductive metal compound containing a first metal and a second metal with respect to the total composition and a polymer resin included in the remaining amount, wherein the non-conductive metal compound has a three-dimensional structure containing a plurality of first layers that contains at least one metal of the first and second metals and has edge-shared octahedrons two-dimensionally connected to each other, and a second layer that contains a metal different from that of the first layer and is arranged between the neighboring first layers; wherein the non-conductive metal compound includes CuCr02, wherein in the step of generating the metal cores, a laser electromagnetic wave having a wavelength of 1000 nm to 1200 nm is irradiated at an average power of 7 to 15 W, wherein the polymer resin is a polycarbonate resin.
An oxidative hair coloring composition comprising: (i) an oxidizing phase comprising an oxidizing agent; (ii) an alkaline phase comprising an alkaline agent, a dye precursor and a coupling compound; and (iii) core-shell microcapsules having a polymeric shell, and a core comprising a perfume oil, said microcapsules having a mean size equal or greater than 25 microns. (i) an oxidizing phase comprising an oxidizing agent; (ii) an alkaline phase comprising an alkaline agent, a dye precursor and a coupling compound; and (iii) core-shell microcapsules having a polymeric shell, and a core comprising a perfume oil, said microcapsules having a mean size equal or greater than 25 microns.
A duplex transceiver, comprising: a first transmitter ; a second transmitter ; and a first receiver ; wherein: the first transmitter is arranged to receive an input signal, to process the input signal to generate a first transmit signal, and to transmit the first transmit signal, and the second transmitter is arranged to receive the input signal, to process the input signal to generate a second transmit signal, and to couple the second transmit signal into an input path of the first receiver , characterized by further comprising a noise contribution signal path comprising means for estimating a noise contribution from the first and second transmitters and for subtracting the noise contribution from an output of the first receiver . a first transmitter ; a second transmitter ; and a first receiver ; wherein: the first transmitter is arranged to receive an input signal, to process the input signal to generate a first transmit signal, and to transmit the first transmit signal, and the second transmitter is arranged to receive the input signal, to process the input signal to generate a second transmit signal, and to couple the second transmit signal into an input path of the first receiver , characterized by further comprising a noise contribution signal path comprising means for estimating a noise contribution from the first and second transmitters and for subtracting the noise contribution from an output of the first receiver . the first transmitter is arranged to receive an input signal, to process the input signal to generate a first transmit signal, and to transmit the first transmit signal, and the second transmitter is arranged to receive the input signal, to process the input signal to generate a second transmit signal, and to couple the second transmit signal into an input path of the first receiver , characterized by further comprising a noise contribution signal path comprising means for estimating a noise contribution from the first and second transmitters and for subtracting the noise contribution from an output of the first receiver .
Method for assisting a colorist in color grading a virtual reality video content, called VR content, said method being executed by a head-mounted display worn by a colorist color grading said VR content and comprising: - receiving the VR content being graded by an external color grading station, used by said colorist to color grade said VR content, comprising grading control elements for controlling the grading of said VR content, - receiving position information representative of the position of at least one hand of the colorist versus said color grading station, said position information comprising the position of the hand of the colorist above the color grading station and the position of the grading control elements of the color grading station, - generating , based on said received position information, visual control information showing the position of said at least one hand of the colorist and at least one grading control element of the color grading station close to said hand , - displaying said visual control information together with the graded VR content in order to help the colorist manipulating said at least one grading control element. - receiving the VR content being graded by an external color grading station, used by said colorist to color grade said VR content, comprising grading control elements for controlling the grading of said VR content, - receiving position information representative of the position of at least one hand of the colorist versus said color grading station, said position information comprising the position of the hand of the colorist above the color grading station and the position of the grading control elements of the color grading station, - generating , based on said received position information, visual control information showing the position of said at least one hand of the colorist and at least one grading control element of the color grading station close to said hand , - displaying said visual control information together with the graded VR content in order to help the colorist manipulating said at least one grading control element.
An anti-TAR-DNA-binding protein 43 kDa (TDP-43) antibody, or a TDP-43 binding fragment thereof, comprising a heavy chain variable domain (VH) and a light chain variable domain (VL), wherein: (i) the VH comprises the amino acid sequence set forth in SEQ ID NO:130, and the VL comprises the amino acid sequence set for in SEQ ID NO:134; or (ii) the VH comprises the amino acid sequence set forth in SEQ ID NO:259, and the VL comprises the amino acid sequence set forth in SEQ ID NO:263. (i) the VH comprises the amino acid sequence set forth in SEQ ID NO:130, and the VL comprises the amino acid sequence set for in SEQ ID NO:134; or (ii) the VH comprises the amino acid sequence set forth in SEQ ID NO:259, and the VL comprises the amino acid sequence set forth in SEQ ID NO:263.
An endoscope comprising: an elongated member including an inner wall defining an inflow channel and configured to accept an instrument inserted therethrough; and a valve assembly in fluid communication with the inflow channel and including a valve housing and a valve body , characterized by the valve housing including a valve inlet coupled to a fluid inlet line and a valve outlet coupled to a proximal end of the elongated member , and the valve body being within the valve housing between the valve inlet and the valve outlet and being rotatable to selectively define a first fluid path and a second fluid path through the endoscope , wherein an impedance of fluid flow through the endoscope without the instrument inserted therethrough and with the valve body defining the first fluid path is substantially equal to an impedance of fluid flow through the endoscope with the instrument inserted therethrough and with the valve body defining the second fluid path. an elongated member including an inner wall defining an inflow channel and configured to accept an instrument inserted therethrough; and a valve assembly in fluid communication with the inflow channel and including a valve housing and a valve body , characterized by the valve housing including a valve inlet coupled to a fluid inlet line and a valve outlet coupled to a proximal end of the elongated member , and the valve body being within the valve housing between the valve inlet and the valve outlet and being rotatable to selectively define a first fluid path and a second fluid path through the endoscope , wherein an impedance of fluid flow through the endoscope without the instrument inserted therethrough and with the valve body defining the first fluid path is substantially equal to an impedance of fluid flow through the endoscope with the instrument inserted therethrough and with the valve body defining the second fluid path.
Reactor, comprising a housing , a cathode , an anode , wherein the cathode and the anode delimit a channel , wherein the cathode is movable in the housing in relation to the anode , and wherein the anode is configured as a sacrificial anode and a distance (S) between the surfaces of anode and cathode delimiting the channel is constant irrespective of the consumption of the anode , and wherein the surfaces of anode and cathode delimiting the channel are plane, characterized in that the anode and the cathode are rectangular and the reactor comprises a feed and a discharge between which a liquid to be treated flows through the channel having a rectangular cross-section, and that between the surfaces of anode and cathode delimiting the channel an electrically nonconductive spacer is arranged and/or that the distance (S) is maintained constant by means of gravitation, one or more springs and/or one or more actuators.
A ScAlMgO 4 single crystal, comprising Sc, Al, Mg, and O as constituent atoms, wherein an atomic percentage ratio of Mg to Al in the constituent atoms, Mg/Al (atom%/atom%), as measured by an inductively coupled plasma emission spectrometric method, is more than 1 and less than 1.1.
An electricity meter, comprising: a housing ; a transparent outer cover removably coupled to the housing , the outer cover enclosing a front surface of the housing ; a plurality of antennas, each of the plurality of antennas comprising a contacting portion , the contacting portion formed on an interior surface of the housing ; a printed circuit board (PCB) disposed within the housing , the PCB comprising a plurality of communications circuits, each of the plurality of communications circuits operable to communicate using different communications technologies; and a plurality of contacts disposed on the PCB , each of the plurality of contacts configured to provide a solderless electrical connection between contacting portions of one or more of the plurality of antennas and one of the plurality of communications circuits when the PCB is installed in the housing . a housing ; a transparent outer cover removably coupled to the housing , the outer cover enclosing a front surface of the housing ; a plurality of antennas, each of the plurality of antennas comprising a contacting portion , the contacting portion formed on an interior surface of the housing ; a printed circuit board (PCB) disposed within the housing , the PCB comprising a plurality of communications circuits, each of the plurality of communications circuits operable to communicate using different communications technologies; and a plurality of contacts disposed on the PCB , each of the plurality of contacts configured to provide a solderless electrical connection between contacting portions of one or more of the plurality of antennas and one of the plurality of communications circuits when the PCB is installed in the housing .
A supply system for supplying a rocket engine with at least one propellant, the supply system comprising at least one supply circuit able to circulate the propellant, and at least one reservoir in fluid communication with the supply circuit via at least one communication pipe , so that a fluid contained in the reservoir can flow from the latter up to the supply circuit , and vice versa, via said at least one communication pipe , the reservoir being able to contain a volume of gas (G), the supply system being characterized in that it comprises heating means able to vary the volume of gas in the reservoir , the heating means being configured to vaporize the propellant in the reservoir .
A method for preparing a super absorbent polymer comprising the steps of: carrying out a crosslinking polymerization of a water-soluble ethylenically unsaturated monomer having at least partially neutralized acidic groups in the presence of an internal crosslinking agent to form a hydrogel polymer including a cross-linked polymer; drying, pulverizing, and classifying the hydrogel polymer to form a base polymer powder; and surface-crosslinking the base polymer powder by using a surface crosslinking liquid containing a surface crosslinking agent of an alkylene carbonate having 2 to 5 carbon atoms, in the presence of hydrophobic silica particles having a water-contact angle of more than 50° and 150° or less, and a dispersant, wherein the surface crosslinking liquid further contains hydrophilic silica particles having a water-contact angle of 10° or less, and wherein the water-contact angle is determined as set forth in the examples of the description in detail carrying out a crosslinking polymerization of a water-soluble ethylenically unsaturated monomer having at least partially neutralized acidic groups in the presence of an internal crosslinking agent to form a hydrogel polymer including a cross-linked polymer; drying, pulverizing, and classifying the hydrogel polymer to form a base polymer powder; and surface-crosslinking the base polymer powder by using a surface crosslinking liquid containing a surface crosslinking agent of an alkylene carbonate having 2 to 5 carbon atoms, in the presence of hydrophobic silica particles having a water-contact angle of more than 50° and 150° or less, and a dispersant, wherein the surface crosslinking liquid further contains hydrophilic silica particles having a water-contact angle of 10° or less, and wherein the water-contact angle is determined as set forth in the examples of the description in detail
An evaporator assembly fluidically connectable to a refrigerant fluid circulation circuit and to a cooling circuit of an operating unit, preferably a battery pack, in which a cooling liquid included in a vehicle flows, wherein the evaporator assembly is suitable for performing heat exchange operations between the refrigerant fluid and the cooling liquid, wherein the evaporator assembly is suitable for managing the physical properties, in particular the temperature, of the refrigerant fluid, wherein the evaporator assembly comprises a main axis (X-X), and a longitudinal axis (Y-Y) and a transverse axis (Z-Z) orthogonal to the main axis (X-X), and comprises: i) a heat exchanger , in which the refrigerant fluid and the cooling liquid are suitable for flowing; ii) a lamination member connectable to a conduit of the refrigerant fluid circulation circuit to receive the refrigerant fluid in the liquid state; wherein the evaporator assembly is characterized by the fact that it also comprises: iii) a base body , having a substantially planar extension along the longitudinal axis (Y-Y) and the transverse axis (Z-Z) comprising, along the main axis (X-X), a first fluid region and a second fluid region (40"), wherein the heat exchanger and the lamination member are fluidly connected to the base body , wherein the base body comprises: - a body inlet mouth fluidly connecting the lamination member and the first fluid region ; - an exchanger inlet mouth fluidly connecting the first fluid region and the heat exchanger ; - an exchanger outlet mouth fluidly connecting the heat exchanger and the second fluid region (40"); - a body outlet mouth fluidly connected to the second fluid region (40") and connectable to a conduit of the refrigerant fluid circulation circuit. i) a heat exchanger , in which the refrigerant fluid and the cooling liquid are suitable for flowing; ii) a lamination member connectable to a conduit of the refrigerant fluid circulation circuit to receive the refrigerant fluid in the liquid state; - a body inlet mouth fluidly connecting the lamination member and the first fluid region ; - an exchanger inlet mouth fluidly connecting the first fluid region and the heat exchanger ; - an exchanger outlet mouth fluidly connecting the heat exchanger and the second fluid region (40"); - a body outlet mouth fluidly connected to the second fluid region (40") and connectable to a conduit of the refrigerant fluid circulation circuit.