mhurhangee/patent-ind-claim-en huggingface dataset:
A method of microwave-assisted, high-temperature, high-pressure chemistry comprising adding a microwave-absorbing liquid to an interstitial space between two coaxially aligned and nested microwave-transparent reaction vessels in which the inner nested vessel contains one or more reaction compositions, wherein the amount of microwave-absorbing liquid in the interstitial space is sufficient to generate a vapor pressure under microwave radiation that starts as being the same or greater than the vapor pressure of the reacting compositions under the same application of microwave radiation and that, at reaction temperatures, defines a pressure in the interstitial space that is greater than the vapor pressure of the reacting compositions in the inner nested vessel and bears against a sliding cap in the mouth of the inner nested vessel; and wherein the microwave-absorbing liquid does not otherwise interfere with the relevant compositions, starting materials, or end products, or with the reactions between or among them. wherein the amount of microwave-absorbing liquid in the interstitial space is sufficient to generate a vapor pressure under microwave radiation that starts as being the same or greater than the vapor pressure of the reacting compositions under the same application of microwave radiation and that, at reaction temperatures, defines a pressure in the interstitial space that is greater than the vapor pressure of the reacting compositions in the inner nested vessel and bears against a sliding cap in the mouth of the inner nested vessel; and wherein the microwave-absorbing liquid does not otherwise interfere with the relevant compositions, starting materials, or end products, or with the reactions between or among them.
A method of producing an aluminum alloy metal product, the method comprising; casting an aluminum alloy to form a cast aluminum alloy product, wherein the aluminum alloy comprises 0.25 - 1.1 wt. % Cu, 0.6 - 1.1 wt. % Si, 0.7 - 1.2 wt. % Mg, up to 0.25 wt. % Cr, up to 0.35 wt. % Mn, up to 0.4 wt. % Fe, up to 0.25 wt. % Zr, from 0.06 to 0.3 wt. % Zn, up to 0.30 wt. % Ti, up to 0.04 wt. % Ni, and up to 0.15 wt. % of impurities, with the remainder as Al; homogenizing the cast aluminum alloy product by heating to a temperature from 520°C to 580°C with a soaking time from 30 minutes to 18 hours; hot rolling the cast aluminum alloy product to produce a sheet, plate, or shate with a hot mill entry temperature of 440°C to 540°C and a hot roll exit temperature of 250°C to 380°C; solutionizing the sheet, plate, or shate at a temperature between 520 °C and 580 °C and then quenching at a quench rate from 50°C/s to 400°C/s; pre-aging the sheet, plate, or shate, wherein the pre-aging comprises heating the sheet, plate or shate to a pre-aging temperature of 115°C to 135°C after solutionizing and soaking at the pre-aging temperature for a period of time; and coiling the sheet, plate, or shate. casting an aluminum alloy to form a cast aluminum alloy product, wherein the aluminum alloy comprises 0.25 - 1.1 wt. % Cu, 0.6 - 1.1 wt. % Si, 0.7 - 1.2 wt. % Mg, up to 0.25 wt. % Cr, up to 0.35 wt. % Mn, up to 0.4 wt. % Fe, up to 0.25 wt. % Zr, from 0.06 to 0.3 wt. % Zn, up to 0.30 wt. % Ti, up to 0.04 wt. % Ni, and up to 0.15 wt. % of impurities, with the remainder as Al; homogenizing the cast aluminum alloy product by heating to a temperature from 520°C to 580°C with a soaking time from 30 minutes to 18 hours; hot rolling the cast aluminum alloy product to produce a sheet, plate, or shate with a hot mill entry temperature of 440°C to 540°C and a hot roll exit temperature of 250°C to 380°C; solutionizing the sheet, plate, or shate at a temperature between 520 °C and 580 °C and then quenching at a quench rate from 50°C/s to 400°C/s; pre-aging the sheet, plate, or shate, wherein the pre-aging comprises heating the sheet, plate or shate to a pre-aging temperature of 115°C to 135°C after solutionizing and soaking at the pre-aging temperature for a period of time; and coiling the sheet, plate, or shate.
An apparatus comprising: a dielectric substrate having a first area and a second area disposed around the first area; a first radiator 1030, 1040) disposed on a surface of the dielectric substrate , in the first area, the first radiator being configured to transmit and receive radio signals at an operational frequency; a first plurality of metamaterial structures disposed in a periodic pattern on the surface of the dielectric substrate in the second area and within a near field of the first radiator , wherein a maximum width of each of the first plurality of metamaterial structures is less than half of a wavelength of the operational frequency; and a second radiator and a second plurality of metamaterial structures disposed on a second plane within the dielectric substrate , the second radiator being disposed in the first area of the dielectric substrate under the first radiator , and the second plurality of metamaterial structures being disposed in the second area of the dielectric substrate under the first plurality of metamaterial structures ; wherein the first radiator and the first plurality of metamaterial structures are disposed on a first plane of the dielectric substrate , wherein each of the first plurality of metamaterial structures are electrically coupled to a metamaterial structure of the second plurality of metamaterial structures in an adjacent layer with two conducting vias to form a conductive loop structure. a dielectric substrate having a first area and a second area disposed around the first area; a first radiator 1030, 1040) disposed on a surface of the dielectric substrate , in the first area, the first radiator being configured to transmit and receive radio signals at an operational frequency; a first plurality of metamaterial structures disposed in a periodic pattern on the surface of the dielectric substrate in the second area and within a near field of the first radiator , wherein a maximum width of each of the first plurality of metamaterial structures is less than half of a wavelength of the operational frequency; and a second radiator and a second plurality of metamaterial structures disposed on a second plane within the dielectric substrate , the second radiator being disposed in the first area of the dielectric substrate under the first radiator , and the second plurality of metamaterial structures being disposed in the second area of the dielectric substrate under the first plurality of metamaterial structures ; wherein the first radiator and the first plurality of metamaterial structures are disposed on a first plane of the dielectric substrate , wherein each of the first plurality of metamaterial structures are electrically coupled to a metamaterial structure of the second plurality of metamaterial structures in an adjacent layer with two conducting vias to form a conductive loop structure.
A system, comprising: at least one processor and a memory; and a protocol detection engine (110A; 110B) configured to: identify a network logon protocol used in a pass-through authentication request by determining a size of a response embedded in the pass-through authentication request, wherein the pass-through authentication request is encrypted, and wherein the response represents a user's password, wherein the protocol detection engine (110A; 110B) is further configured to pair an event logged by a domain controller with an encrypted network packet received by the domain controller based on a time associated with the paired event and a time associated with the encrypted network packet being less than an allowed time differential and obtains data from the paired event to determine a size of the response embedded in the pass-through authentication request. at least one processor and a memory; and a protocol detection engine (110A; 110B) configured to: identify a network logon protocol used in a pass-through authentication request by determining a size of a response embedded in the pass-through authentication request, wherein the pass-through authentication request is encrypted, and wherein the response represents a user's password, wherein the protocol detection engine (110A; 110B) is further configured to pair an event logged by a domain controller with an encrypted network packet received by the domain controller based on a time associated with the paired event and a time associated with the encrypted network packet being less than an allowed time differential and obtains data from the paired event to determine a size of the response embedded in the pass-through authentication request. identify a network logon protocol used in a pass-through authentication request by determining a size of a response embedded in the pass-through authentication request, wherein the pass-through authentication request is encrypted, and wherein the response represents a user's password, wherein the protocol detection engine (110A; 110B) is further configured to pair an event logged by a domain controller with an encrypted network packet received by the domain controller based on a time associated with the paired event and a time associated with the encrypted network packet being less than an allowed time differential and obtains data from the paired event to determine a size of the response embedded in the pass-through authentication request.
A dishwasher comprising: a washing chamber to perform dishwashing; a water collecting portion provided at a lower portion of the washing chamber to gather water used for washing; and a sensing module which is disposed in the water collecting portion and integrally comprises a water sensing sensor to sense whether or not water is present and a temperature sensor to sense a temperature of water, wherein the water sensing sensor comprises a capacitive sensor. a washing chamber to perform dishwashing; a water collecting portion provided at a lower portion of the washing chamber to gather water used for washing; and a sensing module which is disposed in the water collecting portion and integrally comprises a water sensing sensor to sense whether or not water is present and a temperature sensor to sense a temperature of water, wherein the water sensing sensor comprises a capacitive sensor.
A connecting element, comprising a metal substrate having two opposite joining surfaces , wherein the joining surfaces are bearing hard particles , which are fixed on the metal substrate by means of a metallic binder layer , characterized in that at least one part of the metallic binder layer of at least one of the two opposite joining surfaces is coated with at least one layer of a coating material , wherein the coating material is a polymeric material.
A fluid storage and pressurizing assembly comprising: a storage receptacle having an inner vessel defining a cryogen space for storing fluid at a storage pressure and a cryogenic temperature, an outer vessel surrounding the inner vessel , and an insulated space between the inner vessel and the outer vessel, wherein the inner vessel and outer vessel each further comprise a sleeve, with the sleeve of the inner vessel extending into the cryogen space and the sleeve of the outer vessel extending within the sleeve of the inner vessel , and whereby the insulated space extends between the sleeve of the outer vessel and the sleeve of the inner vessel ; and a pump assembly comprising a pump disposed in a lower portion of the pump assembly and having an inlet disposed within the cryogen space for receiving a quantity of the fluid from the cryogen space , and an outlet for delivering the fluid therefrom; and a pump drive unit , for driving the pump , disposed in an upper portion of the pump assembly; wherein the lower portion of the pump assembly extends from the sleeve of the inner vessel into the cryogen space ; and the pump drive unit is at least partially disposed within the sleeve of the outer vessel . a storage receptacle having an inner vessel defining a cryogen space for storing fluid at a storage pressure and a cryogenic temperature, an outer vessel surrounding the inner vessel , and an insulated space between the inner vessel and the outer vessel, wherein the inner vessel and outer vessel each further comprise a sleeve, with the sleeve of the inner vessel extending into the cryogen space and the sleeve of the outer vessel extending within the sleeve of the inner vessel , and whereby the insulated space extends between the sleeve of the outer vessel and the sleeve of the inner vessel ; and a pump assembly comprising a pump disposed in a lower portion of the pump assembly and having an inlet disposed within the cryogen space for receiving a quantity of the fluid from the cryogen space , and an outlet for delivering the fluid therefrom; and a pump drive unit , for driving the pump , disposed in an upper portion of the pump assembly; wherein the lower portion of the pump assembly extends from the sleeve of the inner vessel into the cryogen space ; and the pump drive unit is at least partially disposed within the sleeve of the outer vessel .
A composite molding composition which is obtained by molding a fibroin-derived protein blended with a polyalanine having a β-sheet structure.
Connection system for a medical fluid line system having a connection unit with a connection body , which has a distally arranged Luer outer cone and a through-channel extending coaxially with respect to the Luer outer cone , and an attachment unit with an attachment body which has a proximally arranged Luer inner cone , connected releasably and in a fluid-tight manner to the Luer outer cone of the connection unit , a proximally arranged external thread which is coaxial with respect to the Luer inner cone and is suitable for connection to an internal thread of a Luer lock connector , and a lumen which extends coaxially with respect to the Luer inner cone and which is releasably connected in a fluid-conducting manner to the through-channel by means of the connection of the Luer cones , characterized in that a releasable locking connection is provided between at least one locking element arranged on the connection body and at least one complementary counter-locking element arranged on the attachment body , wherein the locking connection is designed in such a way as to counteract an unintentional release of the connection of the Luer cones , and wherein the counter-locking element and the external thread are designed and arranged in such a way that the attachment unit , in a state when separate from the connection unit , is connectable by means of a screw connection (S) between the external thread and the internal thread of the Luer lock connector , wherein the counter-locking element is adjacent to a distal end region of the external thread and is radially set back relative to a diameter of the external thread .
Method for coupling a rotating device, in particular a steam turbine , and a shaft device, in particular a gas turbine , having the following steps: - Detecting a differential angle between the shaft device and rotating device ; - Detecting a differential speed between the shaft device and rotating device ; characterized by the following steps: - Predicting a coupling angle at which the rotating device and shaft device would be coupled if the rotating device were accelerated with a known acceleration up to the start of the coupling process; - Comparing the predicted coupling angle with a target coupling angle and calculating therefrom a setpoint acceleration in such a way that the predicted coupling angle corresponds to the target coupling angle . - Detecting a differential angle between the shaft device and rotating device ; - Detecting a differential speed between the shaft device and rotating device ; - Predicting a coupling angle at which the rotating device and shaft device would be coupled if the rotating device were accelerated with a known acceleration up to the start of the coupling process; - Comparing the predicted coupling angle with a target coupling angle and calculating therefrom a setpoint acceleration in such a way that the predicted coupling angle corresponds to the target coupling angle .
An electrode structure for electronic muscle stimulation (EMS) , characterized by comprising: a conductive fabric layer having a first surface and a second surface opposite to each other; a water retention fabric layer connected to the first surface of the conductive fabric layer , wherein a plurality of EMS points (P) of the electrode structure are consisted of the water retention fabric layer ; and a dielectric protection layer disposed on the first surface of the conductive fabric layer and surrounding a peripheral of the water retention fabric layer . a conductive fabric layer having a first surface and a second surface opposite to each other; a water retention fabric layer connected to the first surface of the conductive fabric layer , wherein a plurality of EMS points (P) of the electrode structure are consisted of the water retention fabric layer ; and a dielectric protection layer disposed on the first surface of the conductive fabric layer and surrounding a peripheral of the water retention fabric layer .
A sleeve insertion assembly , comprising: a sleeve inserter defining an inner chamber and having a distal end and a proximal end opposite the distal end ; a sleeve receivable within the inner chamber ; and a blade guard receivable within the sleeve and having a cylindrical body that defines an interior and an open end , wherein the open end is sized to receive jaw members of an end effector into the interior but prevent the end effector from entering the interior, and wherein the blade guard is configured to prevent the jaw members from contacting the inner wall of the sleeve during installation of the sleeve on the end effector , and wherein the blade guard is forced out of the sleeve when the sleeve is installed on the end effector . a sleeve inserter defining an inner chamber and having a distal end and a proximal end opposite the distal end ; a sleeve receivable within the inner chamber ; and a blade guard receivable within the sleeve and having a cylindrical body that defines an interior and an open end , wherein the open end is sized to receive jaw members of an end effector into the interior but prevent the end effector from entering the interior, and wherein the blade guard is configured to prevent the jaw members from contacting the inner wall of the sleeve during installation of the sleeve on the end effector , and wherein the blade guard is forced out of the sleeve when the sleeve is installed on the end effector .
A method for unmanned vehicle cruising, which is applied to an unmanned vehicle, wherein the unmanned vehicle comprises a working mode and a slow cruising mode, and the method comprises: starting a slow cruising function during non-working hours; in a state that the slow cruising function is started, cruising (S101) according to a preset slow cruising mode, and collecting running data through a sensing device, wherein the running data is data of an environment in which the unmanned vehicle locates, collected by the unmanned vehicle during a running process; and generating (S 102) a map based on the running data, wherein the method further comprises: determining (S103) an operating mode of the unmanned vehicle according to the running data, wherein the operating mode comprises the working mode and location information; the working mode refers to a mode for the unmanned vehicle to run during working hours; and the location information comprises a location for performing work content or a start location and an end location of the unmanned vehicle. starting a slow cruising function during non-working hours; in a state that the slow cruising function is started, cruising (S101) according to a preset slow cruising mode, and collecting running data through a sensing device, wherein the running data is data of an environment in which the unmanned vehicle locates, collected by the unmanned vehicle during a running process; and generating (S 102) a map based on the running data, wherein the method further comprises: determining (S103) an operating mode of the unmanned vehicle according to the running data, wherein the operating mode comprises the working mode and location information; the working mode refers to a mode for the unmanned vehicle to run during working hours; and the location information comprises a location for performing work content or a start location and an end location of the unmanned vehicle.
A multi-aperture imaging device comprising: an array of optical channels (16a-h), wherein each optical channel (16a-h) comprises optics (64a-h) for imaging a partial field of view (72a-d) of a total field of view onto an image sensor region (24a-h) of an image sensor ; beam-deflecting means for deflecting an optical path (26a-h) of the optical channels (16a-h) to a viewing direction (27 1 or 27 2 ) of the multi-aperture imaging device; and a diaphragm structure (22; 22') arranged to at least partly close a gap (29 1 , 29 2 ) between the array and the beam-deflecting means ; wherein the array comprises, arranged at a distance to the beam-deflecting means , a carrier for holding the optics (64a-h), a housing of the array or a transparent structure configured to at least partly reduce the entrance of particles to the beam-deflecting means , the distance forming the gap (29 1 , 29 2 ); and wherein the diaphragm structure (22; 22') closes the gap by mechanical contact with the carrier , the housing or the transparent structure on the one hand and the beam-deflecting means on the other hand. an array of optical channels (16a-h), wherein each optical channel (16a-h) comprises optics (64a-h) for imaging a partial field of view (72a-d) of a total field of view onto an image sensor region (24a-h) of an image sensor ; beam-deflecting means for deflecting an optical path (26a-h) of the optical channels (16a-h) to a viewing direction (27 1 or 27 2 ) of the multi-aperture imaging device; and a diaphragm structure (22; 22') arranged to at least partly close a gap (29 1 , 29 2 ) between the array and the beam-deflecting means ; wherein the array comprises, arranged at a distance to the beam-deflecting means , a carrier for holding the optics (64a-h), a housing of the array or a transparent structure configured to at least partly reduce the entrance of particles to the beam-deflecting means , the distance forming the gap (29 1 , 29 2 ); and wherein the diaphragm structure (22; 22') closes the gap by mechanical contact with the carrier , the housing or the transparent structure on the one hand and the beam-deflecting means on the other hand.