mhurhangee/patent-ind-claim-en huggingface dataset:
A radio remote unit device, comprising: an enclosure (no); and a transceiver, a power amplifier, and a duplexer that are installed in the enclosure, wherein the enclosure comprises a front-end plate and a back-end plate that are respectively set on two lengthwise ends of the enclosure , multiple parallel spaced heat sinks are set on two widthwise sides of the enclosure and between the front-end plate and the back-end plate , and the front-end plate and the back-end plate extend along a widthwise direction of the enclosure by a length which is greater than a length by which the heat sinks extend; and a joint part set on the enclosure, wherein the joint part is usable for fastening the radio remote unit with another radio remote unit device together side-by-side, so that the front-end plate and the back-end plate of one radio remote unit device respectively lean closely against those of the other radio remote unit device and a preset gap is formed between widthwise ends of heat sinks on opposite sides of the two radio remote unit devices. an enclosure (no); and a transceiver, a power amplifier, and a duplexer that are installed in the enclosure, wherein the enclosure comprises a front-end plate and a back-end plate that are respectively set on two lengthwise ends of the enclosure , multiple parallel spaced heat sinks are set on two widthwise sides of the enclosure and between the front-end plate and the back-end plate , and the front-end plate and the back-end plate extend along a widthwise direction of the enclosure by a length which is greater than a length by which the heat sinks extend; and a joint part set on the enclosure, wherein the joint part is usable for fastening the radio remote unit with another radio remote unit device together side-by-side, so that the front-end plate and the back-end plate of one radio remote unit device respectively lean closely against those of the other radio remote unit device and a preset gap is formed between widthwise ends of heat sinks on opposite sides of the two radio remote unit devices.
A radio frequency head coil , RF head coil, for use in magnetic resonance imaging (MRI), the RF head coil comprising: a coil former comprising at least a first leg and a second leg arranged at a distance from each other to define a space therebetween, the coil former being at least sectionally flexible and having at least one first fastening portion arranged adjacent to the space , and a respiratory mask comprising a gas outlet and at least one second fastening portion , wherein in an operable condition in which the RF head coil is adapted to be arranged around a head of a patient (S) and in which the at least one second fastening portion is fastened to the at least one first fastening portion , the gas outlet is disposed within the space . a coil former comprising at least a first leg and a second leg arranged at a distance from each other to define a space therebetween, the coil former being at least sectionally flexible and having at least one first fastening portion arranged adjacent to the space , and a respiratory mask comprising a gas outlet and at least one second fastening portion , wherein in an operable condition in which the RF head coil is adapted to be arranged around a head of a patient (S) and in which the at least one second fastening portion is fastened to the at least one first fastening portion , the gas outlet is disposed within the space .
A gel-spun fiber comprising an ultra-high molecular weight polyethylene (UHMWPE), wherein the UHMWPE has an intrinsic viscosity (IV) of at least 4 dL/g and comprises at least 0.3 short chain branches per thousand total carbon atoms, characterized in that the fiber further comprises between 0.1 and 10 parts by weight of carbon black based on 100 parts by weight of the amount of the polyethylene forming the fiber.
An insulating material fastener which has a fastening element for fastening in a fastening base and a retaining plate for holding an insulating element on the fastening base, wherein the retaining plate comprises a receiving hole for receiving the fastening element , which receiving hole extends along a longitudinal axis (L), wherein the retaining plate and at least one recess are operatively connected to an engagement element of a placement tool , wherein the retaining plate can be rotated about the longitudinal axis (L) of the receiving hole by means of the placement tool , wherein the retaining plate has a rear side which faces the placement tool during the placement operation and a front side which faces away from the placement tool during the placement operation, wherein the recess is offset radially with respect to the longitudinal axis (L) in relation to the receiving hole and passes through the retaining plate , as a result of which a through-opening is formed in the retaining plate , wherein the through-opening , viewed in the axial direction, has a clear cross-section which is smaller than the largest cross-section of the recess and/or wherein the center (M R ) of the cross-section of the recess on the rear side of the retaining plate is offset in relation to the center (Mv, Mv') of the cross-section of the recess on the front side of the retaining plate , characterized in that the axial depth (t) of the recess increases from the rear side toward the front side in the direction of rotation (D) in which the insulating material fastener is rotated for placement with a placement tool . wherein the retaining plate comprises a receiving hole for receiving the fastening element , which receiving hole extends along a longitudinal axis (L), wherein the retaining plate and at least one recess are operatively connected to an engagement element of a placement tool , wherein the retaining plate can be rotated about the longitudinal axis (L) of the receiving hole by means of the placement tool , wherein the retaining plate has a rear side which faces the placement tool during the placement operation and a front side which faces away from the placement tool during the placement operation, wherein the recess is offset radially with respect to the longitudinal axis (L) in relation to the receiving hole and passes through the retaining plate , as a result of which a through-opening is formed in the retaining plate , wherein the through-opening , viewed in the axial direction, has a clear cross-section which is smaller than the largest cross-section of the recess and/or wherein the center (M R ) of the cross-section of the recess on the rear side of the retaining plate is offset in relation to the center (Mv, Mv') of the cross-section of the recess on the front side of the retaining plate , characterized in that the axial depth (t) of the recess increases from the rear side toward the front side in the direction of rotation (D) in which the insulating material fastener is rotated for placement with a placement tool .
A method for processing a biomass material comprising: (i) introducing a biomass material to a pressurized compartment of a solventless recovery system, wherein the prepared biomass material contains an initial liquid content comprising ethanol, wherein the prepared biomass material is generated by adding to a biomass at least one additive, wherein said at least one additive comprises a microbe, and optionally, an acid and/or an enzyme; and storing the prepared biomass material for at least 24 hours and up to 700 days in a storage facility; (ii) contacting the prepared biomass material with a superheated vapor stream in the pressurized compartment to vaporize at least a portion of the initial liquid content in the biomass material to provide a vapor component, said superheated vapor stream comprising at least one volatile organic compound; (iii) retaining at least a portion of the vapor component comprising ethanol in a range of 1 wt% to 50 wt% for use as part of the superheated vapor stream; (iv) releasing from the solventless recovery system at least a portion of the prepared biomass material after vaporization to provide a solid component; and (v) contacting at least a portion of the solid component with a solution adapted to facilitate saccharification. (i) introducing a biomass material to a pressurized compartment of a solventless recovery system, wherein the prepared biomass material contains an initial liquid content comprising ethanol, wherein the prepared biomass material is generated by adding to a biomass at least one additive, wherein said at least one additive comprises a microbe, and optionally, an acid and/or an enzyme; and storing the prepared biomass material for at least 24 hours and up to 700 days in a storage facility; (ii) contacting the prepared biomass material with a superheated vapor stream in the pressurized compartment to vaporize at least a portion of the initial liquid content in the biomass material to provide a vapor component, said superheated vapor stream comprising at least one volatile organic compound; (iii) retaining at least a portion of the vapor component comprising ethanol in a range of 1 wt% to 50 wt% for use as part of the superheated vapor stream; (iv) releasing from the solventless recovery system at least a portion of the prepared biomass material after vaporization to provide a solid component; and (v) contacting at least a portion of the solid component with a solution adapted to facilitate saccharification.
A surgical knife for eye surgery comprising: a blade component comprising a blade root which tapers into a blade neck via a tapered portion , the blade neck having a first side and a second side opposite to the first side, and a cutting head , and a handle body , characterised in that the handle body comprises: a T-shaped blade receiving bore defined on a face defined at a first end of the handle body , the blade component inserted into the T-shaped blade receiving bore proximate the tapered portion of the blade root , the handle body comprising a first part defined on a first side of the blade receiving bore and a second part defined on a second side of the blade receiving bore; and a blade support extending from the face along the first side of the blade neck and in contact therewith in use, the blade support being defined by the first part of the handle body extending further from the blade receiving bore than the second part of the handle; and in that the cutting head extends from the second side of the blade neck at an angle to the blade neck in a direction opposite to the blade support. a blade component comprising a blade root which tapers into a blade neck via a tapered portion , the blade neck having a first side and a second side opposite to the first side, and a cutting head , and a handle body , characterised in that the handle body comprises: a T-shaped blade receiving bore defined on a face defined at a first end of the handle body , the blade component inserted into the T-shaped blade receiving bore proximate the tapered portion of the blade root , the handle body comprising a first part defined on a first side of the blade receiving bore and a second part defined on a second side of the blade receiving bore; and a blade support extending from the face along the first side of the blade neck and in contact therewith in use, the blade support being defined by the first part of the handle body extending further from the blade receiving bore than the second part of the handle; and in that the cutting head extends from the second side of the blade neck at an angle to the blade neck in a direction opposite to the blade support.
A multimedia router system comprising: at least one media server computer comprising at least one processor and memory , wherein the at least one media server computer is configured as a spatially analyzed media server, SAMS, and to receive and analyze incoming data comprising incoming multimedia streams from client devices associated with respective users, user priority data and spatial orientation data, and adapt outbound multimedia streams for individual client devices based on the incoming data received from the client devices , wherein the incoming multimedia streams include elements from within at least one virtual environment , and wherein the outbound multimedia streams are adapted for the individual client devices based on the user priority data and the spatial orientation data that describes spatial relationships between corresponding user graphical representations of the users in the at least one virtual environment and sources of the incoming multimedia streams within the at least one virtual environment . at least one media server computer comprising at least one processor and memory , wherein the at least one media server computer is configured as a spatially analyzed media server, SAMS, and to receive and analyze incoming data comprising incoming multimedia streams from client devices associated with respective users, user priority data and spatial orientation data, and adapt outbound multimedia streams for individual client devices based on the incoming data received from the client devices , wherein the incoming multimedia streams include elements from within at least one virtual environment , and wherein the outbound multimedia streams are adapted for the individual client devices based on the user priority data and the spatial orientation data that describes spatial relationships between corresponding user graphical representations of the users in the at least one virtual environment and sources of the incoming multimedia streams within the at least one virtual environment .
Inhibitor of lysine deficient protein kinase 1 (WNK1), wherein the inhibitor is a small chemical compound with molecular weight below 900 daltons that can inhibit the catalytic activity of WNK1, for use in treatment of blood cancers in a mammalian subject.
A method for forming ZSM-5 zeolite microspheres, the method comprising: shaping a mixture into microspheres, wherein the mixture comprises a silica material and a plurality of particulates being ZSM-5 zeolite crystals; calcining the microspheres; and reacting and subsequently heating the microspheres with at least one alkali solution to form ZSM-5 zeolite in-situ on the microspheres, wherein the ZSM-5 zeolite microspheres are free of clay or calcined clay material, wherein the alkali solution is a solution of at least one of zeolite Y seed, sodium silicate, sodium hydroxide, or ammonium hydroxide and wherein the reacting and the subsequently heating the microspheres with the at least one alkali solution to form ZSM-5 zeolite in-situ on the microspheres further includes adding an aluminum source being a metakaolin, wherein the reacting the microspheres with the at least one alkali solution and the adding the aluminum source produces a reactive mixture and the aluminum source is present in the amount of 0.1 to 3.0 wt.% of the reactive mixture. shaping a mixture into microspheres, wherein the mixture comprises a silica material and a plurality of particulates being ZSM-5 zeolite crystals; calcining the microspheres; and reacting and subsequently heating the microspheres with at least one alkali solution to form ZSM-5 zeolite in-situ on the microspheres, wherein the ZSM-5 zeolite microspheres are free of clay or calcined clay material, wherein the alkali solution is a solution of at least one of zeolite Y seed, sodium silicate, sodium hydroxide, or ammonium hydroxide and wherein the reacting and the subsequently heating the microspheres with the at least one alkali solution to form ZSM-5 zeolite in-situ on the microspheres further includes adding an aluminum source being a metakaolin, wherein the reacting the microspheres with the at least one alkali solution and the adding the aluminum source produces a reactive mixture and the aluminum source is present in the amount of 0.1 to 3.0 wt.% of the reactive mixture.
Method for the production of a photo-alignable object comprising the steps - providing a material composition comprising a photo-alignable material - generation of an object from the material composition on a support - removing the object from the support. - providing a material composition comprising a photo-alignable material - generation of an object from the material composition on a support - removing the object from the support.
A gas filter , adapted to being placed inside the casing of a gas meter, comprising a body with a gas inlet opening , at least one gas outlet opening, at least one filter insert comprising filtering material covering the at least one gas outlet opening, characterized in that the gas filter further comprises at least one bypass assembly , wherein said bypass assembly is configured such that it allows for circumventing the filter insert by the gas flowing through the gas filter when a gas pressure inside the gas filter is elevated due to the contamination of the filter inserts limiting the flow through filter insert , thereby maintaining undisturbed flow of gas through the gas meter.
A printing device comprising: a printing unit that performs printing on a medium using liquid; a liquid container that includes a liquid containing chamber capable of containing the liquid supplied to the printing unit ; an exterior member that covers at least part of the liquid container and defines a horizontal surface ; and a liquid receiving portion that includes a liquid inlet formed in the liquid container and an open portion formed in the horizontal surface of the exterior member , wherein the liquid containing chamber is able to receive the liquid through the liquid receiving portion ; the liquid inlet includes a first opening , which is an inner end opening at an inner end of the liquid inlet , which opens in the liquid containing chamber , wherein the liquid container includes an upper wall that is provided with the first opening , and a second opening located at an opposite side of the first opening ; the open portion is located at a position corresponding to the liquid inlet and includes an outer end opening at an outer end of the open portion , which is located at an opposite side of the first opening ; and the outer end opening has an opening width (D4) in one direction that is greater than or equal to a width (D3) of the upper wall in the one direction, and that is greater than or equal to a width (D2) of the second opening in the one direction. a printing unit that performs printing on a medium using liquid; a liquid container that includes a liquid containing chamber capable of containing the liquid supplied to the printing unit ; an exterior member that covers at least part of the liquid container and defines a horizontal surface ; and a liquid receiving portion that includes a liquid inlet formed in the liquid container and an open portion formed in the horizontal surface of the exterior member , wherein the liquid containing chamber is able to receive the liquid through the liquid receiving portion ; the liquid inlet includes a first opening , which is an inner end opening at an inner end of the liquid inlet , which opens in the liquid containing chamber , wherein the liquid container includes an upper wall that is provided with the first opening , and a second opening located at an opposite side of the first opening ; the open portion is located at a position corresponding to the liquid inlet and includes an outer end opening at an outer end of the open portion , which is located at an opposite side of the first opening ; and the outer end opening has an opening width (D4) in one direction that is greater than or equal to a width (D3) of the upper wall in the one direction, and that is greater than or equal to a width (D2) of the second opening in the one direction.
A method for learning class descriptors for the detection and the automatic location of objects in a video, each object belonging to a class of objects ( j ) from among a set ( J ) of classes, the method using: - a learning base, composed from reference videos and containing annotated frames (( x t ,y t ) 1≤ t≤T ) each comprising one or more labels identifying each object detected in the frames, - the descriptors associated with these labels and learned previously by a preprocessing neural network from the annotated frames of the learning base, - an architecture of neural networks defined by parameters centralized on a plurality of parameter servers , and - a plurality ( M ) of computation entities ( m ) working in parallel, a method in which, for each class of objects ( j ), one of the neural networks of the architecture is trained by using as input data the descriptors and the labels φ k , t z k , t j to define class descriptors Z θ J ^ , each computation entity ( m ) using, for the computation of the class descriptors Z θ J ^ , a version of the parameters ( θ j,m ) of the parameter server on which the entity depends, and returning to this parameter server the parameters updated at the end of its computation, and the parameter servers exchanging with one another the parameters of each computation entity for the training of the neural networks for each class descriptor z θ J ^ . - a learning base, composed from reference videos and containing annotated frames (( x t ,y t ) 1≤ t≤T ) each comprising one or more labels identifying each object detected in the frames, - the descriptors associated with these labels and learned previously by a preprocessing neural network from the annotated frames of the learning base, - an architecture of neural networks defined by parameters centralized on a plurality of parameter servers , and - a plurality ( M ) of computation entities ( m ) working in parallel, a method in which, for each class of objects ( j ), one of the neural networks of the architecture is trained by using as input data the descriptors and the labels φ k , t z k , t j to define class descriptors Z θ J ^ , each computation entity ( m ) using, for the computation of the class descriptors Z θ J ^ , a version of the parameters ( θ j,m ) of the parameter server on which the entity depends, and returning to this parameter server the parameters updated at the end of its computation, and the parameter servers exchanging with one another the parameters of each computation entity for the training of the neural networks for each class descriptor z θ J ^ .
A cooling system for a data center for conveying air to at least one of one or more rack computing systems, comprising: a soft duct comprising: a tube comprising one or more walls; and a passage through at least a portion of the tube; and an air flow control device comprising: a cinching member coupled around the circumference of the tube of the soft duct; and a motor coupled to the tube-adjusting device, wherein the motor is configured to move the cinching member to constrict around at least one of the walls of the tube such that a cross sectional area of a portion of the passage of the soft duct is changed . a soft duct comprising: a tube comprising one or more walls; and a passage through at least a portion of the tube; and a tube comprising one or more walls; and a passage through at least a portion of the tube; and an air flow control device comprising: a cinching member coupled around the circumference of the tube of the soft duct; and a motor coupled to the tube-adjusting device, wherein the motor is configured to move the cinching member to constrict around at least one of the walls of the tube such that a cross sectional area of a portion of the passage of the soft duct is changed .
A composition comprising at least a semiconducting light emitting nanoparticle and a matrix material comprising at least one metal phosphonate polymer, metal xanthate polymer, or a metal carboxylate polymer or a combination thereof.