mhurhangee/patent-ind-claim-en huggingface dataset:
Wood log or stub splitting apparatus comprising a support structure that includes a framework and a vertical upright , a hydraulic jack comprising a cylinder and a stem bearing a splitting blade displaceable between an inoperative receded position and an advanced splitting position with respect to a support surface of a wood log (P) to be split, an actuation unit of the linear actuator, control means of said said actuation unit to displace said splitting blade from said receded position to said advanced position and vice versa, said control means including safety means requiring the action of both of the operator's hands to perform splitting operation, in which said actuation unit is configured to be rendered operational via said control means in order to initially move said splitting blade from the receded position to an abutment position corresponding to the contact between the splitting blade and an end of the wood log (P) to be split, characterised in that the cylinder of the hydraulic jack is articulated inferiorly to a rotatable bracket provided on top of said vertical upright of the support structure , said rotatable bracket including a contact switch and said upright including an abutment , in that a resistance applied to said blade causes the oscillation of the cylinder , or of the hydraulic jack , thanks to the rotation of the brackets which will also move the contact switch away from the relative counteracting means thus stopping the actuation unit of the apparatus, the hydraulic jack being rotatable between a first angular position, in which said actuation unit can be made operative through said control means , and a second angular position, corresponding to the application - onto the blade - of said resistance against the displacement thereof towards the advanced position, in which said actuation unit is made temporarily inoperative, so as to stop the displacement of the blade towards said advanced position.
An information processing device comprising: a communication unit configured to perform wireless communication according to an IEEE 802.11 standard, and a control unit configured to receive an aggregated MAC protocol data unit, A-MPDU, subframe from another information processing device, the A-MPDU subframe having backward compatibility and including a media access control, MAC, header having an address of a transmission source, TA, and at least one of an address of a transmission destination, RA, or an identifier of a group, upon detecting a frame check sequence, FCS, up to the media access control, MAC, header of the A-MPDU subframe, in case where there is no error in data of the MAC header of the A-MPDU subframe, start a process of stopping reception of an A-MPDU including the A-MPDU subframe based on at least one of the TA, the RA, or the identifier of the group included in the MAC header of the A-MPDU subframe, in response to starting the process of stopping the reception of the A-MPDU, determine whether the transmission destination or the transmission source of the A-MPDU of which the reception is stopped is not an information processing apparatus to which the information processing device is connected, and set a value for a clear channel assessment threshold for a transmission from a default value to an increased value in response to determining that the transmission destination TA or the transmission source RA of the A-MPDU of which the reception is stopped is not the information processing apparatus to which the information processing device is connected. a communication unit configured to perform wireless communication according to an IEEE 802.11 standard, and a control unit configured to receive an aggregated MAC protocol data unit, A-MPDU, subframe from another information processing device, the A-MPDU subframe having backward compatibility and including a media access control, MAC, header having an address of a transmission source, TA, and at least one of an address of a transmission destination, RA, or an identifier of a group, upon detecting a frame check sequence, FCS, up to the media access control, MAC, header of the A-MPDU subframe, in case where there is no error in data of the MAC header of the A-MPDU subframe, start a process of stopping reception of an A-MPDU including the A-MPDU subframe based on at least one of the TA, the RA, or the identifier of the group included in the MAC header of the A-MPDU subframe, in response to starting the process of stopping the reception of the A-MPDU, determine whether the transmission destination or the transmission source of the A-MPDU of which the reception is stopped is not an information processing apparatus to which the information processing device is connected, and set a value for a clear channel assessment threshold for a transmission from a default value to an increased value in response to determining that the transmission destination TA or the transmission source RA of the A-MPDU of which the reception is stopped is not the information processing apparatus to which the information processing device is connected.
A reconfigurable modular antenna system comprising: a first module comprising at least a first part of a first antenna system ; a second replaceable module comprising at least a second part of the first antenna system and a part of a second antenna system ; and an interconnect between the first module and the second replaceable module that couples the first part of the first antenna system to the second part of the first antenna system to form the first antenna system , wherein the first antenna system is configured to operate in a first frequency band and the second antenna system is configured to operate in a second frequency band , different to the first frequency band , wherein the second replaceable module comprises radiator elements of the first antenna system that are interleaved with radiator elements of the second antenna system , and wherein the interleaving of radiator elements comprises a first array of groups of higher frequency radiator elements , each group of higher frequency radiator elements being configured to lie, within surrounding conductive separation walls , on different arms of virtual cross motifs aligned with and inclined at 45° to a common axis ; and a second array of groups of lower frequency radiator elements , each group of lower frequency radiator elements being configured to lie, outside one of the surrounding conductive separation walls, on different arms of virtual cross motifs aligned with and inclined at 45° to the common axis. a first module comprising at least a first part of a first antenna system ; a second replaceable module comprising at least a second part of the first antenna system and a part of a second antenna system ; and an interconnect between the first module and the second replaceable module that couples the first part of the first antenna system to the second part of the first antenna system to form the first antenna system , wherein the first antenna system is configured to operate in a first frequency band and the second antenna system is configured to operate in a second frequency band , different to the first frequency band , wherein the second replaceable module comprises radiator elements of the first antenna system that are interleaved with radiator elements of the second antenna system , and wherein the interleaving of radiator elements comprises a first array of groups of higher frequency radiator elements , each group of higher frequency radiator elements being configured to lie, within surrounding conductive separation walls , on different arms of virtual cross motifs aligned with and inclined at 45° to a common axis ; and a second array of groups of lower frequency radiator elements , each group of lower frequency radiator elements being configured to lie, outside one of the surrounding conductive separation walls, on different arms of virtual cross motifs aligned with and inclined at 45° to the common axis.
A method for the chromatographic separation of a petroleum vacuum resid de-asphalted oil (DAO) boiling above 538 °C (1000°F) comprising: a. passing a mixture of between about 2 grams and 4 grams of said vacuum resid de-asphalted oil (DAO) through preparative high performance liquid chromatographic columns, including a polars column to separate polars, a main column to separate saturates from aromatics, and a sulfides column to separate sulfides, to separate said DAO into saturates, aromatics, sulfides, and polars and collecting the separated saturates, aromatics, sulfides and polars fractions; and b. passing said aromatics fraction through a preparative high performance liquid chromatographic [3-(2,4-dinitroanilino-) propyl]-silica gel (DNAP-silica) column at temperatures lower than 0°C to fractionate the aromatics into different Classes based upon aromatic ring size, and collecting separated 1-ring, 2-ring, 3-ring and 4+-ring aromatic fractions. a. passing a mixture of between about 2 grams and 4 grams of said vacuum resid de-asphalted oil (DAO) through preparative high performance liquid chromatographic columns, including a polars column to separate polars, a main column to separate saturates from aromatics, and a sulfides column to separate sulfides, to separate said DAO into saturates, aromatics, sulfides, and polars and collecting the separated saturates, aromatics, sulfides and polars fractions; and b. passing said aromatics fraction through a preparative high performance liquid chromatographic [3-(2,4-dinitroanilino-) propyl]-silica gel (DNAP-silica) column at temperatures lower than 0°C to fractionate the aromatics into different Classes based upon aromatic ring size, and collecting separated 1-ring, 2-ring, 3-ring and 4+-ring aromatic fractions.
An optical connector for optically coupling a first optical transmission path formed on or embedded inside a substrate and a second optical transmission path , comprising: a first connector part disposed so as to cover at least a part of said first optical transmission path and a part of the substrate , said first connector part including a first positioning portion for performing positioning with respect to said first optical transmission path ; a second positioning portion for performing positioning of said second optical transmission path held by a second connector part connected to said first connector part , said second positioning portion being an insertion hole into which a guide pin for connection with said second connector part is to be inserted; and a measurement auxiliary portion formed so as to correspond to arrangement of said second positioning portion , wherein at least a part of said first positioning portion and at least a part of said measurement auxiliary portion are formed at positions that can be visually recognized simultaneously from the same direction, wherein said measurement auxiliary portion is formed as a recessed shape or a protruding shape with respect to a surface of said first connector part between said insertion hole and a front wall of said first positioning portion and formed at a position on an insertion line of the guide pin in the first connector part . said first connector part including a first positioning portion for performing positioning with respect to said first optical transmission path ; a second positioning portion for performing positioning of said second optical transmission path held by a second connector part connected to said first connector part , said second positioning portion being an insertion hole into which a guide pin for connection with said second connector part is to be inserted; and a measurement auxiliary portion formed so as to correspond to arrangement of said second positioning portion , wherein at least a part of said first positioning portion and at least a part of said measurement auxiliary portion are formed at positions that can be visually recognized simultaneously from the same direction, wherein said measurement auxiliary portion is formed as a recessed shape or a protruding shape with respect to a surface of said first connector part between said insertion hole and a front wall of said first positioning portion and formed at a position on an insertion line of the guide pin in the first connector part .
A method of actuating a valve in a subterranean well , the method characterized in comprising: storing energy as a result of a differential pressure across a closed flapper-type closure device of the valve ; and releasing at least a portion of the stored energy while opening the flapper-type closure device , wherein the valve includes a member which displaces to move the flapper-type closure device between open and closed positions, a tubular opening prong assembly slidingly received within the member and a first biasing device which biases the member to extend relative to the tubular opening prong assembly , wherein the member exerts an opening force against the closed flapper-type closure device during the step of storing energy, and wherein the opening force is resisted by a differential pressure. storing energy as a result of a differential pressure across a closed flapper-type closure device of the valve ; and releasing at least a portion of the stored energy while opening the flapper-type closure device , wherein the valve includes a member which displaces to move the flapper-type closure device between open and closed positions, a tubular opening prong assembly slidingly received within the member and a first biasing device which biases the member to extend relative to the tubular opening prong assembly , wherein the member exerts an opening force against the closed flapper-type closure device during the step of storing energy, and wherein the opening force is resisted by a differential pressure.
A hybrid light emitting diode for emitting single photons, wherein it contains a photon emitter in the form of a transition metal dichalcogenide (TMD) monolayer and a source of light exciting said emitter , in the form of an epitaxial layer structure of a light emitting diode made of group-III nitrides on a crystalline substrate of gallium nitride, with said structure being composed of, counted from the crystalline substrate , a lower n-type conductivity layer , a tunnel junction , a hole injection layer , an active region , an electron injection layer , and an upper n-type conductivity layer , wherein the photon emitter is placed on the upper surface of the upper n-type conductivity layer , in a light emitting region surrounded by a region of an epitaxial structure that is made electrically inactive by the ion implantation method, extending vertically from the upper surface of the electron injection layer to the inside of the lower n-type conductivity layer , the surface area of the light emitting region on the upper surface of the electron injection layer ranges from 7 to 5000 μm 2 and can be inscribed into a circle with the diameter (D) of at least 3 μm, while the active region of the light emitting diode is composed, counted from the crystalline substrate , of a lower barrier layer , a quantum well layer and an upper barrier layer , wherein the lower and upper barrier layers are made of an undoped In x Ga 1-x N indium gallium nitride alloy, wherein the indium content x ranges from 0.01 to 0.08, while the quantum well layer is made of an undoped In y Ga 1-y N indium gallium nitride alloy, wherein the indium content y ranges from 0.1 to 0.2.
A method for identifying a nucleic acid template, comprising: (a) providing a plurality of primer-template hybrids, wherein a first hybrid of the plurality comprises a first template hybridized to a first primer, and wherein a second hybrid of the plurality comprises a second template hybridized to a second primer, the second primer comprising a ternary complex inhibitor moiety at the 3' end, wherein the second hybrid is formed by hybridizing a precursor primer to a plurality of templates, extending the precursor primer to incorporate a nucleotide comprising a ligand and then binding the ligand to a receptor to form the ternary complex inhibitor moiety; (b) delivering polymerases and nucleotides to the plurality, whereby the first hybrid binds a polymerase and nucleotide to form a stabilized ternary complex, wherein the first primer comprises a blocking moiety that precludes enzymatic incorporation of the nucleotide into the first hybrid and whereby the second hybrid does not bind a polymerase and nucleotide to form a stabilized ternary complex; and (c) detecting the stabilized ternary complex to identify the first template. (a) providing a plurality of primer-template hybrids, wherein a first hybrid of the plurality comprises a first template hybridized to a first primer, and wherein a second hybrid of the plurality comprises a second template hybridized to a second primer, the second primer comprising a ternary complex inhibitor moiety at the 3' end, wherein the second hybrid is formed by hybridizing a precursor primer to a plurality of templates, extending the precursor primer to incorporate a nucleotide comprising a ligand and then binding the ligand to a receptor to form the ternary complex inhibitor moiety; (b) delivering polymerases and nucleotides to the plurality, whereby the first hybrid binds a polymerase and nucleotide to form a stabilized ternary complex, wherein the first primer comprises a blocking moiety that precludes enzymatic incorporation of the nucleotide into the first hybrid and whereby the second hybrid does not bind a polymerase and nucleotide to form a stabilized ternary complex; and (c) detecting the stabilized ternary complex to identify the first template.
A computer-implemented method (S100) for managing blood loss of a patient, comprising: tracking a quantity of a fluid administered to the patient intravenously (S110); the method characterized by further comprising: receiving an image of a physical sample (S120; S210); extracting a feature from an area of the image correlated with the physical sample (S130; S220); estimating a red blood cell content of the physical sample based on the extracted feature (S140; S230); estimating an extracorporeal blood volume of the physical sample based on the estimated red blood cell content of the physical sample (S150); and estimating a hematocrit of the patient based on a previous hematocrit of the patient, the quantity of the fluid administered to the patient, and the estimated extracorporeal blood volume of the physical sample (S160). tracking a quantity of a fluid administered to the patient intravenously (S110); the method characterized by further comprising: receiving an image of a physical sample (S120; S210); extracting a feature from an area of the image correlated with the physical sample (S130; S220); estimating a red blood cell content of the physical sample based on the extracted feature (S140; S230); estimating an extracorporeal blood volume of the physical sample based on the estimated red blood cell content of the physical sample (S150); and estimating a hematocrit of the patient based on a previous hematocrit of the patient, the quantity of the fluid administered to the patient, and the estimated extracorporeal blood volume of the physical sample (S160).
Component for a projection exposure apparatus , comprising 1.1. an encapsulated housing , 1.2. at least one printed circuit board arranged in the housing and having electronic component parts , wherein the electronic component parts are arranged in the housing , and 1.3. a heat conducting structure for dissipating heat from the electronic component parts to an outer side of the housing , 1.4. wherein one or a plurality of vacuum-tight bushings for electrical lines and/or for connecting one or a plurality of fluid lines is or are arranged in the housing , 1.5. wherein a selected subset of the component parts and/or the printed circuit board are/is in thermally conductive contact with the heat conducting structure via thermal contact elements , 1.6. wherein the printed circuit board is embodied in a multilayered fashion and a thermal path of at least one of the electronic component parts is decoupled from an electrical path thereof, and 1.7. wherein the thermal contact elements are composed of an electrically insulating material. 1.1. an encapsulated housing , 1.2. at least one printed circuit board arranged in the housing and having electronic component parts , wherein the electronic component parts are arranged in the housing , and 1.3. a heat conducting structure for dissipating heat from the electronic component parts to an outer side of the housing , 1.4. wherein one or a plurality of vacuum-tight bushings for electrical lines and/or for connecting one or a plurality of fluid lines is or are arranged in the housing , 1.5. wherein a selected subset of the component parts and/or the printed circuit board are/is in thermally conductive contact with the heat conducting structure via thermal contact elements , 1.6. wherein the printed circuit board is embodied in a multilayered fashion and a thermal path of at least one of the electronic component parts is decoupled from an electrical path thereof, and 1.7. wherein the thermal contact elements are composed of an electrically insulating material.
A compound for use in a method of softening calcified plaque in a treatment zone of a blood vessel comprising a plaque matrix; wherein a bolus of a composition comprising the plaque-softening compound is applied to the treatment zone of the blood vessel, and wherein the plaque-softening compound is a 4-amino-1,8-naphthalimide compound of formula (V): or wherein the 4-amino-1,8-naphthalimide compound has a structure selected from the group consisting of structures II, III and IV: and wherein R, R', and Q are each independently selected from the group consisting of straight-chain and branched chain alkyl groups having from 2 to 200 carbons, substituted with one or more ether groups and optionally substituted with one or more amide or amine groups; and wherein X is hydrogen.