mhurhangee/patent-ind-claim-en huggingface dataset:
A valve assembly comprising: a housing comprising: a base extending circumferentially about a longitudinal axis; a first wall coupled with the base and extending to a distal end of the housing , the first wall extending circumferentially about the longitudinal axis, the first wall comprising a plurality of first apertures extending therethrough; and a second wall coupled with the base and extending to the distal end of the housing , the second wall extending circumferentially about the longitudinal axis and at least partially surrounding the first wall, the second wall comprising a plurality of second apertures extending therethrough, wherein the housing defines a continuous structure, characterized in that the plurality of first apertures defines a first lattice in the first wall and in that the plurality of second apertures defines a second lattice in the second wall between ribs of the second wall. a housing comprising: a base extending circumferentially about a longitudinal axis; a first wall coupled with the base and extending to a distal end of the housing , the first wall extending circumferentially about the longitudinal axis, the first wall comprising a plurality of first apertures extending therethrough; and a second wall coupled with the base and extending to the distal end of the housing , the second wall extending circumferentially about the longitudinal axis and at least partially surrounding the first wall, the second wall comprising a plurality of second apertures extending therethrough, a base extending circumferentially about a longitudinal axis; a first wall coupled with the base and extending to a distal end of the housing , the first wall extending circumferentially about the longitudinal axis, the first wall comprising a plurality of first apertures extending therethrough; and a second wall coupled with the base and extending to the distal end of the housing , the second wall extending circumferentially about the longitudinal axis and at least partially surrounding the first wall, the second wall comprising a plurality of second apertures extending therethrough, wherein the housing defines a continuous structure, characterized in that the plurality of first apertures defines a first lattice in the first wall and in that the plurality of second apertures defines a second lattice in the second wall between ribs of the second wall.
A solid electrolytic capacitor comprising: a cathode comprising a cathode substrate composed of a valve metal and having an etching pit , an oxide layer composed of an oxide of the valve metal on a surface of the cathode substrate , and a carbon coating layer on a surface of the oxide layer having carbon particles, an anode comprising an anode substrate composed of a valve metal and a dielectric layer composed of an oxide of the valve metal that composes the anode substrate and provided on the surface of the anode substrate, and a solid electrolyte layer having a conductive polymer that is provided between the carbon coating layer of the cathode and the dielectric layer of the anode, characterized in that the carbon coating layer has an entry area entering the etching pit and a penetration area penetrating through the oxide layer and conducting with the cathode substrate . a cathode comprising a cathode substrate composed of a valve metal and having an etching pit , an oxide layer composed of an oxide of the valve metal on a surface of the cathode substrate , and a carbon coating layer on a surface of the oxide layer having carbon particles, an anode comprising an anode substrate composed of a valve metal and a dielectric layer composed of an oxide of the valve metal that composes the anode substrate and provided on the surface of the anode substrate, and a solid electrolyte layer having a conductive polymer that is provided between the carbon coating layer of the cathode and the dielectric layer of the anode, characterized in that the carbon coating layer has an entry area entering the etching pit and a penetration area penetrating through the oxide layer and conducting with the cathode substrate .
Oil in water (o/w) nanoemulsion, comprising: a. An aqueous phase; b. An oily nucleus comprising α-tocopherol (vitamin E); and c. Sphingomyelin. a. An aqueous phase; b. An oily nucleus comprising α-tocopherol (vitamin E); and c. Sphingomyelin.
Oil sump, comprising a bottom wall and a lateral outer wall , which in the assembled condition of the oil sump extends upwards from the bottom wall , as seen in the direction of gravity , and an oil storage region , which is arranged in an interior of the oil sump and, when the oil sump is in operation, is filled with oil up to a storage level , wherein the oil sump comprises an oil cooling region , which is adjacent to the lateral outer wall and is filled with oil up to a cool level , and a decoupling device for decoupling the cool level of the oil in the oil cooling region from the storage level of the oil in the oil storage region in a cool condition of the oil sump , characterized in that the decoupling device comprises a separating wall that is arranged between the oil cooling region and the oil storage region , said separating wall extending upwards from the bottom wall of the oil sump , as seen in the direction of gravity. wherein the oil sump comprises an oil cooling region , which is adjacent to the lateral outer wall and is filled with oil up to a cool level , and a decoupling device for decoupling the cool level of the oil in the oil cooling region from the storage level of the oil in the oil storage region in a cool condition of the oil sump , characterized in that the decoupling device comprises a separating wall that is arranged between the oil cooling region and the oil storage region , said separating wall extending upwards from the bottom wall of the oil sump , as seen in the direction of gravity.
A fluid treatment device comprising a housing unit, wherein the housing unit comprises: (a) a first opening and a second opening; (b) a fluid flow path between the first opening and the second opening; and (c) a wrapped fluid treatment element comprising composite material and an interleaf forming layers wrapped around an inner core, wherein the composite material comprises a support member comprising a plurality of pores extending through the support member; and a non-self-supporting macroporous cross-linked gel comprising macropores having an average diameter of 10 nm to 3000 nm, said macroporous cross-linked gel being located in the pores of the support member, said macropores of said macroporous cross-linked gel are smaller than said pores of said support member; the inner core is operably connected to the first opening; the first opening is an inlet; and the wrapped fluid treatment element is oriented across the fluid flow path such that any fluid entering the first opening must flow through about 3 to about 50 layers of the composite material and the interleaf before exiting the second opening. (a) a first opening and a second opening; (b) a fluid flow path between the first opening and the second opening; and (c) a wrapped fluid treatment element comprising composite material and an interleaf forming layers wrapped around an inner core, the composite material comprises a support member comprising a plurality of pores extending through the support member; and a non-self-supporting macroporous cross-linked gel comprising macropores having an average diameter of 10 nm to 3000 nm, said macroporous cross-linked gel being located in the pores of the support member, a support member comprising a plurality of pores extending through the support member; and a non-self-supporting macroporous cross-linked gel comprising macropores having an average diameter of 10 nm to 3000 nm, said macroporous cross-linked gel being located in the pores of the support member, said macropores of said macroporous cross-linked gel are smaller than said pores of said support member; the inner core is operably connected to the first opening; the first opening is an inlet; and the wrapped fluid treatment element is oriented across the fluid flow path such that any fluid entering the first opening must flow through about 3 to about 50 layers of the composite material and the interleaf before exiting the second opening.
A method for conditioning air of a test space of a test chamber , in particular a climate chamber or the like, test material being disposed in the temperature-insulated test space which is sealable against an environment, a temperature of the air in the test space being controlled by means of a temperature control device of the test chamber and the air being humidified by means of a humidifier of the test chamber, the temperature of the air in the test space being measured using a temperature sensor of a test-chamber control circuit of a control device of the test chamber, the temperature being controlled by the test-chamber control circuit by means of the temperature control device, a humidity of the air in the test space being measured using a humidity sensor of a humidifier control circuit of the control device, the humidity being controlled by the humidifier control circuit by means of the humidifier, characterized in that an absolute air humidity in the test space is measured using the humidity sensor, the humidity being controlled by the humidifier control circuit with the absolute air humidity acting as the control size, and in that the control device is realized as a cascade control having the test-chamber control circuit as a master controller and having the humidifier control circuit as a follow-up controller.
A press-fit electrical connector for press-fitting with a metal housing , comprising a hollow cylindrical, at least partially metallic press-fit sleeve , wherein the press-fit sleeve has at its first end along its longitudinal axis (L) a press-fit portion for pressing into the metal housing , at its second end opposite along the longitudinal axis (L) a connecting portion for connection to a mating plug element of the press-fit electrical connector, and a contact flange between the press-fit portion and the connecting portion , characterized in that the press-fit portion is formed from an inner portion with an annular cross section and a metallic outer portion which surrounds the inner portion in an annular cross section and adjoins the inner portion in the radial direction (R) for press-fitting into the metal housing and at least one recess is provided in the inner portion which extends in the radial direction (R) into the inner portion and runs along the longitudinal axis (L). wherein the press-fit sleeve has at its first end along its longitudinal axis (L) a press-fit portion for pressing into the metal housing , at its second end opposite along the longitudinal axis (L) a connecting portion for connection to a mating plug element of the press-fit electrical connector, and a contact flange between the press-fit portion and the connecting portion , characterized in that the press-fit portion is formed from an inner portion with an annular cross section and a metallic outer portion which surrounds the inner portion in an annular cross section and adjoins the inner portion in the radial direction (R) for press-fitting into the metal housing and at least one recess is provided in the inner portion which extends in the radial direction (R) into the inner portion and runs along the longitudinal axis (L).
A lung volume reduction system, comprising an implantable device adapted to be delivered to a lung airway of a patient in a delivery configuration that is resiliently bendable into a plurality of shapes and to change to a deployed configuration to bend the lung airway , wherein the device is elastically strainable into a deliverable shape whereby elastic recoil drives the device to recover back to its original manufactured shape that provides a load on lung tissue; wherein the manufactured shape is a C-shape, an S-shape, or a spiral; wherein the device is made from Nitinol metal wire, being shaped like a French horn and having ends formed into a shape that maximises surface area to minimise scraping and gouging of lung tissue, and whereby elastic recoil drives the device to recover to a desired shape, characterized in that the desired shape is as shown in Figure 37:
An airbag module for attaching to an instrument panel comprising an inflator , a fastening portion which is arranged so that the airbag module can be attached to the instrument panel via the fastening portion , a receiving portion for an airbag as well as a holding portion which serves for holding the inflator , the airbag module having a support structure including the fastening portion and a housing made from fabric material, the holding portion being partially configured in a holding area of the housing which is opposed to the fastening portion so that the inflator is fastened from outside and extends at least partially into the receiving portion , the support structure having a peripheral frame including strips and cross-legs connected thereto, characterized in that the support structure comprises at least one supporting portion U-shaped in cross-section with at least partially encompasses the housing and in that the at least one U-shaped supporting portion is formed integrally with the peripheral frame .
A driving assistance device comprising an image generator that generates a first image representing an action a vehicle is capable of executing depending on a travel environment during autonomous driving and a second image in which a travel-environmental basis of the action around the vehicle is highlighted; and an image output unit that outputs the first image and the second image generated by the image generator to a notification device in the vehicle in association with each other. an image generator that generates a first image representing an action a vehicle is capable of executing depending on a travel environment during autonomous driving and a second image in which a travel-environmental basis of the action around the vehicle is highlighted; and an image output unit that outputs the first image and the second image generated by the image generator to a notification device in the vehicle in association with each other.
A method for providing a shared augmented reality, AR, experience by an edge node of a communications network, the method characterized by comprising: receiving , at the edge node, a connection request from a client, the connection request including a player identifier; identifying a shared AR session for the client based on the connection request; providing , to the client, map data and a local state, maintained by the edge node, of an AR experience provided by the shared AR session; receiving an action request from the client, the action request indicating a desired interaction with a virtual item in the AR experience; determining an outcome of the action request based on the local state of the AR experience; providing the outcome to a plurality of clients connected to the edge node; and validating , after providing the outcome to the plurality of clients, the outcome with a master state of the AR experience maintained by a server. receiving , at the edge node, a connection request from a client, the connection request including a player identifier; identifying a shared AR session for the client based on the connection request; providing , to the client, map data and a local state, maintained by the edge node, of an AR experience provided by the shared AR session; receiving an action request from the client, the action request indicating a desired interaction with a virtual item in the AR experience; determining an outcome of the action request based on the local state of the AR experience; providing the outcome to a plurality of clients connected to the edge node; and validating , after providing the outcome to the plurality of clients, the outcome with a master state of the AR experience maintained by a server.
A method for determination of a concentration range for one or more blood biomarkers of a human subject, the method comprising: receiving a captured image sequence of light re-emitted from the skin of the human subject; determining , using a first machine learning model trained with a hemoglobin concentration (HC) changes training set, bit values from a set of bitplanes in the captured image sequence that represent the HC changes of the subject, the set of bitplanes being those that are determined to approximately maximize a signal-to-noise ratio (SNR), the HC changes training set comprising bit values from each bitplane of images captured from a set of subjects for which HC changes are known; determining , using a second machine learning model trained using a blood biomarkers training set, a class for one or more blood biomarkers, each class comprising a concentration range for the one or more blood biomarkers, the blood biomarkers training set comprising previously determined HC change signals from other subjects and one or more blood panels from those subjects as ground truth data; and outputting the determined concentration range for the one or more blood biomarkers. receiving a captured image sequence of light re-emitted from the skin of the human subject; determining , using a first machine learning model trained with a hemoglobin concentration (HC) changes training set, bit values from a set of bitplanes in the captured image sequence that represent the HC changes of the subject, the set of bitplanes being those that are determined to approximately maximize a signal-to-noise ratio (SNR), the HC changes training set comprising bit values from each bitplane of images captured from a set of subjects for which HC changes are known; determining , using a second machine learning model trained using a blood biomarkers training set, a class for one or more blood biomarkers, each class comprising a concentration range for the one or more blood biomarkers, the blood biomarkers training set comprising previously determined HC change signals from other subjects and one or more blood panels from those subjects as ground truth data; and outputting the determined concentration range for the one or more blood biomarkers.
Method for processing audio signals in an entertainment system, wherein audio signals from at least one audio source are modified during playback by the entertainment system for adjustment to a psychoacoustic loudness set value, wherein this modification is performed in each case on the basis of an average psychoacoustic loudness maximum EL determined over a predefined time interval for the audio source concerned, wherein, in order to determine the value EL, the current loudness is measured (S22) depending on the signal frequency for a specific audio track, the loudness values measured in this way are used to determine (S27) a local maximum within a fixed time interval, and the respective current loudness maxima are stored (S28) in a memory, with the result that the values present in the memory contain the respective loudness maxima of the audio signal of the sound track, and the value EL is calculated (S29) on the basis of the stored loudness maxima by subdividing the values present in the memory into individual blocks and applying a function to the individual sections, which function provides a value close to the maximum, and adding the values obtained in this way over the predefined time interval to form a sum, if necessary following prior squaring, in order to thus obtain the value EL.
A stent comprising: a stent body defining a length (L) and comprising a plurality of cells ; each cell comprising two structural members extending in an undulating pattern; each structural member comprising a plurality of cell segments defining a plurality of peaks and valleys therebetween, a first segment and a second segment defining a first peak , the second segment and a third segment defining a first valley , the third segment and a fourth segment defining a second peak , the fourth segment and a fifth segment defining a second valley , the fifth segment and a sixth segment defining a third peak ; wherein at least one peak or valley includes a non-constant radius of curvature such that the inside edge of that at least one peak or valley includes at least two distinct radii of curvature (R SA , R SB ), and wherein the at least two distinct radii of curvature (R SA , R SB ) are curved in the same direction and characterized in that the radius of curvature (R SA ) of an inner edge of the apex of that at least one peak or valley is smaller than the radius of curvature (R SB ) of an inner edge located between the apex of that at least one peak or valley and each adjacent cell segment . a stent body defining a length (L) and comprising a plurality of cells ; each cell comprising two structural members extending in an undulating pattern; each structural member comprising a plurality of cell segments defining a plurality of peaks and valleys therebetween, a first segment and a second segment defining a first peak , the second segment and a third segment defining a first valley , the third segment and a fourth segment defining a second peak , the fourth segment and a fifth segment defining a second valley , the fifth segment and a sixth segment defining a third peak ; wherein at least one peak or valley includes a non-constant radius of curvature such that the inside edge of that at least one peak or valley includes at least two distinct radii of curvature (R SA , R SB ), and wherein the at least two distinct radii of curvature (R SA , R SB ) are curved in the same direction and characterized in that the radius of curvature (R SA ) of an inner edge of the apex of that at least one peak or valley is smaller than the radius of curvature (R SB ) of an inner edge located between the apex of that at least one peak or valley and each adjacent cell segment .
A method for the photoredox-catalytic addition of sulfur hexafluoride to a reactant with an unsaturated carbon-carbon bond, comprising the steps of: (A) providing a reaction mixture comprising the reactant, a photoredox catalyst and sulfur hexafluoride; and (B) irradiating the reaction mixture with electromagnetic radiation, which is UV light and/or light from the visible wavelength range, out of a high power LED as light source, wherein the photoredox catalyst is a photoredox catalyst with an N-phenylphenothiazine basic structure, and the unsaturated carbon-carbon bond is a double bond. (A) providing a reaction mixture comprising the reactant, a photoredox catalyst and sulfur hexafluoride; and (B) irradiating the reaction mixture with electromagnetic radiation, which is UV light and/or light from the visible wavelength range, out of a high power LED as light source, wherein the photoredox catalyst is a photoredox catalyst with an N-phenylphenothiazine basic structure, and the unsaturated carbon-carbon bond is a double bond.
System for calibrating an inertial measurement unit (IMU) of a vehicle (V), which is a land vehicle, the inertial measurement unit (IMU) having a first acceleration sensor for measuring a translational acceleration along a first sensor axis and/or a first rate-of-rotation sensor for measuring a rate of rotation about the first sensor axis and also a second acceleration sensor for measuring a translational acceleration along a second sensor axis and/or a second rate-of-rotation sensor for measuring a rate of rotation about the second sensor axis, both the first and the second sensor axis being tilted with respect to a first vehicle direction, characterized in that at least one sensing device is designed to sense a movement of the vehicle (V) in the first vehicle direction and/or about the first vehicle direction, and the system is designed to calibrate the inertial measurement unit (IMU) during driving on the basis of calibration data from the at least one sensing device.