mhurhangee/ep-ind-claims huggingface dataset:
A method for providing a neutron detector tube, the method comprising: applying a conductive layer to at least a portion of an inner surface of a non-conductive cathode tube associated with the neutron detector tube; applying a neutron sensitive cathode coating to at least a portion of the conductive layer; sealing a first end portion of the neutron detector tube with a cathode cap; and sealing a second end portion of the neutron detection tube with an anode cap, characterized in that the cathode tube is made from glass, in that the conductive layer stops short of extending to the second end portion, and in that sealing the second end portion of the neutron detector comprises sealing a second portion interface between the anode cap and a non-conductive portion of the cathode tube with a glass-to-glass seal or a glass-to-ceramic seal. applying a conductive layer to at least a portion of an inner surface of a non-conductive cathode tube associated with the neutron detector tube; applying a neutron sensitive cathode coating to at least a portion of the conductive layer; sealing a first end portion of the neutron detector tube with a cathode cap; and sealing a second end portion of the neutron detection tube with an anode cap, characterized in that the cathode tube is made from glass, in that the conductive layer stops short of extending to the second end portion, and in that sealing the second end portion of the neutron detector comprises sealing a second portion interface between the anode cap and a non-conductive portion of the cathode tube with a glass-to-glass seal or a glass-to-ceramic seal.
Process to produce a mannoprotein solution which has a turbidity, when measured by nephelometry at a concentration of 200 g/l of mannoprotein and at a pH in the range of pH 4 to pH 8 lower than 70 NTU which is free of protease activity comprising a) subjecting a suspension of yeast cells to enzymatic hydrolysis, whereby said yeast cells are degraded and mannoprotein and other yeast components are solubilised and released from the degraded yeast cells; b) recovering the solubilised mannoprotein as a solution; and c) inactivating protease by subjecting the mannoprotein solution obtained after step b) to heat treatment at a temperature of 70°C or higher.
A biometric recognition apparatus, comprising N detection elements and a protection cover plate located above the N detection elements, wherein the biometric recognition apparatus is a fingerprint recognition apparatus, characterized in that the protection cover plate comprises a first area and M second areas, wherein a second area i in the M second areas is disposed corresponding to a detection element j in the N detection elements, a thickness of each second area of the protection cover plate in the M second areas is greater than a first threshold, and a target parameter of each second area in the M second areas is different from that of the first area, the target parameter comprising one of the following parameters: a dielectric constant, a light transmittance and a light refractive index, wherein both N and M are integers greater than or equal to 1, 1≤i≤M, and 1≤j≤N, wherein N is equal to M, and the M second areas are disposed in one-to-one correspondence with the N detection elements, and i=j, and the first area and the second area have the same material, but have different molecule arrangement structures, and wherein the first area and M second areas are obtained by processing a same protection cover plate base, and the first area and M second areas are different areas of the protective cover plate, and both are part of the protective cover plate.
A pivoting fitting (1, 1'), comprising a first pivoting lever which can be moved about an axis of rotation in relation to a second pivoting lever, wherein a blocking device (4, 4', 5, 5') is provided in order to block a rotational motion of the first pivoting lever in relation to the second pivoting lever in a first direction of rotation and to enable said rotational motion in an opposite second direction of rotation in a blocking position, whereby a switching element is provided for an infinitely variable adjustment of the blocking position in order to deactivate the blocking device (4, 4', 5, 5') for an adjusting process of the first pivoting lever relative to the second pivoting lever in the first direction of rotation, characterized in that the switching element (10, 10') is formed as a pin which is pretensioned by a spring in the position in which the blocking device (4, 4', 5, 5') is effective.
Method for the stable transmission of laser radiation through an optical waveguide, wherein two or more modes of the laser radiation propagating in the optical waveguide interfere and form a mode interference pattern in the optical waveguide, as a result of which a thermally induced refractive index grating is generated in the optical waveguide, characterized in that a relative spatial phase shift between the mode interference pattern and the thermally induced refractive index grating is set in the direction of propagation of the laser radiation using a setting element in such a way that an energy transfer between the modes of the laser radiation propagating the optical waveguide occurs in the direction of the dominant mode.
A decorating painting brush head comprising a ferrule (20; 120; 150; 220; 320; 420; 520; 620; 720; 820) and a filament cluster (35; 135; 235; 335; 535; 635; 735), the ferrule comprising a handle receiving end (22; 122; 822) and cluster emerging end (21; 121; 821), one end of the cluster being set into a setting block, the block extending in the ferrule to a level towards the emerging end, the level being spaced from the emerging end to define a filament-only region in the ferrule, wherein the ferrule is tapered from the handle receiving end to the cluster emerging end and pushes the filament-only region of the cluster inwards, whereby to cause the cluster to taper beyond the emerging end, wherein the setting block is formed by resin configured to solidify into a monolithic block and configured to lock the filament cluster in a converged shape.
A method implemented in a display device, the method comprising: receiving, from a presentation device via a wired video connection to the display device, a request for information regarding how to connect to the display device via a network; sending, from the display device to the presentation device via the wired video connection, the requested information; establishing, in response to a request from the presentation device based on the requested information, a network connection to the presentation device; displaying video received from the presentation device via the wired video connection; receiving, while displaying the video, user input to the display device, wherein the user input comprises input including freehand input to a touch-sensing device of the display device; sending data describing the user input to the presentation device via the network connection; and displaying, via the graphical user interface of the display device, the video changed by the presentation device in response to the data describing the user input. receiving, from a presentation device via a wired video connection to the display device, a request for information regarding how to connect to the display device via a network; sending, from the display device to the presentation device via the wired video connection, the requested information; establishing, in response to a request from the presentation device based on the requested information, a network connection to the presentation device; displaying video received from the presentation device via the wired video connection; receiving, while displaying the video, user input to the display device, wherein the user input comprises input including freehand input to a touch-sensing device of the display device; sending data describing the user input to the presentation device via the network connection; and displaying, via the graphical user interface of the display device, the video changed by the presentation device in response to the data describing the user input.
A Schottky diode device comprising: • at least a lower and an upper III-nitride layer (4,5) forming a heterojunction therebetween, so that a 2DEG layer may be formed in the lower of the two layers, • a cathode forming an ohmic contact with the upper III-nitride layer, • an anode comprising a first portion that forms a Schottky barrier contact with the upper III-nitride layer and a second portion that is separated from the upper III-nitride layer by a layer of dielectric material, the second portion being located between the anode and the cathode, the dielectric material being configured to pinch off the 2DEG layer in the reverse bias region of the diode, said first and second portion being directly adjoining, • a passivation area isolating the anode and cathode from each other, wherein: - said layer of dielectric material or at least a first sublayer of said layer of dielectric material is covering the surface of said upper III-nitride layer between the anode and up to the cathode, - the device comprises a passivation layer on and in contact with the upper III-nitride layer, said passivation layer covering the surface of said upper III-nitride layer between the anode and up to the cathode, wherein said layer of dielectric material consists of a first portion of said passivation layer and a high-K dielectric layer on and in contact with said first portion of the passivation layer, - said passivation layer is a layer consisting of or comprising Silicon nitride (Si 3 N 4), characterised in that said high K dielectric layer consists of or comprises Al 2 O 3. • at least a lower and an upper III-nitride layer (4,5) forming a heterojunction therebetween, so that a 2DEG layer may be formed in the lower of the two layers, • a cathode forming an ohmic contact with the upper III-nitride layer, • an anode comprising a first portion that forms a Schottky barrier contact with the upper III-nitride layer and a second portion that is separated from the upper III-nitride layer by a layer of dielectric material, the second portion being located between the anode and the cathode, the dielectric material being configured to pinch off the 2DEG layer in the reverse bias region of the diode, said first and second portion being directly adjoining, • a passivation area isolating the anode and cathode from each other, - said layer of dielectric material or at least a first sublayer of said layer of dielectric material is covering the surface of said upper III-nitride layer between the anode and up to the cathode, - the device comprises a passivation layer on and in contact with the upper III-nitride layer, said passivation layer covering the surface of said upper III-nitride layer between the anode and up to the cathode, wherein said layer of dielectric material consists of a first portion of said passivation layer and a high-K dielectric layer on and in contact with said first portion of the passivation layer, - said passivation layer is a layer consisting of or comprising Silicon nitride (Si 3 N 4),
Ultrasound flow meter housing arrangement comprising: a unipartite comprising a housing provided to be connected to a fluid line, at least two ultrasonic transducers having in each case an ultrasonic transducer body (4, 7), and a measuring insert which is inserted into the housing and comprises the measuring distance and deflection devices, wherein the housing is configured as a single-piece pipe such that the measuring insert can be inserted from the front end of the housing, characterized by a housing opening provided in the housing, into which a housing insert is inserted which receives the at least two ultrasonic transducer bodies (4, 7) which are positioned separately, wherein the housing insert is connected to the housing via a sealing element which is common to the ultrasonic transducer bodies (4, 7) which are positioned in the housing insert and which is arranged between the housing and the housing insert, and the housing insert is cup-shaped and closed on the bottom side in each case in the region of the ultrasonic transducer bodies (4, 7). a unipartite comprising a housing provided to be connected to a fluid line, at least two ultrasonic transducers having in each case an ultrasonic transducer body (4, 7), and a measuring insert which is inserted into the housing and comprises the measuring distance and deflection devices, wherein the housing is configured as a single-piece pipe such that the measuring insert can be inserted from the front end of the housing, characterized by a housing opening provided in the housing, into which a housing insert is inserted which receives the at least two ultrasonic transducer bodies (4, 7) which are positioned separately, wherein the housing insert is connected to the housing via a sealing element which is common to the ultrasonic transducer bodies (4, 7) which are positioned in the housing insert and which is arranged between the housing and the housing insert, and the housing insert is cup-shaped and closed on the bottom side in each case in the region of the ultrasonic transducer bodies (4, 7).
A bone fixation subassembly (75; 175; 275; 375; 475; 575; 675) configured to receive a fixation rod and a locking cap, the bone fixation subassembly comprising: an anchor seat (26; 126; 226; 326, 426; 526; 626) including an anchor seat body (38; 138; 238; 338; 438; 538; 638) extending along a central axis and defining an upper end and a lower end, wherein the upper end comprises a pair of opposing fixation rod-receiving gaps therebetween that are spaced along a longitudinal axis, and a bore (54; 154; 254; 354; 454; 554; 654) disposed between the rod-receiving gaps; and a collet (28; 128; 228; 328; 428; 528; 628) including a collet body (45; 145; 245; 345; 445; 545; 645) disposed in the anchor seat (26 - 626), the collet body (45 - 645) configured to attach to a bone anchor (30; 130; 230; 330; 430; 530; 630) that extends along an axis of rotation, wherein the bone anchor (30 - 630), when attached to the collet (28 - 628), is permitted to rotate about the axis of rotation relative to the anchor seat (26 - 626), characterized in that the bone anchor (30 - 630) is further permitted to pivot relative to the anchor seat (26 - 626) in a desired plane such that the axis of rotation of the bone anchor (30 - 630) can extend from the central axis of the anchor seat (26 - 626) to opposed sides of the central axis and within the desired plane, and is prevented from pivoting relative to the anchor seat (26 - 626) in another plane that includes the central axis and is angularly offset with respect to the desired plane. an anchor seat (26; 126; 226; 326, 426; 526; 626) including an anchor seat body (38; 138; 238; 338; 438; 538; 638) extending along a central axis and defining an upper end and a lower end, wherein the upper end comprises a pair of opposing fixation rod-receiving gaps therebetween that are spaced along a longitudinal axis, and a bore (54; 154; 254; 354; 454; 554; 654) disposed between the rod-receiving gaps; and a collet (28; 128; 228; 328; 428; 528; 628) including a collet body (45; 145; 245; 345; 445; 545; 645) disposed in the anchor seat (26 - 626), the collet body (45 - 645) configured to attach to a bone anchor (30; 130; 230; 330; 430; 530; 630) that extends along an axis of rotation, wherein the bone anchor (30 - 630), when attached to the collet (28 - 628), is permitted to rotate about the axis of rotation relative to the anchor seat (26 - 626), characterized in that the bone anchor (30 - 630) is further permitted to pivot relative to the anchor seat (26 - 626) in a desired plane such that the axis of rotation of the bone anchor (30 - 630) can extend from the central axis of the anchor seat (26 - 626) to opposed sides of the central axis and within the desired plane, and is prevented from pivoting relative to the anchor seat (26 - 626) in another plane that includes the central axis and is angularly offset with respect to the desired plane.
Heat-sealable paperboard packaging material comprising: a paperboard substrate having a first surface and an opposed second surface; and a polymer coating on the first surface, comprising: a first plastic layer attached to the first surface; the first plastic layer having a first thickness and not containing inorganic filler; a second plastic layer attached to the first plastic layer, the second plastic layer having a second thickness, the second plastic layer containing from 15% up to 75% by weight of an inorganic filler; and a third plastic layer attached to the second plastic layer, the third plastic layer having a third thickness.
A first network access node for a wireless communication system, the first network access node comprises: at least one processing unit, configured to: obtain a first measured radio signal information for a client device; obtain a first spatial location for the client device; derive, when the radio link quality between the first network node and client device suddenly drops or is completely blocked, a first expected radio signal information for the client device using a database and the first spatial location for the client device, wherein the database stores radio signal measurements related to a spatial location over time, as distributions of the radio signal; determine a first radio signal deviation, D1, by comparing the first measured radio signal information with the first expected radio signal information at the first spatial location of the client device; generate a first control message comprising the first spatial location for the client device and the first radio signal deviation, D1; at least one transceiving unit, configured to: transmit the first control message to a second network access node. obtain a first measured radio signal information for a client device; obtain a first spatial location for the client device; derive, when the radio link quality between the first network node and client device suddenly drops or is completely blocked, a first expected radio signal information for the client device using a database and the first spatial location for the client device, wherein the database stores radio signal measurements related to a spatial location over time, as distributions of the radio signal; determine a first radio signal deviation, D1, by comparing the first measured radio signal information with the first expected radio signal information at the first spatial location of the client device; generate a first control message comprising the first spatial location for the client device and the first radio signal deviation, D1; at least one transceiving unit, configured to: transmit the first control message to a second network access node.
An ion delivery manifold for use with an ionizer of the type that converts a non-ionized gas stream into an ionized gas stream, comprising an outside surface and an enclosed gas transport channel bounded by an interior surface of the ion delivery manifold, the gas transport channel comprising at least one inlet configured to receive the ionized gas stream from the ionizer; at least first and second outlets configured to divide the ionized gas stream flowing through the gas transport channel into first and second neutralization gas streams directed toward respective first and second regions of a wide-area target, wherein the ion flow rate exiting the first outlet is higher than the ion flow rate exiting the second outlet, wherein at least a portion of the transport channel includes a curved interior surface, wherein the first and second outlets extend through the portion of the transport channel with the curved interior surface, wherein the first and second outlets are short tubes (74T, 74M, 74L) that are substantially tangentially aligned with the curvature of the interior surface of the transport channel, wherein the short tubes are configured to remove the centripetal force, and provide optimal straight line momentum toward the respective first and second regions of the wide-area target.
A device for determining a direction of arrival of a radio signal consisting of an antenna array including a reference antenna and N receiving antennas, (A 1, A 2...A N), an antenna switching unit and a receiving circuit characterized in that the antenna array is connected to the antenna switching unit, said antenna switching unit being connected via Ethernet network to a digital device, in which algorithms for estimating the direction of arrival of a radio signal, and for controlling the antenna switching unit and a software defined radio platform are implemented, said antenna switching unit being also connected to the software defined radio platform that is connected with digital device via Ethernet network, whereas the antenna switching unit consists of K parallelly connected antenna switches (P 1, P 2,... P K), having W inputs (W 1, W 2,... W W) of a radio signal, said antenna switching unit comprising a controller and a signal splitter, said antenna switches (P 1, P 2,... P K) being connected by their inputs (W 1, W 2,... W W) to the receiving antennas (A 1, A 2....A N) to the signal splitter and to the controller, the signal splitter being connected to the controller, while the reference antenna is connected to the signal splitter, said antenna switching unit being also connected to the software defined radio platform through K switches (P 1, P 2,... P K) and through the signal splitter, and number of W inputs of a radio signal to antenna switches (P 1, P 2,... P K) being determined by the relationship: W ≥ (N + K).