mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a phased array antenna optimizer configured to identify different periods of time during which elements of a phased antenna array are expected to be used; identify predicted future health states for the elements in the phased array antenna for the identified periods of time, and identify different configurations for the elements for the identified predicted future health states to generate a radiation pattern based on the predicted future health states for the elements taking into account potential degradation of a group of the elements; wherein in identifying the configurations for the elements, the phased array antenna optimizer is configured to optimize the configurations of the elements to use the radiation pattern based on the predicted future health states for the elements taking into account the potential degradation of the group of the elements, and wherein in optimizing the configurations of the elements, the phased array antenna optimizer is configured to take into account a combination of potential degradations of the group of the elements. a phased array antenna optimizer configured to identify different periods of time during which elements of a phased antenna array are expected to be used; identify predicted future health states for the elements in the phased array antenna for the identified periods of time, and identify different configurations for the elements for the identified predicted future health states to generate a radiation pattern based on the predicted future health states for the elements taking into account potential degradation of a group of the elements; identify different periods of time during which elements of a phased antenna array are expected to be used; identify predicted future health states for the elements in the phased array antenna for the identified periods of time, and identify different configurations for the elements for the identified predicted future health states to generate a radiation pattern based on the predicted future health states for the elements taking into account potential degradation of a group of the elements; wherein in identifying the configurations for the elements, the phased array antenna optimizer is configured to optimize the configurations of the elements to use the radiation pattern based on the predicted future health states for the elements taking into account the potential degradation of the group of the elements, and wherein in optimizing the configurations of the elements, the phased array antenna optimizer is configured to take into account a combination of potential degradations of the group of the elements.
A method of identifying a patient having a tumor possibly harboring cells with a mutation in the epidermal growth factor receptor (EGFR) gene, comprising testing the patient's sample for the presence of the mutated EGFR gene characterized by the mutation 2257-2277>GCC, or mutation 2257-2262 del, or mutation 2266-2277 del in SEQ ID NO: 1; whereby the presence of the mutation in said patient's sample indicates sensitivity of said patient to an EGFR inhibitor compound.
A system comprising a gasket and a mounting groove, the gasket being mounted to the gasket mounting groove which is opened radially inward or radially outward and has a bottom surface and a pair of axial side surfaces (23a, 23b) to seal pressure, the gasket comprising: a gasket body in which a reinforcing ring is embedded; a first sealing lip which is provided in an end portion of one axial side of the gasket body and is brought into close contact to one side surface of the mounting groove when mounted; and a second sealing lip which is provided in an end portion of another axial side of the gasket body and is brought into close contact to another side surface of the mounting groove when mounted, the gasket having a structure in which the gasket body is displaced to the one axial side within the mounting groove when pressure acts on the gasket because rigidity of the second sealing lip is set to be higher than rigidity of the first sealing lip or the reinforcing ring is disposed closer to the one axial side within the gasket body, wherein a seal bead which is brought into close contact to the bottom surface of the mounting groove when mounted is provided in the gasket body, a space portion surrounded by the second sealing lip, the seal bead, and the bottom surface and the another side surface of the mounting groove when mounted is provided, and the reinforcing ring is integrally provided with a flange portion radially outward in one end of a cylindrical portion. a gasket body in which a reinforcing ring is embedded; a first sealing lip which is provided in an end portion of one axial side of the gasket body and is brought into close contact to one side surface of the mounting groove when mounted; and a second sealing lip which is provided in an end portion of another axial side of the gasket body and is brought into close contact to another side surface of the mounting groove when mounted, the gasket having a structure in which the gasket body is displaced to the one axial side within the mounting groove when pressure acts on the gasket because rigidity of the second sealing lip is set to be higher than rigidity of the first sealing lip or the reinforcing ring is disposed closer to the one axial side within the gasket body, wherein a seal bead which is brought into close contact to the bottom surface of the mounting groove when mounted is provided in the gasket body, a space portion surrounded by the second sealing lip, the seal bead, and the bottom surface and the another side surface of the mounting groove when mounted is provided, and the reinforcing ring is integrally provided with a flange portion radially outward in one end of a cylindrical portion.
Dishwashing machine having at least one pumping device for pumping dishwashing solution, wherein the pumping device has at least one pump with a brushless permanent magnet motor, wherein the pumping device has at least a first pump (5; 30) and a second pump (6; 30), each having a brushless permanent magnet motor, in particular a brushless direct current motor (brushless DC, BLDC), and a shared electronic controller is provided for the first and second pump of the pumping device and wherein the electronic controller comprises an electronic frequency converter for driving and supplying power to the pumping device, characterised in that the electronic controller is designed to detect the position of the rotor of the brushless permanent magnet motor, and to change the direction of rotation of the rotor on detecting an actual speed that differs from a target speed or from a target speed range.
An external door handle, in particular for vehicles, having a bow-shaped hand grip, which is hollow at least in some regions and has one or two grip hooks (20, 21), which are used to fasten the hand grip to the vehicle door, in the cavity of which electronic components can be accommodated, which have lines that can be connected to the electronic system of the vehicle, the hand grip having at least one approximately U-shaped grip shell, the chamber of which can be used to accommodate the electronic components, and a cover, which is used to close the opening in the grip shell, and the electronic components being cast in a watertight manner in the grip shell, characterised in that the lines are connected non-detachably to one of the grip hooks, in particular cast with it or encapsulated by it, and the lines are guided by means of said grip hook through the external door panel into the interior in order to allow contact there with the vehicle electronic system.
A long optical path gas monitor apparatus, which is open-typed and includes an optical generation part and a signal processing part, wherein said optical generation part comprises an emitter, a first planar reflection mirror installed in the optical path of the light ray emitted by said emitter, a first concave mirror installed in the optical path of the light ray reflected by said first planar reflection mirror, a second concave mirror installed in the optical path of the light ray reflected by said first concave mirror, a third concave mirror installed in the optical path of the light ray reflected by said second concave mirror, a fourth concave mirror installed in the optical path of the light ray reflected by said third concave mirror, and a receiver installed in the optical path of the light ray reflected by said fourth concave mirror; the signal processing part comprises sequentially connected an optical fiber, a spectrometer, a scanner, an optoelectronic detector and a computer, the input end of the optical fiber being connected to the receiver; the long optical path gas monitor further includes a position adjustment unit that comprises an optical support, a rotary mechanism and a dynamic device, wherein said optical generation part is installed on the optical support, and the rotary mechanism is connected to the optical support to make the optical support rotate, and the rotary mechanism is connected to the dynamic device so as to provide power to the rotary mechanism; and the optical generation part includes a first optical component which is composed of said first concave mirror and said third concave mirror, and a second optical component which is composed of said emitter, said second concave mirror, said fourth concave mirror and said receiver, wherein said first optical component and said second optical component are installed respectively at one of the two ends of the optical support, and the distance between said first optical component and said second optical component is in the range of 0.3 meter to 20 meters.
A method of producing a beer from a pressurized beer concentrate, comprising the steps of: unsealing a container, said container comprising a pressurized concentrated beer and a pressurized gas sealed in the container, wherein said concentrated beer is produced from a high-gravity beer having an original gravity of at least 1.070, and wherein the concentrated beer has a sugar content of 40 degrees Brix to 70 degrees Brix or an alcohol content of 50 ABV to 70 ABV; and diluting the pressurized beer concentrate with a liquid to produce a beer. unsealing a container, said container comprising a pressurized concentrated beer and a pressurized gas sealed in the container, wherein said concentrated beer is produced from a high-gravity beer having an original gravity of at least 1.070, and wherein the concentrated beer has a sugar content of 40 degrees Brix to 70 degrees Brix or an alcohol content of 50 ABV to 70 ABV; and diluting the pressurized beer concentrate with a liquid to produce a beer.
An airfoil comprising an airfoil body including a retention pocket and an airfoil piece disposed in the retention pocket, the retention pocket securing the airfoil piece in place, the airfoil piece defining a portion of an airfoil profile of an airfoil section of the airfoil body, characterized in that: the retention pocket includes an open window through which the airfoil piece is exposed.
An optical receiver for processing an optical receive signal (122a, 122b, 122c, 122d), the optical receiver comprising a fixed hardware circuit, and a processor; wherein the fixed hardware circuit is configured to implement a signal processing part for processing the optical receive signal (122a, 122b, 122c, 122d) by using a processing parameter from the processor, wherein a time domain equalizer and a frequency domain equalizer (333a, 333b, 437) are implemented by the fixed hardware circuit; and wherein the processor is configured to adaptively update the processing parameter, wherein the processor comprises a program interface for updating a computer program in order to fit different applications or performance requirements, the computer program implementing an adaptation of the processing parameter; and a package to integrate the signal processing part and the processor into one chip.
Waste gate component for a turbo charger comprising an alloy of the following composition: a) Ni 30 to 42 wt.-%, b) Cr 15 to 28 wt.-%, c) Co 1 to 5 wt.-%, d) Ti 1 to 4 wt.-%, e) optionally one or more elements selected from the group consisting of Mo, Al, Mn, W, Si and Nb, in particular one or more of elements in amounts as follows: Mo 0.5 to 4 wt.-%, Al 0.1 to 2 wt.-%, Mn 0.1 to 3 wt.-%, W 0.1 to 3 wt.-%, Si 0.5 to 4 wt.-%, and Nb 1 to 4 wt.-%, f) optionally other elements, in particular lanthanoids, boron and zirconium, in minor amounts which add up to a total amount of less than 2 wt.-%, g) Fe as balance, but at least in an amount of 20 wt.-%.
A non-pneumatic tire comprising a tread that comes in contact with the ground, a rim that is connected with an axle, and a spoke unit that functions as a structural support between the rim and the tread, wherein the spoke unit is formed in a meta structure in which unit structures are repeated, wherein each unit structure of the spoke unit has a tube shape having a cavity in the circumferential direction of the tire, wherein a cross-sectional shape of the cavity of the unit structure of the spoke unit has two longitudinal protrusions in a longitudinal direction between the rim and the tread and two transverse protrusions in a transverse direction perpendicular to the longitudinal direction, the non-pneumatic tire being characterized in that an inflection point is formed at a line connecting one of the longitudinal protrusions and one of the transverse protrusions of each of the unit structures. wherein each unit structure of the spoke unit has a tube shape having a cavity in the circumferential direction of the tire, wherein a cross-sectional shape of the cavity of the unit structure of the spoke unit has two longitudinal protrusions in a longitudinal direction between the rim and the tread and two transverse protrusions in a transverse direction perpendicular to the longitudinal direction, the non-pneumatic tire being characterized in that an inflection point is formed at a line connecting one of the longitudinal protrusions and one of the transverse protrusions of each of the unit structures.
A quantum communication system comprising an emitter (201, 301, 501, 701) and a receiver (203, 303, 503, 703) said emitter (201, 301, 501, 701) comprising encoding means (233, 333, 533, 733) and at least one photon source (207, 307, 506, 507, 606, 607, 707), said emitter (201, 301, 501, 701) being configured to pass a signal pulse and a reference pulse, which are separated in time, through said encoding means (233, 333, 533, 733) and output the signal pulse and the reference pulse, said reference pulse having a higher probability of containing more than one photon than said signal pulse, said receiver (203, 303, 503, 703) comprising decoding means (256, 356, 556, 756) and at least one detector (261, 263, 361, 362, 561, 563, 465, 461, 463, 561, 563, 761, 753) for measuring said signal pulse and said reference pulse, wherein the emitter (201, 301, 501, 701) is configured such that the signal pulse and the reference pulse follow the same optical path through the encoding means (233, 333, 533, 733) and the receiver (203, 303, 503, 703) is configured to measure the reference pulse and based on the measured reference pulse to determine phase drift in the quantum communication system and wherein a reference detector (261, 361, 465, 561, 761) is configured to determine phase drift in the quantum communication system by detecting variations in the count rate of the detected reference pulse, said at least one detector comprising said reference detector.
A system (800, 800', 800") for forming corneal implants, comprising: a first cutting apparatus (810, 810") configured to cut a donor cornea and form a portion (52, 52', 52", 54) of corneal tissue, wherein the donor cornea includes an anterior surface and a posterior surface, the first cutting apparatus configured to cut the donor cornea along an axis extending between the anterior surface and the posterior surface; and a second cutting apparatus (820, 820', 820") configured to form a plurality of lenticules from the portion (52, 52', 52", 54) of corneal tissue by making, to the portion (52, 52', 52", 54) of corneal tissue, a series of cuts transverse to the axis, wherein corneal tissue between consecutive cuts by the second cutting apparatus (820, 820', 820") provides a corresponding lenticule to be shaped for a corneal implant, a distance between the consecutive cuts defining a thickness for the corresponding lenticule, characterized in that: the system further comprises a temperature-regulated chamber configured to maintain the portion (52, 52', 52", 54) of corneal tissue at a low temperature for cutting of the portion of corneal tissue by the second cutting apparatus (820, 820', 820"). a first cutting apparatus (810, 810") configured to cut a donor cornea and form a portion (52, 52', 52", 54) of corneal tissue, wherein the donor cornea includes an anterior surface and a posterior surface, the first cutting apparatus configured to cut the donor cornea along an axis extending between the anterior surface and the posterior surface; and a second cutting apparatus (820, 820', 820") configured to form a plurality of lenticules from the portion (52, 52', 52", 54) of corneal tissue by making, to the portion (52, 52', 52", 54) of corneal tissue, a series of cuts transverse to the axis, wherein corneal tissue between consecutive cuts by the second cutting apparatus (820, 820', 820") provides a corresponding lenticule to be shaped for a corneal implant, a distance between the consecutive cuts defining a thickness for the corresponding lenticule, characterized in that: the system further comprises a temperature-regulated chamber configured to maintain the portion (52, 52', 52", 54) of corneal tissue at a low temperature for cutting of the portion of corneal tissue by the second cutting apparatus (820, 820', 820").
A stacking tab device usable with a media stacking system, the stacking tab device comprising: a connection member to connect to a media stacking system; a first tab member extending downward from the connection member to form a first angle (θ 1) therewith in a first direction, the first tab member to contact a media (m); and a second tab member extending downward from the connection member to form a second angle (θ 2) therewith in the first direction, wherein the second angle (θ 2) is less than the first angle (θ 1), and wherein the second tab member is to receive the media (m) from the first tab member and guide the media (m) to an output region; the stacking tab device characterized in that: the first tab member forms a first slanted surface having a first slope and the second tab member forms a second slanted surface having a second slope which is greater than the first slope with respect to a line normal to and downward from a planar connection surface of the connection member. a connection member to connect to a media stacking system; a first tab member extending downward from the connection member to form a first angle (θ 1) therewith in a first direction, the first tab member to contact a media (m); and a second tab member extending downward from the connection member to form a second angle (θ 2) therewith in the first direction, wherein the second angle (θ 2) is less than the first angle (θ 1), and wherein the second tab member is to receive the media (m) from the first tab member and guide the media (m) to an output region; the stacking tab device characterized in that: the first tab member forms a first slanted surface having a first slope and the second tab member forms a second slanted surface having a second slope which is greater than the first slope with respect to a line normal to and downward from a planar connection surface of the connection member.
An electronic mirror comprises a plurality of liquid crystal cells, wherein each of the plurality of liquid crystal cells is configured to be operated in a reflective mode in which external light is reflected and in a transmissive mode in which an electronic mirror function is activated and comprises: a first transparent electrode; a second transparent electrode; and a liquid crystal layer comprising liquid crystal molecules arranged between the first transparent electrode and the second transparent electrode, wherein the electronic mirror further comprises an AC voltage source configured to apply an alternating voltage across each liquid crystal layer of the plurality of liquid crystal cells between the respective first transparent electrode and second transparent electrode, wherein when the voltage is applied across the liquid crystal layers of the plurality of liquid crystal cells, the liquid crystal molecules in the liquid crystal layers change their orientation, and the electronic mirror is configured to apply a varying voltage across each liquid crystal layer of the plurality of liquid crystal cells which gradually decreases from outer areas towards the center of the respective liquid crystal layer such that, in the reflective mode, the refraction index of the respective liquid crystal layer gradually varies from outer areas towards the center of the respective liquid crystal layer so as to provide a magnification effect for images reflected by the cell in the reflective mode. a first transparent electrode; a second transparent electrode; and a liquid crystal layer comprising liquid crystal molecules arranged between the first transparent electrode and the second transparent electrode, wherein the electronic mirror further comprises an AC voltage source configured to apply an alternating voltage across each liquid crystal layer of the plurality of liquid crystal cells between the respective first transparent electrode and second transparent electrode, wherein when the voltage is applied across the liquid crystal layers of the plurality of liquid crystal cells, the liquid crystal molecules in the liquid crystal layers change their orientation, and the electronic mirror is configured to apply a varying voltage across each liquid crystal layer of the plurality of liquid crystal cells which gradually decreases from outer areas towards the center of the respective liquid crystal layer such that, in the reflective mode, the refraction index of the respective liquid crystal layer gradually varies from outer areas towards the center of the respective liquid crystal layer so as to provide a magnification effect for images reflected by the cell in the reflective mode.
Ship for long period stationing at sea, comprising a hull which extends along a longitudinal axis between a bow and a stern, characterised by the fact that the hull comprises at least one protuberance having a flattened shape which forms a shelf extending from the hull in the direction of the width of the ship, said protuberance being positioned at the bow or at the stern and extending in a longitudinal direction astride the bow or stern of the ship towards the midship, at least partially encompassing the fore or aft part of the hull on both sides (5, 6) with two separate branches (10a, 10b), each branch (10a, 10b) of the protuberance (10 having a predefined width in the direction of the width of the ship, wherein said width increases as it moves towards the bow or stern end, said protuberance being positioned in relation to the hull so as to always be below the waterline of the ship and posing resistance to the movements in vertical direction of the ship at sea generated by the swell, thus dampening the pitching and heaving movements.