mhurhangee/patent-ind-claim-en huggingface dataset:
An agricultural greenhouse utilizing sunlight in which skylights provided on a ceiling part are closed in the daytime and the skylights provided on the ceiling part are opened in the night-time, being characterized in that at least a CO 2 supply means supplying carbon dioxide, a heat-ray shielding means and a dehumidification and cooling means cooling an inside of the agricultural greenhouse are provided inside the agricultural greenhouse, the heat-ray shielding means is formed using a heat-ray reflecting film having an average transmittance at 80% or more for light with wavelength of 400-700 nm and an average reflectance at 70% or more for light with wavelength of 800-1200 nm, and a plurality of through holes are formed in the heat-ray shielding means at a predetermined interval. at least a CO 2 supply means supplying carbon dioxide, a heat-ray shielding means and a dehumidification and cooling means cooling an inside of the agricultural greenhouse are provided inside the agricultural greenhouse, the heat-ray shielding means is formed using a heat-ray reflecting film having an average transmittance at 80% or more for light with wavelength of 400-700 nm and an average reflectance at 70% or more for light with wavelength of 800-1200 nm, and a plurality of through holes are formed in the heat-ray shielding means at a predetermined interval.
A polypeptide for use in treating ineffective erythropoiesis in a thalassemia patient, wherein the polypeptide comprises an amino acid sequence that is at least 90% identical to the sequence of amino acids 29-109 of SEQ ID NO: 1, and wherein the polypeptide comprises an acidic amino acid at the position corresponding to position 79 of SEQ ID NO: 1, wherein the polypeptide is capable of binding to GDF8 and/or GOF11.
Refrigeration appliance with a carcass and a door fastened to the carcass such that it can pivot about an axis up to a maximum opening angle, which enclose an interior , with at least two carriers for goods to be refrigerated which are accommodated one above the other in the interior , of which the lower is guided on rails and can be slid outwards from a rear end stop when the door is open, wherein one of the rails is arranged on a side wall of the carcass, to which the door is fastened, wherein at least one door rack is attached to an inner side of the door , and wherein the lower carrier for goods to be refrigerated , when it is situated at the rear end stop, is largely covered by the upper carrier for goods to be refrigerated , characterised in that , when it is situated at a front end stop when the door is opened by at least 90°, it completely emerges below the upper carrier for goods to be refrigerated , that the front end stop is defined by a contact between the lower carrier for goods to be refrigerated and the door rack , or that it has a front end stop, which stops the lower carrier for goods to be refrigerated before contact with the door rack when the door is opened by at least 90°, and that the door rack has a depth which amounts to 0.4 to 0.6 times the depth of the carrier for goods to be refrigerated , and that the door rack has a depth of at least 13 cm.
A method comprising: receiving reference signals over a plurality of TX beams from a base station by a user equipment, UE , in a beamforming wireless communication network, wherein each TX beam has a TX beam identifier ; performing measurements over the plurality of TX beams and determining a corresponding beam metric value ; grouping the plurality of TX beams into multiple beam groups, wherein the grouping is determined based on an association between each TX beam and a number of UE receive panels or UE antenna subarrays ; and characterized by reporting the beam value metrics of the plurality of TX beams in an order associated with positions of the TX beams in each beam group, wherein each beam group is implicitly indicated by a number of TX beams per beam group. receiving reference signals over a plurality of TX beams from a base station by a user equipment, UE , in a beamforming wireless communication network, wherein each TX beam has a TX beam identifier ; performing measurements over the plurality of TX beams and determining a corresponding beam metric value ; grouping the plurality of TX beams into multiple beam groups, wherein the grouping is determined based on an association between each TX beam and a number of UE receive panels or UE antenna subarrays ; and characterized by reporting the beam value metrics of the plurality of TX beams in an order associated with positions of the TX beams in each beam group, wherein each beam group is implicitly indicated by a number of TX beams per beam group.
A semiconductor device, comprising: a layered structure (111-114) forming multiple carrier channels extending in parallel at different depths of a depth direction of the semiconductor device; a gate electrode having multiple gate fingers of different lengths in the depth direction penetrating the layered structure to reach and control corresponding carrier channels at the different depths; and a carrier electrode having multiple carrier fingers of different lengths in the depth direction penetrating the layered structure to access the corresponding carrier channels, wherein the carrier fingers are interdigitated with the gate fingers. a layered structure (111-114) forming multiple carrier channels extending in parallel at different depths of a depth direction of the semiconductor device; a gate electrode having multiple gate fingers of different lengths in the depth direction penetrating the layered structure to reach and control corresponding carrier channels at the different depths; and a carrier electrode having multiple carrier fingers of different lengths in the depth direction penetrating the layered structure to access the corresponding carrier channels, wherein the carrier fingers are interdigitated with the gate fingers.
A wire connection terminal device comprising a main body and a pressing/moving unit assembled with the main body , the main body defining a chamber , a metal leaf spring and a terminal pin component being mounted in the chamber , the main body being formed with a wire inlet in communication with the chamber , the pressing/moving unit having a shafted section , a cam section connected with the shafted section , a force application section formed on the cam section and a press section formed on the cam section , the shafted section being pivotally connected on a shaft post of the main body , whereby the cam section can freely swing within the chamber , wherein pressing the force application section drives the press section to press a head end of the metal leaf spring so as to allow a conductive wire to be extracted out of the main body , characterized by a length between the force application section and the shafted section being smaller than a length between the press section and the shafted section . the pressing/moving unit having a shafted section , a cam section connected with the shafted section , a force application section formed on the cam section and a press section formed on the cam section , the shafted section being pivotally connected on a shaft post of the main body , whereby the cam section can freely swing within the chamber , wherein pressing the force application section drives the press section to press a head end of the metal leaf spring so as to allow a conductive wire to be extracted out of the main body , characterized by a length between the force application section and the shafted section being smaller than a length between the press section and the shafted section .
A method of generating a concentration gradient eluent flow, that includes at least two different generants, to a chromatographic separation device, the method comprising: pumping a liquid to an electrolytic eluent generating device; applying a first controlling signal to a first eluent generator to generate a first generant concentration, in which the first eluent generator includes a first generation chamber having a first volume; generating a first generant and a first gas byproduct with the first eluent generator; adding the first generant and the first gas byproduct to the liquid; applying a second controlling signal to a second eluent generator to generate a second generant concentration, in which the second eluent generator includes a second generation chamber having a second volume; generating a second generant and a second gas byproduct with the second eluent generator; adding the second generant and the second gas byproduct to the liquid; and increasing or decreasing at least one of a member selected from the first controlling signal or the second controlling signal as a function of time to generate the concentration gradient eluent flow, characterized in that a sum of the first volume and the second volume ranges from 1 microliter to 100 microliters. pumping a liquid to an electrolytic eluent generating device; applying a first controlling signal to a first eluent generator to generate a first generant concentration, in which the first eluent generator includes a first generation chamber having a first volume; generating a first generant and a first gas byproduct with the first eluent generator; adding the first generant and the first gas byproduct to the liquid; applying a second controlling signal to a second eluent generator to generate a second generant concentration, in which the second eluent generator includes a second generation chamber having a second volume; generating a second generant and a second gas byproduct with the second eluent generator; adding the second generant and the second gas byproduct to the liquid; and increasing or decreasing at least one of a member selected from the first controlling signal or the second controlling signal as a function of time to generate the concentration gradient eluent flow, characterized in that a sum of the first volume and the second volume ranges from 1 microliter to 100 microliters.
A drug delivery composition, comprising: a polymer matrix comprising: two or more layers, wherein each layer comprises chitosan and pectin which are crosslinked; an agent comprising: one or more of a therapeutic agent, a prophylactic agent, a diagnostic agent, or a nutraceutical agent, at least a portion of the agent entrapped within the layers of the polymer matrix, between the layers of the polymer matrix, or entrapped within and between the layers of the polymer matrix; and a protease inhibitor, an absorption enhancer, or a combination thereof, in an amount effective to preserve bioactivity of the agent under conditions present in the gastrointestinal tract; and an enteric coating or capsule encapsulating the polymer matrix. two or more layers, wherein each layer comprises chitosan and pectin which are crosslinked; an agent comprising: one or more of a therapeutic agent, a prophylactic agent, a diagnostic agent, or a nutraceutical agent, at least a portion of the agent entrapped within the layers of the polymer matrix, between the layers of the polymer matrix, or entrapped within and between the layers of the polymer matrix; and a protease inhibitor, an absorption enhancer, or a combination thereof, in an amount effective to preserve bioactivity of the agent under conditions present in the gastrointestinal tract; and an enteric coating or capsule encapsulating the polymer matrix.
An electronic device comprising: a substrate ; an organic electronic device formed on the substrate ; an encapsulation stack comprising : a second encapsulation layer formed on the organic electronic device , the second encapsulation layer comprising an encapsulation resin and a moisture adsorbent component and having a tensile modulus of elasticity of 500 MPa to 1000 MPa at room temperature, a first encapsulation layer formed on the second encapsulation layer , the first encapsulation layer having a tensile modulus of elasticity of 0.001 MPa to 500 MPa at room temperature, and a metal layer on the first encapsulation layer , wherein the encapsulation stack is attached to an entire surface of the organic electronic device . a substrate ; an organic electronic device formed on the substrate ; an encapsulation stack comprising : a second encapsulation layer formed on the organic electronic device , the second encapsulation layer comprising an encapsulation resin and a moisture adsorbent component and having a tensile modulus of elasticity of 500 MPa to 1000 MPa at room temperature, a first encapsulation layer formed on the second encapsulation layer , the first encapsulation layer having a tensile modulus of elasticity of 0.001 MPa to 500 MPa at room temperature, and a metal layer on the first encapsulation layer , wherein the encapsulation stack is attached to an entire surface of the organic electronic device . a second encapsulation layer formed on the organic electronic device , the second encapsulation layer comprising an encapsulation resin and a moisture adsorbent component and having a tensile modulus of elasticity of 500 MPa to 1000 MPa at room temperature, a first encapsulation layer formed on the second encapsulation layer , the first encapsulation layer having a tensile modulus of elasticity of 0.001 MPa to 500 MPa at room temperature, and a metal layer on the first encapsulation layer , wherein the encapsulation stack is attached to an entire surface of the organic electronic device .
Computer-implemented method for detecting the position of at least one sought notable point (VL, VP, CO) of an ophthalmic lens provided with temporary markings that indicate notable points (VL, VP, CO) of this lens, characterized in that it comprises: - a step of acquiring an image of the temporary markings of the ophthalmic lens , - a step of reading a register each record of which comprises data representative of the arrangement of the temporary markings of a referenced type of ophthalmic lenses, to find a corresponding record the arrangement of the temporary markings of which corresponds, with a certain level of correspondence, to the arrangement of some at least of the temporary markings of the ophthalmic lens the image of which was acquired; and - a step of determining the position of said at least one sought notable point (VL, VP, CO) depending on the match between the temporary markings of the ophthalmic lens and the data representative of the arrangement of the temporary markings of the referenced type of ophthalmic lenses of the corresponding record, and in that , to find the corresponding record, for each read record of the register, a level of correspondence between the arrangement of the temporary markings of this read record and the arrangement of all the temporary markings of the ophthalmic lens the image of which was acquired is determined. - a step of acquiring an image of the temporary markings of the ophthalmic lens , - a step of reading a register each record of which comprises data representative of the arrangement of the temporary markings of a referenced type of ophthalmic lenses, to find a corresponding record the arrangement of the temporary markings of which corresponds, with a certain level of correspondence, to the arrangement of some at least of the temporary markings of the ophthalmic lens the image of which was acquired; and - a step of determining the position of said at least one sought notable point (VL, VP, CO) depending on the match between the temporary markings of the ophthalmic lens and the data representative of the arrangement of the temporary markings of the referenced type of ophthalmic lenses of the corresponding record, and
A polymorph of an anhydrate of (R)-2-hydroxy-2-methyl-4-(2,4,5-trimethyl-3,6-dioxocyclohexa-1,4-dienyl)butanamide, wherein the polymorph is selected from the group consisting of Form I and Form II; wherein a powder X-ray diffraction pattern for polymorph Form I comprises characteristic peaks at least at the following angular positions, wherein the angular positions may vary by ± 0.2: 12.06, 15.33, 17.03, and 17.26; wherein a powder X-ray diffraction pattern for polymorph Form II comprises characteristic peaks at least at the following angular positions, wherein the angular positions may vary by ± 0.2: 9.63, 10.85, 11.33, and 19.33; and wherein the XRPD pattern is generated at 25 °C.
Conveyor ware washer , in particular an industrial conveyor ware washer , having a conveying device for conveying wash ware through the individual treatment zones of the conveyor ware washer , wherein the conveyor ware washer has at least two wash zones , which are arranged one after the other when viewed in the conveying direction (T) of the wash ware and in which, in each case, wash liquid from a wash tank which is associated with one of the relevant washing zones is sprayed onto the wash ware, wherein the conveyor ware washer has at least one final rinse zone which, when viewed in the conveying direction (T) of the wash ware, is arranged downstream of the at least two wash zones , in which final rinse zone fresh water, where applicable with added rinse aid, is sprayed onto the wash ware, and wherein the conveyor ware washer additionally has an exhaust air system for removing exhaust air from the conveyor ware washer , wherein the one of the at least two wash zones which, when viewed in the conveying direction of the wash ware, is arranged closer to the at least one final rinse zone , has associated therewith a heating device , wherein the heating device is realized for heating the wash liquid, which is to be sprayed in the relevant wash zone, to a previously established or establishable first minimum process temperature, and characterised in that , in addition, there is provided a heat pump system for transmitting at least part of the thermal energy of the exhaust air, which has been removed or is to be removed from the conveyor ware washer , as useful heat to the wash liquid, which is to be sprayed in that wash zone of the at least two wash zones which, when viewed in the conveying direction (T) of the wash ware, is arranged further away from the at least one final rinse zone , wherein the wash liquid, which is to be sprayed in the relevant wash zone of the at least two wash zones which is arranged closer to the at least one final rinse zone , is not heated by means of the useful heat which is supplied by the heat pump system, and wherein the first minimum process temperature of the wash liquid, which is to be sprayed in the wash zone (12; 13) which is arranged closer to the at least one final rinse zone , is at least 71°C.
Method for producing a rod-shaped or tubular connecting element , provided with an end surface , from a connecting element semifinished product made of metal, in particular for producing a plug-in end of a drill bit or chisel, said plug-in end being fastened in an axially movable manner in a tool receptacle of a hammer drill, wherein a connecting element semifinished product is made available, wherein at least one rotary entrainment surface is formed into the connecting element semifinished product by axially inserting the connecting element semifinished product under force in the direction of the longitudinal axis of the connecting element semifinished product into a die longitudinal opening of a die , and at least one locking depression is stamped into the connecting element semifinished product by radially feeding in at least one forming body which is movable in the same die .
A magnetic mirror machine (2100; 2200; 3100; 3200) for plasma confinement, comprising a plurality of longitudinally disposed superconductor coils arranged for producing an open-field-line plasma confinement area , said plasma confinement area at each of two ends being limited by a respective mirror area of increased magnetic flux density relative to a central area of said plasma confinement area , wherein a superconductor coil of said of plurality of superconductor coils is located adjacent to said mirror area and said superconductor coil has a cross-section, in a plane intersecting a magnetic field line through said mirror area, having an elongate shape in a direction along said magnetic field line , wherein said plurality of superconductor coils comprises: a first magnet system comprising a first plurality of concentrically arranged circular-loop superconductor coils, comprising: a first superconductor coil arranged to carry a current in a first direction; and a second superconductor coil arranged to carry a current in a second direction opposite to said first direction; and a second magnet system comprising a second plurality of concentrically arranged circular-loop coils, arranged with mirror symmetry with respect to said first magnet system relative to a symmetry plane (P) located between said first magnet system and said second magnet system. a first magnet system comprising a first plurality of concentrically arranged circular-loop superconductor coils, comprising: a first superconductor coil arranged to carry a current in a first direction; and a second superconductor coil arranged to carry a current in a second direction opposite to said first direction; and a first superconductor coil arranged to carry a current in a first direction; and a second superconductor coil arranged to carry a current in a second direction opposite to said first direction; and a second magnet system comprising a second plurality of concentrically arranged circular-loop coils, arranged with mirror symmetry with respect to said first magnet system relative to a symmetry plane (P) located between said first magnet system and said second magnet system.
A method comprising, by a first network apparatus configured to operate at a first site of a network: receiving , from a first host located in the first site, a data packet destined to a second host located in a second site, wherein the first site and the second site are different, and wherein the data packet comprises an identifier of a first group to which the first host belongs; determining, based on the identifier of the first group in the data packet, that the first group is a source group; determining that an identity of a second group to which the second host belongs is not available at the first network node; sending , to a second network apparatus, a request for an identifier of the second group to which the second host belongs, wherein the request comprises an address of the second host; in response to sending the request for the identity of the second group, receiving , from the second network apparatus, a response comprising the identifier of the second group; determining, based on the received identifier, that the second group is a destination group; applying , to the data packet, one or more policies determined based on a combination of the source group and the destination group; and causing the data packet to be routed to the second host. receiving , from a first host located in the first site, a data packet destined to a second host located in a second site, wherein the first site and the second site are different, and wherein the data packet comprises an identifier of a first group to which the first host belongs; determining, based on the identifier of the first group in the data packet, that the first group is a source group; determining that an identity of a second group to which the second host belongs is not available at the first network node; sending , to a second network apparatus, a request for an identifier of the second group to which the second host belongs, wherein the request comprises an address of the second host; in response to sending the request for the identity of the second group, receiving , from the second network apparatus, a response comprising the identifier of the second group; determining, based on the received identifier, that the second group is a destination group; applying , to the data packet, one or more policies determined based on a combination of the source group and the destination group; and causing the data packet to be routed to the second host.