mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid manifold comprising a body , wherein the body comprises: a proximal end ; a distal end ; a primary manifold component extending from the proximal end of the body to the distal end of the body and enclosing a primary channel ; at least one auxiliary manifold component diverging from the primary manifold component and enclosing an auxiliary channel connected to the primary channel at a primary channel exit port ; and at least one compression valve region disposed along the body that is operable between an open position and a closed position such that when in the closed position fluid flow is restricted from at least one of flowing through the primary channel and flowing out of the primary channel and into the auxiliary channel; characterized in that an average thickness AT CVR of the compression valve region is not greater than 0.9 the average thickness AT PMC of the primary manifold component , wherein the fluid manifold is encased by a reinforcement shell. a proximal end ; a distal end ; a primary manifold component extending from the proximal end of the body to the distal end of the body and enclosing a primary channel ; at least one auxiliary manifold component diverging from the primary manifold component and enclosing an auxiliary channel connected to the primary channel at a primary channel exit port ; and at least one compression valve region disposed along the body that is operable between an open position and a closed position such that when in the closed position fluid flow is restricted from at least one of flowing through the primary channel and flowing out of the primary channel and into the auxiliary channel; characterized in that an average thickness AT CVR of the compression valve region is not greater than 0.9 the average thickness AT PMC of the primary manifold component , wherein the fluid manifold is encased by a reinforcement shell.
A method for wireless communication, the method being performed by a user equipment, UE, and comprising receiving , from a base station , a downlink control message that comprises a grant for communication with the base station and an indication of which component carrier to use for transmission of uplink control information, UCI, on a shared channel, wherein the downlink control message comprises scheduling information for an uplink shared channel transmission on a first component carrier, and wherein the indication indicates a second component carrier different from the first component carrier; determining a set of uplink channel resources on the first or second component carrier for transmission of the UCI based at least in part on the indication received in the downlink control message and a channel configuration of the UE; and transmitting , to the base station, an uplink message that comprises the UCI via the determined component carrier based at least in part on the determined set of uplink channel resources. receiving , from a base station , a downlink control message that comprises a grant for communication with the base station and an indication of which component carrier to use for transmission of uplink control information, UCI, on a shared channel, wherein the downlink control message comprises scheduling information for an uplink shared channel transmission on a first component carrier, and wherein the indication indicates a second component carrier different from the first component carrier; determining a set of uplink channel resources on the first or second component carrier for transmission of the UCI based at least in part on the indication received in the downlink control message and a channel configuration of the UE; and transmitting , to the base station, an uplink message that comprises the UCI via the determined component carrier based at least in part on the determined set of uplink channel resources.
A heat treatment container (240; 340) for a vacuum heat treatment apparatus, the heat treatment container comprising: a bottom; a sidewall, a plurality of upper exhaust passages (242; 342) defined in an uppermost portion of the sidewall, and a plurality of lower exhaust passages (244; 344) defined in a lower portion of the sidewall, wherein a porous member (26; 36) is disposed inside the heat treatment container, (240; 340), wherein the porous member (26; 36) is disposed at a lower portion of the heat treatment container, wherein the porous member (26; 36) is disposed to block the lower exhaust passage, wherein the porous member is configured to block the lower exhaust passages such that raw material within the heat treatment container is inhibited from leaking, wherein a height of the porous member (26; 36) is equal to or larger than heights of the lower exhaust passages (244; 344). a bottom; a sidewall, a plurality of upper exhaust passages (242; 342) defined in an uppermost portion of the sidewall, and a plurality of lower exhaust passages (244; 344) defined in a lower portion of the sidewall, wherein a porous member (26; 36) is disposed inside the heat treatment container, (240; 340), wherein the porous member (26; 36) is disposed at a lower portion of the heat treatment container, wherein the porous member (26; 36) is disposed to block the lower exhaust passage, wherein the porous member is configured to block the lower exhaust passages such that raw material within the heat treatment container is inhibited from leaking, wherein a height of the porous member (26; 36) is equal to or larger than heights of the lower exhaust passages (244; 344).
A method for determining SARS-CoV-2 coronavirus from a sample, the method comprising a) providing i. a solution comprising ∘ one or more components adapted to neutralize the coronavirus, ∘ one of more components adapted to expose glycoproteins of the coronavirus, ii. a conjugate comprising ∘ a first lectin adapted to bind the glycoproteins, wherein the binding is selective, ∘ a signal generation means , and iii. a probe comprising a detection zone comprising an immobilized second lectin adapted to bind the glycoproteins, wherein the binding is selective, b) immersing the sample to the solution, c) exposing the conjugate to the solution comprising the sample, d) exposing the detection zone to the solution comprising the sample and the conjugate, e) preferably removing unbound material from the detection zone, f) detecting signal derived from the signal generation means on the detection zone, and g) determining the SARS-CoV-2 coronavirus in the sample based on the detecting, characterized in that the first lectin and the second lectin is selected from O-glycan binding lectins. a) providing i. a solution comprising ∘ one or more components adapted to neutralize the coronavirus, ∘ one of more components adapted to expose glycoproteins of the coronavirus, ii. a conjugate comprising ∘ a first lectin adapted to bind the glycoproteins, wherein the binding is selective, ∘ a signal generation means , and iii. a probe comprising a detection zone comprising an immobilized second lectin adapted to bind the glycoproteins, wherein the binding is selective, i. a solution comprising ∘ one or more components adapted to neutralize the coronavirus, ∘ one of more components adapted to expose glycoproteins of the coronavirus, ∘ one or more components adapted to neutralize the coronavirus, ∘ one of more components adapted to expose glycoproteins of the coronavirus, ii. a conjugate comprising ∘ a first lectin adapted to bind the glycoproteins, wherein the binding is selective, ∘ a signal generation means , and ∘ a first lectin adapted to bind the glycoproteins, wherein the binding is selective, ∘ a signal generation means , and iii. a probe comprising a detection zone comprising an immobilized second lectin adapted to bind the glycoproteins, wherein the binding is selective, b) immersing the sample to the solution, c) exposing the conjugate to the solution comprising the sample, d) exposing the detection zone to the solution comprising the sample and the conjugate, e) preferably removing unbound material from the detection zone, f) detecting signal derived from the signal generation means on the detection zone, and g) determining the SARS-CoV-2 coronavirus in the sample based on the detecting, characterized in that the first lectin and the second lectin is selected from O-glycan binding lectins.
A method of additive manufacturing of a three-dimensional object , comprising sequentially forming a plurality of layers each patterned according to the shape of a cross section of the object , thereby forming the object ; wherein for at least one of said plurality of layers , said formation of said layer comprises operating a first dispensing head (21a-d) having an array of nozzles to perform a raster scan while dispensing at least a first building material composition by inkjet technology, and operating a second dispensing head to perform a vector scan while dispensing at least a second building material composition, wherein a conductivity at room temperature of said first building material composition is less than 1 S/m, and a conductivity at room temperature of said second building material composition is at least 1 S/m; wherein said vector scan is at least partially simultaneous with said raster scan; and wherein said vector scan is along a path selected to form at least one structure selected from the group consisting of (i) an elongated structure, (ii) a boundary structure at least partially surrounding an area filled with said first building material, and (iii) an inter-layer connecting structure.
Steering column for a motor vehicle, having a supporting unit that is attachable to a vehicle body and holds an actuating unit in which a steering spindle is rotatably mounted, and having an adjusting drive which is arranged between the supporting unit and the actuating unit and with which the actuating unit is adjustable relative to the supporting unit , wherein the adjusting drive has a threaded spindle that engages in a spindle nut and has an external thread , wherein a stop body is fastened to the external thread of the threaded spindle to limit a movement of the spindle nut in the direction of the spindle axis (S), said stop body surrounding a threaded portion of the threaded spindle , wherein the stop body has at least one partial plastic deformation , wherein the plastic deformation is firmly connected to the external thread of the threaded spindle , characterized in that the deformation is formed by a reshaping or recess introduced into the stop body from the outside.
A method of cleaning a jet pump assembly of a nuclear reactor, comprising: evacuating an interior of the jet pump assembly that is filled with a first liquid by injecting a gas to purge the first liquid from the interior to provide an evacuated surface; and directing a jet of a second liquid onto the evacuated surface. evacuating an interior of the jet pump assembly that is filled with a first liquid by injecting a gas to purge the first liquid from the interior to provide an evacuated surface; and directing a jet of a second liquid onto the evacuated surface.
A Raman microscope and electron microscope analytical system comprising a vacuum chamber , a chamber stage to support a sample in the vacuum chamber , an electron microscope having an electron microscope optical axis for producing an electron beam and directing it to the sample and a Raman microscope that comprises a spectroscopy system , a scattered light detector , an illumination source , a light beam forming optics and an optical objective lens having a Raman microscope optical axis , an optical objective lens is configured to focus a received light beam at the sample so as to create a light spot at the sample and induce scattered light , wherein the optical objective lens is connected to an optical objective lens manipulator that is configured to move the optical objective lens in at least two dimensions, a first direction along the Raman microscope optical axis and a second direction in a plane perpendicular to the Raman microscope optical axis , characterized in that the optical objective lens manipulator is configured to move the optical lens and to scan a specific two dimensional sample area by the light spot of the light beam .
A communication system , comprising: multiple Point-of-Presence (POP) interfaces , which are distributed in a Wide-Area Network (WAN - 36) and are configured to communicate with at least a client and a server connected to the WAN; and one or more processors , which are coupled to the POP interfaces and are configured to: assign respective Internet Protocol (IP) addresses to the client and to the server, including embedding state information in the assigned IP addresses, the embedded state information comprising a routing path specified as a list of the POP interfaces to be traversed by the traffic between the client and the server; and route traffic over the WAN between the client and the server, in a stateless manner, based on the state information embedded in the IP addresses. multiple Point-of-Presence (POP) interfaces , which are distributed in a Wide-Area Network (WAN - 36) and are configured to communicate with at least a client and a server connected to the WAN; and one or more processors , which are coupled to the POP interfaces and are configured to: assign respective Internet Protocol (IP) addresses to the client and to the server, including embedding state information in the assigned IP addresses, the embedded state information comprising a routing path specified as a list of the POP interfaces to be traversed by the traffic between the client and the server; and route traffic over the WAN between the client and the server, in a stateless manner, based on the state information embedded in the IP addresses.
A process for producing a silyl phosphine compound, comprising: a first step of mixing a solvent having a relative dielectric constant of not more than 4, a basic compound, a silylating agent and phosphine to obtain a solution containing a silyl phosphine compound; a second step of removing the solvent from the solution containing a silyl phosphine compound to obtain a concentrated solution of a silyl phosphine compound; and a third step of distilling the concentrated solution of a silyl phosphine compound to obtain the silyl phosphine compound, wherein the solvent is one or two or more selected from pentane, n-hexane, n-heptane, n-octane, cyclohexane, benzene, toluene and p-xylene. a first step of mixing a solvent having a relative dielectric constant of not more than 4, a basic compound, a silylating agent and phosphine to obtain a solution containing a silyl phosphine compound; a second step of removing the solvent from the solution containing a silyl phosphine compound to obtain a concentrated solution of a silyl phosphine compound; and a third step of distilling the concentrated solution of a silyl phosphine compound to obtain the silyl phosphine compound, wherein the solvent is one or two or more selected from pentane, n-hexane, n-heptane, n-octane, cyclohexane, benzene, toluene and p-xylene.
A driving unit installed in a cleaning robot to drive the cleaning robot, the driving unit comprising: a driving wheel ; a wheel frame to support the driving wheel to be rotatable; an elastic member to pressurize the wheel frame; a first driving motor to generate driving power for rotating the driving wheel; and a second driving motor to generate driving power for rotating the wheel frame, characterized in that a motor shaft of the first driving motor and a motor shaft of the second driving motor are parallel to each other. a driving wheel ; a wheel frame to support the driving wheel to be rotatable; an elastic member to pressurize the wheel frame; a first driving motor to generate driving power for rotating the driving wheel; and a second driving motor to generate driving power for rotating the wheel frame, characterized in that a motor shaft of the first driving motor and a motor shaft of the second driving motor are parallel to each other.
An acoustic device comprising: an audio recording playback unit configured to record and play back string independent acoustic signals for each string independent acoustic signal, the string independent acoustic signals respectively corresponding to different strings of a stringed instrument and being independent from each other; an analysis unit configured to analyze at least one string independent acoustic signal from among the recorded string independent acoustic signals; and an acoustic effect imparting unit configured to impart an acoustic effect to the at least one string independent acoustic signal for each string independent acoustic signal, based on a result of the analysis by the analysis unit , characterized in that the acoustic device further comprises a string acoustic signal write unit configured to impart, to each of the string independent acoustic signals, an identification number for specifying from which of the strings the string independent acoustic signal has been acquired, and impart, for each recoding, a unique recording identification number to each of the string independent acoustic signals. an audio recording playback unit configured to record and play back string independent acoustic signals for each string independent acoustic signal, the string independent acoustic signals respectively corresponding to different strings of a stringed instrument and being independent from each other; an analysis unit configured to analyze at least one string independent acoustic signal from among the recorded string independent acoustic signals; and an acoustic effect imparting unit configured to impart an acoustic effect to the at least one string independent acoustic signal for each string independent acoustic signal, based on a result of the analysis by the analysis unit , characterized in that the acoustic device further comprises a string acoustic signal write unit configured to impart, to each of the string independent acoustic signals, an identification number for specifying from which of the strings the string independent acoustic signal has been acquired, and impart, for each recoding, a unique recording identification number to each of the string independent acoustic signals.
A sorbent cartridge , comprising: a urease introducer for facilitating replenishment of urease to the sorbent cartridge; and at least one sorbent material, characterised in that the urease introducer is any one of a slideable tray and a door . a urease introducer for facilitating replenishment of urease to the sorbent cartridge; and at least one sorbent material, characterised in that the urease introducer is any one of a slideable tray and a door .
An aircraft control system enabling automatic takeoff or landing, denoted by "ATOL", of an aircraft, the system is characterized in that : an aircraft control station configured to communicate over a beyond line of sight, denoted by "BLOS", communication link with the aircraft; a takeoff and landing support, denoted by "TLS", unit , being physically separated from the aircraft control station, and configured to communicate over a line of sight (denoted by "LOS") communication link with the aircraft; an ATOL subsystem mountable on an aircraft and configured to execute automatic takeoff or landing, denoted by "TOL", wherein during takeoff or landing: the aircraft control station is configured to provide, over the BLOS communication link, navigation instructions allowing the ATOL subsystem onboard the aircraft to control the aircraft during TOL; the TLS unit is configured to provide to the ATOL subsystem onboard the aircraft , over the LOS communication link, DGPS positioning data; the ATOL subsystem is configured to integrate the DGPS positioning data with native positioning data acquired by an onboard GPS device to thereby generate augmented positioning data; and generate instructions for controlling the aircraft during TOL, based on the augmented positioning data and the navigation instructions. an aircraft control station configured to communicate over a beyond line of sight, denoted by "BLOS", communication link with the aircraft; a takeoff and landing support, denoted by "TLS", unit , being physically separated from the aircraft control station, and configured to communicate over a line of sight (denoted by "LOS") communication link with the aircraft; an ATOL subsystem mountable on an aircraft and configured to execute automatic takeoff or landing, denoted by "TOL", wherein during takeoff or landing: the aircraft control station is configured to provide, over the BLOS communication link, navigation instructions allowing the ATOL subsystem onboard the aircraft to control the aircraft during TOL; the TLS unit is configured to provide to the ATOL subsystem onboard the aircraft , over the LOS communication link, DGPS positioning data; the ATOL subsystem is configured to integrate the DGPS positioning data with native positioning data acquired by an onboard GPS device to thereby generate augmented positioning data; and generate instructions for controlling the aircraft during TOL, based on the augmented positioning data and the navigation instructions. the aircraft control station is configured to provide, over the BLOS communication link, navigation instructions allowing the ATOL subsystem onboard the aircraft to control the aircraft during TOL; the TLS unit is configured to provide to the ATOL subsystem onboard the aircraft , over the LOS communication link, DGPS positioning data; the ATOL subsystem is configured to integrate the DGPS positioning data with native positioning data acquired by an onboard GPS device to thereby generate augmented positioning data; and generate instructions for controlling the aircraft during TOL, based on the augmented positioning data and the navigation instructions.
A method for digital processing diffraction patterns including the following steps, from a series of diffraction patterns obtained by scanning a given area of a sample by a probe, the diffraction patterns including a central disk being the disk which has the highest intensity, and at least one main portion, designating diffracted disks for a monocrystalline or polycrystalline material and rings for an amorphous material, a) detecting the position of the central disk on each diffraction pattern, b) detecting the at least one main portion on each diffraction pattern, c) applying a digital mask on each diffraction pattern, removing on each diffraction pattern the pixels corresponding to the central disc and to the at least one main portion so as to maintain only the diffuse background, said digital mask being produced from the detections of steps a) and b), d) for at least one portion of the pixels of the diffuse background, summing the intensities extracted from all diffraction patterns of the portion of the pixels of the diffuse background on all diffraction patterns, and obtaining at least one reconstructed image of said given area. a) detecting the position of the central disk on each diffraction pattern, b) detecting the at least one main portion on each diffraction pattern, c) applying a digital mask on each diffraction pattern, removing on each diffraction pattern the pixels corresponding to the central disc and to the at least one main portion so as to maintain only the diffuse background, said digital mask being produced from the detections of steps a) and b), d) for at least one portion of the pixels of the diffuse background, summing the intensities extracted from all diffraction patterns of the portion of the pixels of the diffuse background on all diffraction patterns, and obtaining at least one reconstructed image of said given area.
A chromium-free metallic coating precursor comprising at least 54% by weight of at least one base metal selected from the group consisting of iron, nickel, cobalt, lead, zinc, copper, tin, and aluminum, said coating precursor always comprising at least 1% by weight of aluminum, between 1% and 15% by weight of silicon, between 1% and 15% by weight of titanium, and between 1% and 15% by weight of boron.