mhurhangee/ep-ind-claims huggingface dataset:
A resonating patch for acoustic treatment for a cell for acoustic treatment of an acoustic panel of a turbomachine of an aircraft, the resonating patch comprising a resonant plate, the resonant plate comprising a peripheral strip extending along the perimeter of the resonant plate, the resonant plate comprising cut-outs together defining deformable lamellae having at least one end connected to the peripheral strip characterised in that the resonating patch comprises a transducer and an electrical circuit electrically connected to the transducer.
A method comprising: flushing a human-consumable product liquid through a fluid conduit with a flushing liquid; analyzing fluid flowing through the fluid conduit to determine a concentration of product in the fluid; and controlling the flushing liquid based on the determined concentration of the product in the fluid, further comprising comparing the determined concentration of the product to a threshold value, characterized in that the fluid is analyzed fluorometrically and in that controlling the flushing liquid based on the determined concentration of the product comprises stopping a flow of the flushing liquid when the determined concentration equals or falls below the threshold value. flushing a human-consumable product liquid through a fluid conduit with a flushing liquid; analyzing fluid flowing through the fluid conduit to determine a concentration of product in the fluid; and controlling the flushing liquid based on the determined concentration of the product in the fluid, further comprising comparing the determined concentration of the product to a threshold value, characterized in that the fluid is analyzed fluorometrically and in that controlling the flushing liquid based on the determined concentration of the product comprises stopping a flow of the flushing liquid when the determined concentration equals or falls below the threshold value.
Drum for manufacturing a tyre blank, comprising a shaft extending axially, two flanges movable in axial translation along the shaft, and means for supplying compressed air, each flange comprising at least one pneumatic effector cooperating with the tyre blank, at least one flange comprising a first, radially internal ring movable in axial translation along the shaft, and a second, radially external ring comprising the pneumatic effector(s), the drum being characterized in that the second ring is movable in rotation around the first ring by means of at least two airtight pivot connections, the rings and the pivot connections delimiting at least one sealed chamber, and in that said flange comprises at least one first compressed-air circulation channel, a first section of the first channel belonging to the first ring being connected at one of its ends to the compressed-air supply means and at the other of its ends to the sealed chamber, and a second section of the first channel belonging to the second ring being connected at one of its ends to the sealed chamber and at the other of its ends to the pneumatic effector.
A proactive scanning method for mobile node handset handoff between multiple base stations having a medium access control protocol used for forwarding Internet Protocol packets between multiple base stations and mobile nodes in voice over the Internet protocol systems on a wireless network comprising: multiple base stations in electrical communication with the Internet; one or more mobile nodes in wireless electrical communication with one of said multiple base stations; said multiple base stations and said one or more mobile nodes each having a medium access control protocol each of said multiple base stations transmitting a beacon signal; said medium access control protocol having hyperframes comprised of superframes containing headers that contain provisional time slots dedicated to handing off a mobile node between a current base station a mobile node is in wireless electrical communication with and a replacement base station; wherein when one of said one or more mobile nodes is not in a voice session it does not scan for a beacon signal; wherein when one of said one or more mobile nodes and one of said multiple base stations begins a voice session said mobile node scans for a beacon signal at a fast scan rate of once per superframe for received signal strength indicators from said beacons of other said multiple base stations in mobile nodes' electrical communication range and said mobile node stores said received signal strength indicators of said multiple base stations then said mobile node begins to scan at a slow scan rate of once per hyperframe; wherein when said mobile node detects a threshold minimum signal strength from said current base station said mobile node scans at an intermediate scan rate of more often than once a hyperframe but less often than once a superframe for received signal strength indicators from said beacons of other said multiple base stations in mobile nodes' electrical communication range and said mobile node stores said received signal strength indicators of said multiple base stations; wherein when said mobile node detects an additional threshold minimum signal! strength from said current base station it sends a provisional handoff request to a replacement base station that has the strongest stored received signal strength indicator; wherein said replacement base station receiving said provisional handoff request assigns provisional time slots to said mobile node that sent said provisional handoff request to said replacement base station; and, wherein when said mobile node detects a final threshold minimum signal strength from said current base station it sends a handoff confirm message using said provisional time slots to said replacement base station beginning wireless electrical communication with said replacement base station and also sends a connection break-off message to said current base station breaking off wireless electrical communications with said current base station and said mobile node continues to scan at the intermediate scan rate until signal strength on said replacement base station is above the threshold minimum signal strength.
A coffee beverage composition comprising i) at least 10% by weight of particles of roast coffee beans; and ii) at least 30% by weight of soluble coffee solids extracted from roast coffee beans; wherein the composition comprises less than 1.2 mg of diterpenes per g of coffee solids. i) at least 10% by weight of particles of roast coffee beans; and ii) at least 30% by weight of soluble coffee solids extracted from roast coffee beans;
Electrically conductive plastic product made via rotational moulding, comprising - a plastic matrix; and - a network of conductive fibers of discrete length embedded in the plastic matrix for providing electrical conductivity to the plastic product, wherein the conductive fibers are metal fibers; and wherein the average length of the conductive fibers is at least 3 mm. - a plastic matrix; and - a network of conductive fibers of discrete length embedded in the plastic matrix for providing electrical conductivity to the plastic product,
A method for reducing interrupt latency time, comprising: communicating a first interrupt and a first vector identifier from a second interrupt controller to a first interrupt controller; processing the first interrupt and the first vector identifier at the first interrupt controller; characterised by sending the processed interrupt from the first interrupt controller to a thread in a core; determining when the core is ready to receive a second interrupt; and sending an instruction from the core to the second interrupt controller indicating the core is ready to receive the second interrupt. communicating a first interrupt and a first vector identifier from a second interrupt controller to a first interrupt controller; processing the first interrupt and the first vector identifier at the first interrupt controller; characterised by sending the processed interrupt from the first interrupt controller to a thread in a core; determining when the core is ready to receive a second interrupt; and sending an instruction from the core to the second interrupt controller indicating the core is ready to receive the second interrupt.
A sheet processing apparatus comprising: sheet stacking means configured to stack sheets to be processed; sheet overlap means configured to allow a predetermined number N of successively fed sheets to be overlapped and made to wait, while preceding sheets to be processed are being stacked on the sheet stacking means; conveyance means (1570, 1571) configured to convey overlapped sheets from the sheet overlap means to the sheet stacking means; and control means configured to control the overlapping of sheets in the sheet overlap means, wherein the control means is arranged to determine, based on sheet information relating to an Mth sheet fed to the sheet overlap means, before the number of fed sheets reaches the predetermined number N, whether an M+1th sheet is overlapped on the Mth sheet in the sheet overlap means, characterized in that the control means is arranged to perform control, based on sheet information indicating that the Mth sheet fed to the sheet overlap means is a tab sheet having a projection that projects downstream in the conveyance direction provided at its downstream edge in the conveyance direction, so that the M+1th sheet to be fed next is not overlaid on the Mth sheet fed to the sheet overlap means. sheet stacking means configured to stack sheets to be processed; sheet overlap means configured to allow a predetermined number N of successively fed sheets to be overlapped and made to wait, while preceding sheets to be processed are being stacked on the sheet stacking means; conveyance means (1570, 1571) configured to convey overlapped sheets from the sheet overlap means to the sheet stacking means; and control means configured to control the overlapping of sheets in the sheet overlap means, wherein the control means is arranged to determine, based on sheet information relating to an Mth sheet fed to the sheet overlap means, before the number of fed sheets reaches the predetermined number N, whether an M+1th sheet is overlapped on the Mth sheet in the sheet overlap means, characterized in that the control means is arranged to perform control, based on sheet information indicating that the Mth sheet fed to the sheet overlap means is a tab sheet having a projection that projects downstream in the conveyance direction provided at its downstream edge in the conveyance direction, so that the M+1th sheet to be fed next is not overlaid on the Mth sheet fed to the sheet overlap means.
A method of covering a two-sided passenger compartment part of a motor vehicle, comprising attaching the passenger compartment part to a first portion of a press, arranging a covering part on a second portion of the press, and pressing a first face of the passenger compartment part and the covering part against one another, the method being characterized in that it comprises, during pressing, tensioning of the covering part on the first face by a lip of the second part of the press, and immobilizing the covering part with respect to the passenger compartment part by applying the outline of the covering part to an adhesive carried by the second face of the part, the lip having a generally oblong annular shape allowing a vertex of the passenger compartment part to go beyond it, by crossing it inside.
A roof window arrangement comprising a plurality of window units (21, 22, 23) in a side-by-side configuration in a mounted condition of the roof window arrangement, and a covering assembly including a set of coverings, each window unit comprising at least one pane-carrying frame (211, 221, 231) and a pane (214, 224, 234), in which at least one window unit (22, 23) of the roof window arrangement comprises a pane-carrying frame in the form of an openable sash (221, 231) which opens about a hinge axis (α) defined by a set of hinges, and in which a common frame is provided to act as a single, stationary frame of all of the plurality of window units (21, 22, 23) in side-by-side configuration, said common frame being configured to be built into a roof surface and comprising a top member, two side members (12, 13) and a bottom member, and said plurality of window units comprising a first window unit with a non-openable pane-carrying frame with a top member, two side members (2112, 2113), and a bottom member, and at least one neighbouring secondary window unit (22, 23) with a pane-carrying frame in the form of an openable sash (221, 231) with a top member, two side members (2212, 2213), and a bottom member, characterised in that the common frame further comprises at least one mullion (15, 16; 17) extending between the top member and the bottom member and being substantially parallel to the two side members (12, 13) of the common frame, that in the mounted condition of the roof window arrangement, each side member (2112, 2113) of the pane-carrying frame of the first window unit is configured to be brought into abutment with a respective one of: a mullion (15, 16; 17), and a side member of the common frame, and that at least the pane-carrying frame of the first window unit is configured to be releasably connected to the mullions (15, 16), or to the mullion and the side member of the common frame, so as to allow the first window unit to be installed independently of the installation of the common frame. the common frame further comprises at least one mullion (15, 16; 17) extending between the top member and the bottom member and being substantially parallel to the two side members (12, 13) of the common frame, that in the mounted condition of the roof window arrangement, each side member (2112, 2113) of the pane-carrying frame of the first window unit is configured to be brought into abutment with a respective one of: a mullion (15, 16; 17), and a side member of the common frame, a mullion (15, 16; 17), and a side member of the common frame, and that at least the pane-carrying frame of the first window unit is configured to be releasably connected to the mullions (15, 16), or to the mullion and the side member of the common frame, so as to allow the first window unit to be installed independently of the installation of the common frame.
A micro electro-mechanical system switch comprising: a base substrate; an electrical pathway comprising a first portion and a second portion, wherein the second portion is offset to a zero overlap position when viewed in the plane of the base substrate with respect to said first portion while the switch is in an open state; and an actuator for moving both said first portion and said second portion into contact; wherein the first portion is arranged to actuate in an out-of-plane direction and the second portion is arranged to actuate in an in-plane direction. a base substrate; an electrical pathway comprising a first portion and a second portion, wherein the second portion is offset to a zero overlap position when viewed in the plane of the base substrate with respect to said first portion while the switch is in an open state; and an actuator for moving both said first portion and said second portion into contact; wherein the first portion is arranged to actuate in an out-of-plane direction and the second portion is arranged to actuate in an in-plane direction.
An occupancy detection system, comprising: - an input for receiving sensor outputs from at least two sensors (10,12) mounted spaced apart in and/or near an area, each sensor being configured for generating, when in a static mode in which the sensor has a static field of view covering an area of interest in which the occupancy detection is to be carried out, a sensor signal which is dependent on the distance of a sensed subject present in the area to a sensor, or on the distances to multiple sensed subjects present in the area to a sensor and for generating a sensor output based on the sensor signal wherein the sensor output comprises distance data of one or more subjects towards the sensor; - a processor for processing the received sensor outputs, wherein the processor is adapted to: - derive a test metric based on a combination of the sensor outputs, which test metric represents a combination of distances; and - determine from the evolution of the test metric over time whether there is a single subject or multiple subjects present in the area. - an input for receiving sensor outputs from at least two sensors (10,12) mounted spaced apart in and/or near an area, each sensor being configured for generating, when in a static mode in which the sensor has a static field of view covering an area of interest in which the occupancy detection is to be carried out, a sensor signal which is dependent on the distance of a sensed subject present in the area to a sensor, or on the distances to multiple sensed subjects present in the area to a sensor and for generating a sensor output based on the sensor signal wherein the sensor output comprises distance data of one or more subjects towards the sensor; - a processor for processing the received sensor outputs, wherein the processor is adapted to: - derive a test metric based on a combination of the sensor outputs, which test metric represents a combination of distances; and - determine from the evolution of the test metric over time whether there is a single subject or multiple subjects present in the area. - derive a test metric based on a combination of the sensor outputs, which test metric represents a combination of distances; and - determine from the evolution of the test metric over time whether there is a single subject or multiple subjects present in the area.
A method for producing humanized monoclonal anti-EGFR antibody hR3 or fragments thereof in serum- and protein-free media comprising adapting a recombinant mammalian myeloma cell line transfected with a sequence encoding said humanized monoclonal anti-EGFR antibody hR3 or fragments thereof, to growth in serum- and protein-free media by a method comprising: I. A first stage wherein the cell line viability is between 80 and 100% and cells are grown in culture media with consecutive protein concentration reduction up to a critical protein concentration at which cell viability drops to 0%; and II. a second stage wherein once the critical concentration has been predetermined, then the pre-critical concentration is fixed as such a protein concentration in which cellular growth is possible and is the start point to slowly reduce the protein concentration until the cell culture reaches the initial cellular viability and population doubling time. I. A first stage wherein the cell line viability is between 80 and 100% and cells are grown in culture media with consecutive protein concentration reduction up to a critical protein concentration at which cell viability drops to 0%; and II. a second stage wherein once the critical concentration has been predetermined, then the pre-critical concentration is fixed as such a protein concentration in which cellular growth is possible and is the start point to slowly reduce the protein concentration until the cell culture reaches the initial cellular viability and population doubling time.
An optical sensor device for determining vehicle dynamic conditions, comprising - a first laser device (1, 3, 5) with at least one laser diode mounted on a vehicle at a first position so that the laser light impinges onto the road surface under an oblique angle, and - a second laser device with at least one laser diode mounted on a vehicle at a second position so that the laser light impinges onto the road surface under an oblique angle, wherein said first and said second position are laterally spaced along the road surface, said optical sensor device further comprising - at least one detector for detecting self-mixing oscillations of the laser intensity of said laser diodes, and - a data processing device for calculating forward, lateral and/or vertical velocities from the self-mixing-laser intensity oscillations of each of said laser diodes, characterized in that the second laser device is mounted on a front wheel suspension so that the laser beam orientation is coupled to the front wheel travel direction, wherein the laser device mounted on the front wheel suspension comprises two laser diodes (17, 19), one of said laser diodes emitting a beam having a component of direction along the front wheel travel direction and the other of said laser diodes (17, 19) emitting a beam having a component transversally to said wheel travel direction, whereby said data processing device determines a speed V 1 along the wheel travel direction and a speed V t transversally to the wheel travel direction and calculates a front tire slip angle α f according to the equation α f = arctan( V t / V l). - a first laser device (1, 3, 5) with at least one laser diode mounted on a vehicle at a first position so that the laser light impinges onto the road surface under an oblique angle, and - a second laser device with at least one laser diode mounted on a vehicle at a second position so that the laser light impinges onto the road surface under an oblique angle, wherein said first and said second position are laterally spaced along the road surface, said optical sensor device further comprising - at least one detector for detecting self-mixing oscillations of the laser intensity of said laser diodes, and - a data processing device for calculating forward, lateral and/or vertical velocities from the self-mixing-laser intensity oscillations of each of said laser diodes,
A glass with an antireflection film, wherein the glass with the antireflection film includes a glass substrate having a first surface and a second surface, and a first laminated film located on the first surface of the glass substrate, wherein the first laminated film includes, from a side close to the first surface of the glass substrate, a first layer, a second layer, a third layer, and an outermost layer, wherein the second layer is located adjacent to the first layer, wherein the third layer includes a material selected from a group formed of titania, niobium oxide, zirconia, ceria, and tantalum oxide, wherein the outermost layer is formed of zirconia-doped silica, wherein the zirconia doping amount is in a range from 5 at% to 50 at%, wherein the third layer that does not include silica is located immediately below the outermost layer, wherein the second layer has a refractive index that is less than the refractive index of the first layer, wherein the third layer has a refractive index that is greater than the refractive index of the second layer, which is located immediately below, and wherein the first layer is located on the first surface of the glass substrate.