mhurhangee/patent-ind-claim-en huggingface dataset:
A planar probe head for coupling ultrasonic signals to a planar component to be tested, by means of water-free jet technology, comprising a probe head , at least one pre-flow chamber having at least one water inlet as well as a base body for receiving the probe head , wherein a flow chamber is mounted downstream of at least one pre-flow chamber , said flow chamber extending through a water outlet opening to a lower face of the planar probe head , wherein a water flow is formed between the lower face of the planar probe head and a surface of the component to be tested, wherein the probe head is releasably arranged so as to be freely accessible outside the at least one flow chamber and/or pre-flow chamber and wherein a side surface of the probe head comprising transmitting/receiving elements forms an internal wall portion of the flow chamber , wherein the planar probe head is connected to a plate forming a lower face of the planar probe head on the component side, the two-dimensional extent thereof along the component being greater than the two-dimensional extent of the base body along the component , characterised in that the plate is configured as a sliding plate having a lower face forming a closed planar surface in which the water outlet opening is configured as a slot-shaped opening running transversely to the testing direction along a central axis of the sliding plate , in order to form a water cushion bearing the planar probe head.
A time of flight distance measurement method comprising: emitting a pulsed fan beam from a light emitter to illuminate a remote object with an object illumination stripe ; capturing an image of the object illumination stripe as an image illumination stripe on a photosensitive image region of a time of flight sensor comprising an array of M columns of J rows of pixels, where both M and J are positive integers greater than 2, transferring data from the photosensitive image region to a storage region arranged not to respond to incident light, the storage region comprising M columns of N storage elements, along the M columns of the storage region from respective columns of the photosensitive image region; and reading out data in a readout section from the M columns of the storage region ; the method comprising operating a self-calibration step including capturing the image illumination stripe on the photosensitive image region during an integration period, followed by reading out the data from the image region via the storage region and the readout section and identifying which row of the photosensitive image region has the image illumination stripe; and operating a distance determining step including determining the distance to the remote object by clocking the image region while capturing the image of the object illumination stripe , reading out the data from the image region via the storage region and the readout section and determining the distance to the object. emitting a pulsed fan beam from a light emitter to illuminate a remote object with an object illumination stripe ; capturing an image of the object illumination stripe as an image illumination stripe on a photosensitive image region of a time of flight sensor comprising an array of M columns of J rows of pixels, where both M and J are positive integers greater than 2, transferring data from the photosensitive image region to a storage region arranged not to respond to incident light, the storage region comprising M columns of N storage elements, along the M columns of the storage region from respective columns of the photosensitive image region; and reading out data in a readout section from the M columns of the storage region ; the method comprising operating a self-calibration step including capturing the image illumination stripe on the photosensitive image region during an integration period, followed by reading out the data from the image region via the storage region and the readout section and identifying which row of the photosensitive image region has the image illumination stripe; and operating a distance determining step including determining the distance to the remote object by clocking the image region while capturing the image of the object illumination stripe , reading out the data from the image region via the storage region and the readout section and determining the distance to the object.
Method for classifying a risk for thrombus formation in an organ of a patient comprising: - transferring a medical image data set of the organ to an evaluation unit ; - segmenting the organ into a plurality of defined volumes; - calculating by a processor of the evaluation unit 2. a flow parameter based on the medical image data set , wherein the flow parameter is a flow velocity and assigning to each defined volume a flow velocity respectively; - assigning a flow velocity to a predefined volume, and wherein the evaluation unit is configured such that the size of the predefined volume is adjustable by using an input device; - assigning by a processor of the evaluation unit a risk parameter based on the flow parameter , wherein the risk parameter is related to the flow velocity; and - providing the risk parameter . - transferring a medical image data set of the organ to an evaluation unit ; - segmenting the organ into a plurality of defined volumes; - calculating by a processor of the evaluation unit 2. a flow parameter based on the medical image data set , wherein the flow parameter is a flow velocity and assigning to each defined volume a flow velocity respectively; - assigning a flow velocity to a predefined volume, and wherein the evaluation unit is configured such that the size of the predefined volume is adjustable by using an input device; - assigning by a processor of the evaluation unit a risk parameter based on the flow parameter , wherein the risk parameter is related to the flow velocity; and - providing the risk parameter .
A foldable storage arrangement , comprising at least a first storage module (A) wherein said storage module (A) comprises two side walls and one front wall , wherein each side wall is provided with at least one fastening mean to maintain the front wall on said side walls , and that each side wall further comprises at least one fixation element to fix said side wall onto a support (S) and wherein said side walls comprise a straight back edge , a straight bottom edge orthogonal to the back edge , a top edge , on which is fastened a top wall , and a front edge , on which is fastened a front wall . characterized in that the top edge of the side walls has a concave shape, and wherein the front edge of the side wall has a convex shape.
A time synchronization method, comprising: receiving a unicast message at a second system frame, the unicast message comprising a frame number and time information, the frame number indicates a first system frame, the time information indicates a time period; calculating a fifth time based on the time period and a preset time, wherein the first system frame indicates a time location corresponding to the fifth time, and the first system frame is a system frame closest to the second system frame; and synchronizing a time based on the fifth time. receiving a unicast message at a second system frame, the unicast message comprising a frame number and time information, the frame number indicates a first system frame, the time information indicates a time period; calculating a fifth time based on the time period and a preset time, wherein the first system frame indicates a time location corresponding to the fifth time, and the first system frame is a system frame closest to the second system frame; and synchronizing a time based on the fifth time.
An air filter for I.C. engines, comprising a housing , provided with a removable lid , in which a compartment is provided receiving a main filter element which is replaceable and provided with a sealing gasket adapted to be interposed between the housing and the lid , wherein the sealing gasket comprises at least one centering seat or projection for receiving a corresponding centering projection or seat provided on the lid or on the housing when the main filter element is located within the housing and the housing is closed by the lid , wherein a secondary filter element is provided, wherein said main and secondary filter elements are individually replaceable, characterized in that the secondary filtering element defines a corresponding pocket in which the main filtering element is received, in that the secondary filter element comprises a corresponding annular sealing gasket , which has a cross-section having substantially the shape of an overturned "U" and capable of cooperating with a first inner perimeter edge provided in the housing of the filter , and in that said gaskets cooperate with each other in order to define a corresponding hermetic sealing when said main and secondary filter elements are received in the housing and the lid is closed.
An engine lubricating oil composition providing improved low temperature valve train wear pursuant to the Sequence IVB engine test of ASTM D8350, the engine oil lubricating composition comprising: one or more base oils of lubricating viscosity; about 300 to about 1000 ppm molybdenum from an oil-soluble molybdenum compound; one or more metal-containing detergents providing greater than about 5 TBN to the lubricating oil composition, wherein the TBN is measured using ASTM D4739; wherein at least one of the one or more metal-containing detergents comprises an overbased magnesium detergent having a TBN of 200 mg KOH/gram or greater and providing greater than about 2 TBN to the lubricating oil composition, wherein the TBN is measured using ASTM D4739; less than 0.1 weight percent of a polymeric poly(meth)acrylate-based pour point depressant according to Formula I with z and p being integers sufficient to achieve a weight average molecular weight of 20,000 to 1,500,000 wherein R is hydrogen if the monomer unit is an acrylate and a methyl group if the monomer unit is a methacrylate; R' is a linear or branched hydrocarbyl group, R" is a heterocyclic moiety selected from lactones, lactams, pyrrolidone, pyridine, N-pyrrolidone, N-imidazole, N-caprolactam, and combinations thereof; wherein the lubricating oil composition further includes a calcium-containing detergent; and wherein the engine oil composition has a viscosity grade according to SAE J 300 of 0W-8, 0W-12, 0W-16, or 0W-20. one or more base oils of lubricating viscosity; about 300 to about 1000 ppm molybdenum from an oil-soluble molybdenum compound; one or more metal-containing detergents providing greater than about 5 TBN to the lubricating oil composition, wherein the TBN is measured using ASTM D4739; wherein at least one of the one or more metal-containing detergents comprises an overbased magnesium detergent having a TBN of 200 mg KOH/gram or greater and providing greater than about 2 TBN to the lubricating oil composition, wherein the TBN is measured using ASTM D4739; less than 0.1 weight percent of a polymeric poly(meth)acrylate-based pour point depressant according to Formula I with z and p being integers sufficient to achieve a weight average molecular weight of 20,000 to 1,500,000 wherein R is hydrogen if the monomer unit is an acrylate and a methyl group if the monomer unit is a methacrylate; R' is a linear or branched hydrocarbyl group, R" is a heterocyclic moiety selected from lactones, lactams, pyrrolidone, pyridine, N-pyrrolidone, N-imidazole, N-caprolactam, and combinations thereof; wherein the lubricating oil composition further includes a calcium-containing detergent; and wherein the engine oil composition has a viscosity grade according to SAE J 300 of 0W-8, 0W-12, 0W-16, or 0W-20.
A sterilization container, , said sterilization container including: a body shaped to hold surgical instruments and adapted to allow steam to enter the body in order to sterilize the surgical instruments; and a sensor module mounted to the body, the sensor module including: - a pressure sensor for sensing the pressure inside the body, - a first temperature sensor for sensing the temperature inside the body, - a void space configured to define a closed end and at least one opening that forms a fluid communications path from an interior of the container body into said void space; - a second temperature sensor mounted to the module so as to sense the temperature in said void space , characterized in that said second temperature sensor is, relative to gravity, located below the at least one opening into said void space ; and the sensor module is further constructed so that the first temperature sensor is, relative to gravity, located above the second temperature sensor . a body shaped to hold surgical instruments and adapted to allow steam to enter the body in order to sterilize the surgical instruments; and a sensor module mounted to the body, the sensor module including: - a pressure sensor for sensing the pressure inside the body, - a first temperature sensor for sensing the temperature inside the body, - - a pressure sensor for sensing the pressure inside the body, - a first temperature sensor for sensing the temperature inside the body, - a void space configured to define a closed end and at least one opening that forms a fluid communications path from an interior of the container body into said void space; - a second temperature sensor mounted to the module so as to sense the temperature in said void space , - a second temperature sensor mounted to the module so as to sense the temperature in said void space , characterized in that said second temperature sensor is, relative to gravity, located below the at least one opening into said void space ; and the sensor module is further constructed so that the first temperature sensor is, relative to gravity, located above the second temperature sensor .
A humidification chamber for use in a medical humidification system, the humidification chamber comprising: a base and a top linked by a side wall to define the chamber; a gases inlet configured to receive a gases flow from a gases source; and a gases outlet, wherein the gases inlet is orientated relative to the side wall of the chamber to introduce the gases flow to the humidification chamber as a gases jet in a direction substantially tangential to the side wall of the humidification chamber, and characterized in that the gases inlet comprises a nozzle having a constriction that internally tapers so as to be gradually narrowed along its length, wherein the internal profile is substantially smooth. a base and a top linked by a side wall to define the chamber; a gases inlet configured to receive a gases flow from a gases source; and a gases outlet, wherein the gases inlet is orientated relative to the side wall of the chamber to introduce the gases flow to the humidification chamber as a gases jet in a direction substantially tangential to the side wall of the humidification chamber, and characterized in that the gases inlet comprises a nozzle having a constriction that internally tapers so as to be gradually narrowed along its length, wherein the internal profile is substantially smooth.
An anchoring seal assembly for creating a seal portion and an anchor portion between a first tubular and a second tubular , the anchoring seal assembly comprising: a wedge member movably disposed around the first tubular ; an expandable annular member disposed around the wedge member , the annular member having a groove formed in an outer surface of the annular member and a rough surface (430A-C) adjacent the groove ; a seal member disposed in the groove , the seal member having one or more anti-extrusion bands embedded within the seal member ; a retaining sleeve coupled to the expandable annular member and configured to move axially in response to a force acting on the expandable annular member and wherein the wedge member is configured to push the expandable annular member along an axial direction of the first tubular to move the retaining sleeve and to urge the rough surface (430A-C) into engagement with the second tubular ; wherein the expandable annular member is movable on a tapered outer surface of the wedge member , the tapered outer surface is configured to radially expand the expandable annular member into contact with an inner wall of the second tubular to create the seal portion and the anchor portion as the expandable annular member moves from a first position to a second position, and a gap defined between a side of the groove and a side of the seal member , wherein the gap is configured to close upon expansion of the expandable annular member . a wedge member movably disposed around the first tubular ; an expandable annular member disposed around the wedge member , the annular member having a groove formed in an outer surface of the annular member and a rough surface (430A-C) adjacent the groove ; a seal member disposed in the groove , the seal member having one or more anti-extrusion bands embedded within the seal member ; a retaining sleeve coupled to the expandable annular member and configured to move axially in response to a force acting on the expandable annular member and wherein the wedge member is configured to push the expandable annular member along an axial direction of the first tubular to move the retaining sleeve and to urge the rough surface (430A-C) into engagement with the second tubular ; wherein the expandable annular member is movable on a tapered outer surface of the wedge member , the tapered outer surface is configured to radially expand the expandable annular member into contact with an inner wall of the second tubular to create the seal portion and the anchor portion as the expandable annular member moves from a first position to a second position, and a gap defined between a side of the groove and a side of the seal member , wherein the gap is configured to close upon expansion of the expandable annular member .
A method of wireless communication at a client device, the method comprising: establishing a secure radio resource control, RRC, channel with a base station; receiving an encoded message from the base station using the secure RRC channel, wherein the encoded message comprises one or more time varying allocations of resources for one or more client devices; obtaining , from the encoded message, a time varying allocation of resources for the client device comprising a shared pattern of resources allocated for uplink control information; and transmitting uplink control information based at least in part on the shared pattern of resources. establishing a secure radio resource control, RRC, channel with a base station; receiving an encoded message from the base station using the secure RRC channel, wherein the encoded message comprises one or more time varying allocations of resources for one or more client devices; obtaining , from the encoded message, a time varying allocation of resources for the client device comprising a shared pattern of resources allocated for uplink control information; and transmitting uplink control information based at least in part on the shared pattern of resources.
A dishwasher comprising a body ; a washing tub which is disposed in the body and wherein a washing process is performed with water taken from the mains line; a heat pump which is disposed under the washing tub and which has a first heat exchanger for drawing heat from the environment to heat the water to be used in the washing step, a second heat exchanger for transferring the heat received from the first heat exchanger to the washing water, and a compressor which is in fluid connection with the first heat exchanger and the second heat exchanger and which provides the refrigerant cycle; a water collection receptacle which is disposed under the first heat exchanger and wherein the water formed with the condensation of water vapor on the surface of the first heat exchanger is collected; and a water softening unit which enables the water taken from the mains line to be softened to be used in the washing process and which has an ion exchanger having resin therein and a salt container for regenerating the resin, characterized by further comprising a first liquid delivery line with one end connected to the mains line and the other end to the water collection receptacle ; a second liquid delivery line with one connected to the water collection receptacle and the other to the water softening unit ; and a control unit which provides the delivery of the water taken from the mains line to the water collection receptacle via the first liquid delivery line and which enables the water condensing on the first heat exchanger and the water taken from the mains line to be mixed in the water collection receptacle and then delivered to the water softening unit via the second liquid delivery line .
Device for monitoring a protected area with - at least one light runtime sensor (14, 14.1, ..., 14.n) which has at least one transmitter (16, 16.1, ..., 16.n) for emitting light beams (24, 24.1, ..., 24.n) into the protected area , and at least one receiver (18, 18.1, ..., 18.n) for receiving reflected or remitted light beams (28, 28.1, ..., 28.n) - a limiting element opposite the light runtime sensor (14, 14.1, ..., 14.n) at a first distance and at least partially limiting the protected area , - a reference element , opposite the light runtime sensor (14, 14.1, ..., 14.n) at a second distance , for reflecting or remitting the emitted light beams ((24, 24.1, ..., 24.n)) - at least one evaluation unit for determining a light runtime between emitting the light beams (24, 24.1, ..., 24.n) and receiving the reflected or remitted light beams (28, 28.1, ..., 28.n), and - a monitoring unit for evaluating the determined light runtime, characterized in that the second distance is greater than the first distance and a difference between the second distance and the first distance is at least as great as a depth resolution of the light runtime sensor (14, 14.1, ..., 14.n). - at least one light runtime sensor (14, 14.1, ..., 14.n) which has at least one transmitter (16, 16.1, ..., 16.n) for emitting light beams (24, 24.1, ..., 24.n) into the protected area , and at least one receiver (18, 18.1, ..., 18.n) for receiving reflected or remitted light beams (28, 28.1, ..., 28.n) - a limiting element opposite the light runtime sensor (14, 14.1, ..., 14.n) at a first distance and at least partially limiting the protected area , - a reference element , opposite the light runtime sensor (14, 14.1, ..., 14.n) at a second distance , for reflecting or remitting the emitted light beams ((24, 24.1, ..., 24.n)) - at least one evaluation unit for determining a light runtime between emitting the light beams (24, 24.1, ..., 24.n) and receiving the reflected or remitted light beams (28, 28.1, ..., 28.n), and - a monitoring unit for evaluating the determined light runtime, characterized in that the second distance is greater than the first distance and a difference between the second distance and the first distance is at least as great as a depth resolution of the light runtime sensor (14, 14.1, ..., 14.n).