mhurhangee/ep-ind-claims huggingface dataset:
A method for providing in-order delivery of data packets during handoff in a communication network, comprising: receiving data packets at a target network entity (230, 420); buffering, at the target network entity (230, 420), the data packets; receiving, at the target network entity (230, 420), an indication signal from a source network entity (220, 410) that the source network entity has completed sending all of the data packets; prioritizing a transmission order of data packets at the target network entity (230, 420) in response to the indication signal from the source network entity (220, 410), wherein the prioritizing comprises at least a first prioritization, wherein the first prioritization comprises prioritizing Layer 2, L2, data packets received from a source network entity (220, 410) and destined for transmission to an Access Terminal, AT (116, 122, 210), over any received Layer 3, L 3, data packets destined for the AT (116, 122, 210); and transmitting, at the target network entity (230, 420), the received data packets according to at least the first prioritization. receiving data packets at a target network entity (230, 420); buffering, at the target network entity (230, 420), the data packets; receiving, at the target network entity (230, 420), an indication signal from a source network entity (220, 410) that the source network entity has completed sending all of the data packets; prioritizing a transmission order of data packets at the target network entity (230, 420) in response to the indication signal from the source network entity (220, 410), wherein the prioritizing comprises at least a first prioritization, wherein the first prioritization comprises prioritizing Layer 2, L2, data packets received from a source network entity (220, 410) and destined for transmission to an Access Terminal, AT (116, 122, 210), over any received Layer 3, L 3, data packets destined for the AT (116, 122, 210); and transmitting, at the target network entity (230, 420), the received data packets according to at least the first prioritization.
Compounds of formula wherein X 1 is selected from -NH-(CH 2) 2 -NH-; and R 1 is a radical of formula wherein R 5 and R 6 independently from each other are hydrogen; or C 1 -C 5 alkyl; R 2 and R 3 are hydrogen; R 4 is hydrogen; X 2 is O, or NH; W 1 is C 1 -C 20 alkyl; or a group Sp-Sil; Sp is a straight-chain or branched saturated or single or multiple unsaturated C 3 -C 12 hydrocarbon; Sil is the group SiR 10 R 11 R 12, wherein R 10, R 11 and R 12 each independently are C 1 -C 6 alkyl; C 1 -C 6 alkoxy; or phenyl; or an oligosiloxane of formula -SiMe m (OSiMe 3) n; or an oligosiloxane of the formulae or wherein Me is methyl; m is 0; 1; or 2; n is 1; 2; or 3; m + n are 3; and u is 0 to 6; R 5 and R 6 independently from each other are hydrogen; or C 1 -C 5 alkyl; R 2 and R 3 are hydrogen; R 4 is hydrogen; X 2 is O, or NH; W 1 is C 1 -C 20 alkyl; or a group Sp-Sil; Sp is a straight-chain or branched saturated or single or multiple unsaturated C 3 -C 12 hydrocarbon; Sil is the group SiR 10 R 11 R 12, wherein R 10, R 11 and R 12 each independently are C 1 -C 6 alkyl; C 1 -C 6 alkoxy; or phenyl; or an oligosiloxane of formula -SiMe m (OSiMe 3) n; or an oligosiloxane of the formulae Me is methyl; m is 0; 1; or 2; n is 1; 2; or 3; m + n are 3; and u is 0 to 6;
A system for enhancing authentication security, the system comprising: an authentication system; a client; and a mediator, adapted to receive traffic from the client and from the authentication system, the mediator to: accept relatively simple original authentication credentials from the client; process said original authentication credentials to provide processed authentication credentials that are strong relative to the original authentication credentials, the processing including encrypting at least a portion of said original authentication credentials using information that is only available to the mediator such that the encrypted portion is only decryptable by the mediator; and forward the processed authentication credentials to the authentication system instead of the original authentication credentials for validating the processed authentication credentials against processed authentication credentials registered to the client. an authentication system; a client; and a mediator, adapted to receive traffic from the client and from the authentication system, the mediator to: accept relatively simple original authentication credentials from the client; process said original authentication credentials to provide processed authentication credentials that are strong relative to the original authentication credentials, the processing including encrypting at least a portion of said original authentication credentials using information that is only available to the mediator such that the encrypted portion is only decryptable by the mediator; and forward the processed authentication credentials to the authentication system instead of the original authentication credentials for validating the processed authentication credentials against processed authentication credentials registered to the client. accept relatively simple original authentication credentials from the client; process said original authentication credentials to provide processed authentication credentials that are strong relative to the original authentication credentials, the processing including encrypting at least a portion of said original authentication credentials using information that is only available to the mediator such that the encrypted portion is only decryptable by the mediator; and forward the processed authentication credentials to the authentication system instead of the original authentication credentials for validating the processed authentication credentials against processed authentication credentials registered to the client.
An apparatus to treat tissue at a surgical site of a patient, the apparatus comprising: an elongate carrier comprising a nozzle configured to emit a fluid stream; and a probe configured for insertion into a patient, the probe comprising an evacuation lumen to remove material from the surgical site, the evacuation lumen extending to an opening; characterised in that the carrier is configured to rotate the nozzle toward the opening to direct the fluid stream toward the opening of the evacuation lumen, and in that the carrier is configured to rotate the nozzle away from the opening of the evacuation lumen to resect tissue. an elongate carrier comprising a nozzle configured to emit a fluid stream; and a probe configured for insertion into a patient, the probe comprising an evacuation lumen to remove material from the surgical site, the evacuation lumen extending to an opening; characterised in that the carrier is configured to rotate the nozzle toward the opening to direct the fluid stream toward the opening of the evacuation lumen, and in that the carrier is configured to rotate the nozzle away from the opening of the evacuation lumen to resect tissue.
A method to determine position of a sucker rod pumping system, the pumping system including a rod string carrying a down hole pump, a variable drive coupled to the rod string for reciprocating the rod string within a wellbore and operating the pump, and a crank arm with a counterweight coupled to a main beam with a pitman arm and motor, with the motor coupled to a controller, characterised in that the sucker rod pumping system is without a position sensing device during production pumping, and that the method comprises: performing an initial commissioning procedure to determine (8, 9) a rxless torque signal at toggle points of the crank arm during an initial non-production pumping cycle, each toggle point corresponding to a respective position of the crank arm, the rxless torque signal being crank torque decoupled from the effects of rotary inertia and rotary friction; measuring (D, E) the rxless torque signal; storing the rxless torque signal in a database coupled to the controller; continuously sampling the rxless torque; determining crank arm position in relation to the sampled rxless torque; comparing, (G, H, L, M) with the controller, the sampled rxless torque to the stored rxless torque signal; determining two of the sampled rxless torque signals that correspond to the stored rxless torque signals spaced by the crank arm toggle points; and adjusting, with the controller, the pumping system for optimal operation of the pumping system without a crank arm position sensor during production pumping by identifying a toggle point and setting (I, N) the crank arm position estimate equal to the value corresponding to the crank position at that toggle point. performing an initial commissioning procedure to determine (8, 9) a rxless torque signal at toggle points of the crank arm during an initial non-production pumping cycle, each toggle point corresponding to a respective position of the crank arm, the rxless torque signal being crank torque decoupled from the effects of rotary inertia and rotary friction; measuring (D, E) the rxless torque signal; storing the rxless torque signal in a database coupled to the controller; continuously sampling the rxless torque; determining crank arm position in relation to the sampled rxless torque; comparing, (G, H, L, M) with the controller, the sampled rxless torque to the stored rxless torque signal; determining two of the sampled rxless torque signals that correspond to the stored rxless torque signals spaced by the crank arm toggle points; and adjusting, with the controller, the pumping system for optimal operation of the pumping system without a crank arm position sensor during production pumping by identifying a toggle point and setting (I, N) the crank arm position estimate equal to the value corresponding to the crank position at that toggle point.
Grass trimmer driven by an electric motor with a cutting head with cutting blades, which is adjustable in relation to a handle part about a pivot axis, in which the pivot axis runs transverse to the direction of operation and parallel to the plane in which the cutting blades are arranged, characterised in that, removable guide wheels are arranged on the cutting head.
A height difference detecting method comprising: irradiating a light irradiation surface of a substrate, said light irradiation surface having a concave and convex shape, with laser light collected by a lens; separating, using a geometrical beam separator (14; 14a), reflected and/or scattered light from the light irradiation surface from a regularly reflected light reflected from the substrate such that the regularly reflected light from the substrate is not guided towards an image acquiring unit, wherein the geometrical beam separator is a perforated mirror or a small mirror; acquiring, by the image acquiring unit, a light intensity of the light reflected and/or scattered from the light irradiation surface and received by the lens as image data; and detecting a height difference of the concave and convex shape based on a change in intensity of the acquired image data; characterized in that the light irradiation surface of the substrate is arranged at a position closer to the lens than a focal position of the lens, wherein the light irradiation surface of the substrate is arranged at a position corresponding to "α" that is set such that "α/f" is in a range of 0.017 to 0.17, where "f" is a focal length of the lens and "α" is a distance by which the surface of the substrate is brought closer to the lens from the focal position. irradiating a light irradiation surface of a substrate, said light irradiation surface having a concave and convex shape, with laser light collected by a lens; separating, using a geometrical beam separator (14; 14a), reflected and/or scattered light from the light irradiation surface from a regularly reflected light reflected from the substrate such that the regularly reflected light from the substrate is not guided towards an image acquiring unit, wherein the geometrical beam separator is a perforated mirror or a small mirror; acquiring, by the image acquiring unit, a light intensity of the light reflected and/or scattered from the light irradiation surface and received by the lens as image data; and detecting a height difference of the concave and convex shape based on a change in intensity of the acquired image data; characterized in that the light irradiation surface of the substrate is arranged at a position closer to the lens than a focal position of the lens, wherein the light irradiation surface of the substrate is arranged at a position corresponding to "α" that is set such that "α/f" is in a range of 0.017 to 0.17, where "f" is a focal length of the lens and "α" is a distance by which the surface of the substrate is brought closer to the lens from the focal position.
An installed device (21, 31) for detecting the absence of voltage in a monitored circuit located within an electrical enclosure, the monitored circuit being powered by a primary power source, the installed device comprising: a housing; and circuitry electrically connecting the installed device to the monitored circuit and a secondary power source, the secondary power source being independent of the primary power source; the circuitry being configured to: check for the presence of voltage in the monitored circuit; perform, upon a lack of detecting voltage in the monitored circuit or initiation by a user, a self diagnostic using the secondary power source to confirm proper operability of the installed device; test, upon confirming proper operability of the installed device, for connectivity to the monitored circuit; detect, upon confirming connectivity to the monitored circuit, for a de-energized condition of the monitored circuit, the de-energized condition being a substantially zero voltage; re-test, upon detecting the de-energized condition of the monitored circuit, for connectivity to the monitored circuit; re-perform, upon confirming connectivity to the monitored circuit, a self-diagnostic to ensure proper operability of the installed device; and confirm, upon confirming proper operability of the installed device, the de-energized condition of the monitored circuit. a housing; and circuitry electrically connecting the installed device to the monitored circuit and a secondary power source, the secondary power source being independent of the primary power source; check for the presence of voltage in the monitored circuit; perform, upon a lack of detecting voltage in the monitored circuit or initiation by a user, a self diagnostic using the secondary power source to confirm proper operability of the installed device; test, upon confirming proper operability of the installed device, for connectivity to the monitored circuit; detect, upon confirming connectivity to the monitored circuit, for a de-energized condition of the monitored circuit, the de-energized condition being a substantially zero voltage; re-test, upon detecting the de-energized condition of the monitored circuit, for connectivity to the monitored circuit; re-perform, upon confirming connectivity to the monitored circuit, a self-diagnostic to ensure proper operability of the installed device; and confirm, upon confirming proper operability of the installed device, the de-energized condition of the monitored circuit.
A monitoring method for an electrostatic coating installation, which coats components with a coating agent, which is charged electrically by means of a high voltage device, the monitoring method comprising the following steps: a) ascertaining a first operating variable (I B) of the high voltage device, b) comparing the first operating variable (I B) with a limit value (I GRENZ), c) initiating a safety measure if the comparison between the first operating variable (I B) and the limit value (I GRENZ) indicates a malfunction of the electrostatic coating installation, characterised in that d) the limit value (I GRENZ) is set flexibly as a function of operation and of the value of an operating variable (I B, I A, I L) continuously measured during operation of the coating installation. a) ascertaining a first operating variable (I B) of the high voltage device, b) comparing the first operating variable (I B) with a limit value (I GRENZ), c) initiating a safety measure if the comparison between the first operating variable (I B) and the limit value (I GRENZ) indicates a malfunction of the electrostatic coating installation, characterised in that d) the limit value (I GRENZ) is set flexibly as a function of operation and of the value of an operating variable (I B, I A, I L) continuously measured during operation of the coating installation.
A recombinant viral capsid protein that is genetically modified to display a heterologous amino acid sequence comprising a first member of a protein:protein binding pair inserted into the viral capsid protein, wherein the viral capsid protein is derived from a cap gene of an adeno-associated virus that encodes an AAV VP1, VP2, and/or VP3 capsid protein; wherein: (a) the first member of the protein:protein binding pair is a peptide tag and is capable of forming an isopeptide bond with a second cognate member of the protein:protein binding pair; or (b) the first member of the protein:protein binding pair is a peptide tag and the viral capsid protein further comprises the second cognate member of the protein:protein binding pair, wherein the first member and second cognate member are bound by an isopeptide bond. wherein the viral capsid protein is derived from a cap gene of an adeno-associated virus that encodes an AAV VP1, VP2, and/or VP3 capsid protein; wherein: (a) the first member of the protein:protein binding pair is a peptide tag and is capable of forming an isopeptide bond with a second cognate member of the protein:protein binding pair; or (b) the first member of the protein:protein binding pair is a peptide tag and the viral capsid protein further comprises the second cognate member of the protein:protein binding pair, wherein the first member and second cognate member are bound by an isopeptide bond. (a) the first member of the protein:protein binding pair is a peptide tag and is capable of forming an isopeptide bond with a second cognate member of the protein:protein binding pair; or (b) the first member of the protein:protein binding pair is a peptide tag and the viral capsid protein further comprises the second cognate member of the protein:protein binding pair, wherein the first member and second cognate member are bound by an isopeptide bond.
A scraped surface heat exchanger comprising a heat exchange surface, a rotatable shaft, said shaft having at least one mounting means, and a sweeping element wherein said sweeping element comprises a blade having at least one aperture for engaging with the mounting means such that the sweeping element is connected to the mounting means and wherein when the rotatable shaft is rotating relative to the heat exchange surface the sweeping element has substantially no movement relative to the rotating shaft and said sweeping element has substantially no contact with the inner surface of the heat exchanger, and the mounting means comprises at least one engagement means, wherein the engagement means comprises a projection extending outwardly at a substantially right angle to the rotatable shaft for engagement with the sweeping element so as to engage the sweeping element such that the sweeping element is connected to the mounting means, wherein the projection is a substantially T-shaped element extending outwardly at a substantially right angle to the rotatable shaft for engagement with the sweeping element and characterised in that the blade has a leading edge with a distance of 0.05 mm to 10 mm from the inner surface of the heat exchange and the blade has a plurality of substantially T-shaped apertures longitudinally arranged through the blade body for engaging with the mounting means.
A head-up display device, comprising: a light source unit; and a liquid crystal display element including a first polarizer provided on the light source unit side, and a second polarizer disposed to be opposed to the first polarizer via a liquid crystal layer, the liquid crystal display element being spaced apart from the light source unit, light emitted from the light source unit passing through the liquid crystal display element; the light source unit comprising: a substrate; a plurality of light-emitting elements provided on the substrate; a reflection film provided on the substrate except for an area in which the plurality of light-emitting elements are provided; a case provided on a circumferential edge portion of the substrate; a retardation plate provided on the case apart from the reflection film to face the reflection film, and imparting a retardation of λ/4 to light; a reflective polarizer provided on the retardation plate, and reflecting a light component which is parallel to a reflection axis; and a diffusion member provided on the reflective polarizer, and diffusing light. a light source unit; and a liquid crystal display element including a first polarizer provided on the light source unit side, and a second polarizer disposed to be opposed to the first polarizer via a liquid crystal layer, the liquid crystal display element being spaced apart from the light source unit, light emitted from the light source unit passing through the liquid crystal display element; the light source unit comprising: a substrate; a plurality of light-emitting elements provided on the substrate; a reflection film provided on the substrate except for an area in which the plurality of light-emitting elements are provided; a case provided on a circumferential edge portion of the substrate; a retardation plate provided on the case apart from the reflection film to face the reflection film, and imparting a retardation of λ/4 to light; a reflective polarizer provided on the retardation plate, and reflecting a light component which is parallel to a reflection axis; and a diffusion member provided on the reflective polarizer, and diffusing light. a substrate; a plurality of light-emitting elements provided on the substrate; a reflection film provided on the substrate except for an area in which the plurality of light-emitting elements are provided; a case provided on a circumferential edge portion of the substrate; a retardation plate provided on the case apart from the reflection film to face the reflection film, and imparting a retardation of λ/4 to light; a reflective polarizer provided on the retardation plate, and reflecting a light component which is parallel to a reflection axis; and a diffusion member provided on the reflective polarizer, and diffusing light.