mhurhangee/ep-ind-claims huggingface dataset:
A method of recovering virus-like particles (VLPs) or protein suprastructures from plant or plant matter, comprising: a. obtaining the plant or plant matter comprising apoplast-localized VLPs or apoplast-localized protein suprastructures, the apoplast-localized protein suprastructures having a molecular weight from 75 to 1500 kDa; b. treating the plant or plant matter with a composition comprising from 20 to 250mM EDTA or EGTA, to loosen the cell wall to produce a plant or plant matter having a loosened cell wall to obtain a plant incubation mixture, and separating the plant incubation mixture to produce a plant cell fraction and an apoplastic fraction; and c. recovering the VLPs or the protein suprastructures from the apoplastic fraction. a. obtaining the plant or plant matter comprising apoplast-localized VLPs or apoplast-localized protein suprastructures, the apoplast-localized protein suprastructures having a molecular weight from 75 to 1500 kDa; b. treating the plant or plant matter with a composition comprising from 20 to 250mM EDTA or EGTA, to loosen the cell wall to produce a plant or plant matter having a loosened cell wall to obtain a plant incubation mixture, and separating the plant incubation mixture to produce a plant cell fraction and an apoplastic fraction; and c. recovering the VLPs or the protein suprastructures from the apoplastic fraction.
Method for processing requests for access to computer virtualization services, implemented by a virtualization gateway, this gateway maintaining a database containing, for each platform (3, 4, 5) of a plurality of virtualization platforms, at least one computer virtualization service (VS3, VS4, VS5) offered by this platform and connection information allowing access to said at least one service via this platform, this processing method comprising: - a step of reception of an access request from a terminal to a computer virtualization service offered by a virtualization platform, this access request having been transmitted by a web browser installed on the terminal; - if the service requested by the terminal is contained in the base maintained by the gateway, a step of generation, from the connection information associated in the base with this service, of a system application (JSApp) adapted to the service, this system application comprising a module (CX-MOD3) for connection to the virtualization platform offering said service, capable of allowing the terminal to negotiate the setting up and the maintaining of a communication session (SESS3) with said platform; and - a step of sending of the generated system application to the web browser installed on the terminal. - a step of reception of an access request from a terminal to a computer virtualization service offered by a virtualization platform, this access request having been transmitted by a web browser installed on the terminal; - if the service requested by the terminal is contained in the base maintained by the gateway, a step of generation, from the connection information associated in the base with this service, of a system application (JSApp) adapted to the service, this system application comprising a module (CX-MOD3) for connection to the virtualization platform offering said service, capable of allowing the terminal to negotiate the setting up and the maintaining of a communication session (SESS3) with said platform; and - a step of sending of the generated system application to the web browser installed on the terminal.
A throttle control lever suitable for controlling the magnitude and direction of thrust of one or more aircraft engines, in which the throttle control lever comprises a frame, a trigger mechanism, a connection element, a cam engagement mechanism, a biasing means, a cam, and a grip suitable for gripping by a user when the throttle control lever is in use, in which the cam comprises a slot having first and second slot portions (18, 20) and a stop portion, in which the stop portion extends between and connects the first and second slot portions (18, 20); the cam engagement mechanism comprises a cam lever and a slot engagement element, the cam lever is pivotally attached to the frame via a cam lever pivot, and the slot engagement element is attached to the cam lever; the trigger mechanism comprises a trigger lever and a trigger, the trigger lever is pivotally attached to the frame via a trigger pivot; the trigger extends through the grip; the connection element is attached to the trigger lever and the cam lever; and the biasing means biases the cam lever to rotate in a first direction around the cam lever pivot. the cam comprises a slot having first and second slot portions (18, 20) and a stop portion, in which the stop portion extends between and connects the first and second slot portions (18, 20); the cam engagement mechanism comprises a cam lever and a slot engagement element, the cam lever is pivotally attached to the frame via a cam lever pivot, and the slot engagement element is attached to the cam lever; the trigger mechanism comprises a trigger lever and a trigger, the trigger lever is pivotally attached to the frame via a trigger pivot; the trigger extends through the grip; the connection element is attached to the trigger lever and the cam lever; and the biasing means biases the cam lever to rotate in a first direction around the cam lever pivot.
An electrode for a lithium secondary battery, which is capable of reversible lithium intercalation/deintercalation, and whose surface includes an organic/inorganic composite porous coating layer comprising heat-absorbing inorganic particles and a binder polymer, wherein the heat-absorbing inorganic particle is at least one particle selected from the group consisting of aluminum hydroxide (Al 3), magnesium hydroxide (Mg 2), guanidine nitrate, guanidine sulfaminate, guanidine phosphate, guanyl urea phosphate, H 3 BO 3 and HBO 2, the binder polymers have a solubility parameter of between 15 and 45 MPa 1/2; and the heat-absorbing inorganic particles and the binder polymer are used in a weight ratio of 50:50-95:5, wherein the organic/inorganic composite porous coating layer is formed by coating a mixture of heat-absorbing inorganic particles and a binder polymer onto the surface of an electrode comprising a collector and electrode active material particles bound to the collector while forming a pore structure, the heat-absorbing inorganic particles are interconnected among themselves and fixed by the binder polymer, and interstitial volumes among the heat-absorbing inorganic particles form a pore structure.
An industrial truck with a drawbar articulated on the vehicle pivoting about a horizontal axis and a vehicle controller for controlling the industrial truck taking into account a drawbar position, characterized by • a first acceleration sensor arranged on the drawbar, which is designed to make information available about the direction of an acceleration acting upon it, • a second acceleration sensor arranged on the vehicle, which is designed to make information available about the direction of an acceleration acting upon it, and • an evaluation apparatus, which is designed to determine the drawbar position relative to the vehicle on the basis of direction information from the first acceleration sensor and on the basis of direction information from the second acceleration sensor. • a first acceleration sensor arranged on the drawbar, which is designed to make information available about the direction of an acceleration acting upon it, • a second acceleration sensor arranged on the vehicle, which is designed to make information available about the direction of an acceleration acting upon it, and • an evaluation apparatus, which is designed to determine the drawbar position relative to the vehicle on the basis of direction information from the first acceleration sensor and on the basis of direction information from the second acceleration sensor.
A handheld band saw comprising: a housing; a handle coupled to the housing and configured to be grasped by a user during a cutting operation; a motor supported by the housing; a drive wheel assembly rotationally driven by the motor, the drive wheel assembly at least partially disposed within the housing; a saw blade driven by the drive wheel assembly and configured to cut a workpiece during the cutting operation; and characterized by a pipe reamer attachment (90a, 90b, 90c) coupled to the drive wheel assembly, wherein the pipe reamer attachment is configured to deburr the workpiece after completion of the cutting operation. a housing; a handle coupled to the housing and configured to be grasped by a user during a cutting operation; a motor supported by the housing; a drive wheel assembly rotationally driven by the motor, the drive wheel assembly at least partially disposed within the housing; a saw blade driven by the drive wheel assembly and configured to cut a workpiece during the cutting operation; and characterized by a pipe reamer attachment (90a, 90b, 90c) coupled to the drive wheel assembly, wherein the pipe reamer attachment is configured to deburr the workpiece after completion of the cutting operation.
A pit gate comprising: a gate body which is configured to be inserted between a pool portion configured to store water and a canal portion connected to the pool portion in pit equipment having the pool portion and the canal portion, and is configured to change a flow state of the water; and a seal portion which is accommodated in a groove-shaped accommodation recess formed in the gate body and configured to seal a gap between the gate body on the pool portion side and a wall surface of the pit equipment on the canal portion side, characterized in that the seal portion includes a base portion which extends along a surface of the accommodation recess closer to the pool portion, a skirt portion which extends in a direction away from a center portion in a width direction of the gate body as the skirt portion extends from the base portion toward the canal portion, a lip portion which is provided on a surface of the skirt portion close to the center portion in the width direction of the gate body and protrudes in a direction different from a direction in which the skirt portion extends to form a water pressure chamber between the base portion and the lip portion, and a base portion-side stopper portion which is provided on a side of the base portion away from the center portion in the width direction of the gate body from the skirt portion and protrudes toward the skirt portion. a gate body which is configured to be inserted between a pool portion configured to store water and a canal portion connected to the pool portion in pit equipment having the pool portion and the canal portion, and is configured to change a flow state of the water; and a seal portion which is accommodated in a groove-shaped accommodation recess formed in the gate body and configured to seal a gap between the gate body on the pool portion side and a wall surface of the pit equipment on the canal portion side, characterized in that the seal portion includes a base portion which extends along a surface of the accommodation recess closer to the pool portion, a skirt portion which extends in a direction away from a center portion in a width direction of the gate body as the skirt portion extends from the base portion toward the canal portion, a lip portion which is provided on a surface of the skirt portion close to the center portion in the width direction of the gate body and protrudes in a direction different from a direction in which the skirt portion extends to form a water pressure chamber between the base portion and the lip portion, and a base portion-side stopper portion which is provided on a side of the base portion away from the center portion in the width direction of the gate body from the skirt portion and protrudes toward the skirt portion.
Device for examining surface properties of heterogeneous materials with the aid of atomic force microscopy by applying the shear force method, comprising at least one base body on which there is mounted at least one bending beam (cantilever) with an integrated sensor, an integrated actuator for deflecting the cantilever transverse to its longitudinal axis, and at least one measurement probe, the bending beam being integrally moulded on the base body in a fashion directed downward almost at right angles, and the measurement probe being an axial extension of a lower end of the bending beam so that the angle between the surface to be examined and the bending beam or the measurement probe is almost 90° in the state of rest, characterized in that the integrated sensor and the integrated actuator are metallically separated by a gap.
A method for designing an optical filter for reducing the frequency and/or severity of photophobic responses or for modulating circadian cycles by controlling exposure of melanopsin ganglion cells in a retina of a human eye to light having about a 590nm wavelength, the method being characterized in comprising: calculating a light dose D rec,590 received at about 590 nm by the human eye D rec, 590 = ∫ L λ T λ R 590 λ dλ where L is the light spectrum of a light source in terms of intensity, power, photons/sec, T is the spectral transmission of the filter lying between the light source and the eye, and R 590 is a response spectrum at about 590nm of the human eye calculating a light dose D vis in association with the visual response spectrum D vis = ∫ L λ T λ V λ dλ where V represents the normalized visual response spectrum of the human eye, defining a ratio including the first amount of light and the second amount of light as a figure of merit, the figure of merit being determined by: FOM = 1 − D rec, 590 D rec, 590 T = 1 1 − D vis D vis T = 1 where D rec,590 (T=1) is the light across the first wavelength range in the absence of an optical filter, and D vis (T=1) is the second amount of light in the absence of an optical filter, wherein the optical filter is configured such that the figure of merit of said optical filter is greater than 1.3. calculating a light dose D rec,590 received at about 590 nm by the human eye D rec, 590 = ∫ L λ T λ R 590 λ dλ where L is the light spectrum of a light source in terms of intensity, power, photons/sec, T is the spectral transmission of the filter lying between the light source and the eye, and R 590 is a response spectrum at about 590nm of the human eye calculating a light dose D vis in association with the visual response spectrum D vis = ∫ L λ T λ V λ dλ where V represents the normalized visual response spectrum of the human eye, defining a ratio including the first amount of light and the second amount of light as a figure of merit, the figure of merit being determined by: FOM = 1 − D rec, 590 D rec, 590 T = 1 1 − D vis D vis T = 1 where L is the light spectrum of a light source in terms of intensity, power, photons/sec, T is the spectral transmission of the filter lying between the light source and the eye, and R 590 is a response spectrum at about 590nm of the human eye calculating a light dose D vis in association with the visual response spectrum D vis = ∫ L λ T λ V λ dλ where V represents the normalized visual response spectrum of the human eye, defining a ratio including the first amount of light and the second amount of light as a figure of merit, the figure of merit being determined by: FOM = 1 − D rec, 590 D rec, 590 T = 1 1 − D vis D vis T = 1 where D rec,590 (T=1) is the light across the first wavelength range in the absence of an optical filter, and D vis (T=1) is the second amount of light in the absence of an optical filter, wherein the optical filter is configured such that the figure of merit of said optical filter is greater than 1.3.
A BTE hearing aid with a hearing aid housing to be worn behind the pinna of a user, a sound signal transmission member (34, 56) for transmission of a signal representing sound from a sound output of the hearing aid housing at a first end of the sound signal transmission member (34, 56) to the ear canal of the user at a second end of the sound signal transmission member (34, 56), a connector (14, 22, 46) at the first end for interconnection of the sound signal transmission member (34, 56) with the housing, and an elongated securing member with a first end connected to the hearing aid housing at the sound output of the hearing aid housing in engagement with the connector (14, 22, 46), and a second free end, wherein the elongated securing member extends from its first end connected to the hearing aid housing along the hearing aid housing and when in use further along the pinna in abutment with an outer surface of the auricular sulcus for improved retention of the hearing aid housing in its intended position behind the pinna of the user.
A method of analyzing a pipe system, comprising a pipe, insulation around the pipe, and shielding around the insulation, for the presence of an anomaly on the pipe, comprising the steps of: applying an electrical pulse to a test location to cause an applied electromagnetic wave signal to travel along the pipe through the anomaly; arranging at least one of an electric field sensor and a magnetic field sensor at a plurality of separate measurement locations (76a, 76b, 76c) between the test location and a location (40, 42, 43) of the anomaly; measuring a reflected signal at each of the plurality of separate measurement locations, and determining whether the reflections come from left or the right side of the test location; analyzing the reflected signals for signal anomalies associated with pipe impedance of the pipe at the location of the anomaly to determine the existence of the anomaly on the pipe; and determining the location of the anomaly by timing the wave arrival of the incident and reflected pulses at each of the plurality of measurement locations (76a, 76b, 76c) and determining the distance and the location of the anomaly by a wave propagation calculation. applying an electrical pulse to a test location to cause an applied electromagnetic wave signal to travel along the pipe through the anomaly; arranging at least one of an electric field sensor and a magnetic field sensor at a plurality of separate measurement locations (76a, 76b, 76c) between the test location and a location (40, 42, 43) of the anomaly; measuring a reflected signal at each of the plurality of separate measurement locations, and determining whether the reflections come from left or the right side of the test location; analyzing the reflected signals for signal anomalies associated with pipe impedance of the pipe at the location of the anomaly to determine the existence of the anomaly on the pipe; and determining the location of the anomaly by timing the wave arrival of the incident and reflected pulses at each of the plurality of measurement locations (76a, 76b, 76c) and determining the distance and the location of the anomaly by a wave propagation calculation.
A radio frequency communication method for wirelessly transmitting data packets between two communication nodes of a communication network, the method comprising the steps of: - at a first node, generating a data packet including payload data and a first data check value calculated based on the payload data; - wirelessly transmitting the data packet from the first node to a second node; - at the second node, receiving the data packet from the first node and calculating a second data check value based on the received payload data; - at the second node, comparing the second data check value to the first data check value to determine whether the data packet is received correctly; - when the data packet has been received correctly, wirelessly transmitting from the second node to the first node an acknowledgement packet including a first acknowledgement check value calculated by the second node based on the received payload data, the first acknowledgement check value providing a stronger data integrity check of the received payload data in that it comprises more bits than the first and second data check values; and - at the first node, receiving the acknowledgement packet from the second node and calculating a second acknowledgement check value based on the original payload data available at the first node, and comparing the second acknowledgement check value to the first acknowledgement check value to determine whether the payload data received at the second node matched the payload data originally sent from the first node. - at a first node, generating a data packet including payload data and a first data check value calculated based on the payload data; - wirelessly transmitting the data packet from the first node to a second node; - at the second node, receiving the data packet from the first node and calculating a second data check value based on the received payload data; - at the second node, comparing the second data check value to the first data check value to determine whether the data packet is received correctly; - when the data packet has been received correctly, wirelessly transmitting from the second node to the first node an acknowledgement packet including a first acknowledgement check value calculated by the second node based on the received payload data, the first acknowledgement check value providing a stronger data integrity check of the received payload data in that it comprises more bits than the first and second data check values; and - at the first node, receiving the acknowledgement packet from the second node and calculating a second acknowledgement check value based on the original payload data available at the first node, and comparing the second acknowledgement check value to the first acknowledgement check value to determine whether the payload data received at the second node matched the payload data originally sent from the first node.