mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for inspecting a mouth (M) of a container (C) having a base (B) with a punt (P) opposite the container mouth, said apparatus including: at least one light source (12a or 12b or 12c) for directing light energy into the container, off the punt, and out of the container through the container mouth; a light sensor disposed with respect to said at least one light source and the container to receive light energy transmitted through the container mouth; a processor in communication with the light sensor 14; and a display in communication with the processor, wherein said at least one light source (12a or 12b or 12c) is disposed on at least one side of the container so that said light energy is directed through a side wall (W) of the container and onto the punt (P) of the container base such that at least a portion of the light energy is reflected off the punt to extend through the container mouth (M) to said light sensor for use by said processor to develop an image of the container mouth for output to the display for inspection of the container mouth, characterized in that said at least one light source (12a or 12b or 12c) is disposed adjacent to the container base (B) and adjacent a bottom half of the container below a half-height line (H) bisecting the height of the container. at least one light source (12a or 12b or 12c) for directing light energy into the container, off the punt, and out of the container through the container mouth; a light sensor disposed with respect to said at least one light source and the container to receive light energy transmitted through the container mouth; a processor in communication with the light sensor 14; and a display in communication with the processor, wherein said at least one light source (12a or 12b or 12c) is disposed on at least one side of the container so that said light energy is directed through a side wall (W) of the container and onto the punt (P) of the container base such that at least a portion of the light energy is reflected off the punt to extend through the container mouth (M) to said light sensor for use by said processor to develop an image of the container mouth for output to the display for inspection of the container mouth, characterized in that said at least one light source (12a or 12b or 12c) is disposed adjacent to the container base (B) and adjacent a bottom half of the container below a half-height line (H) bisecting the height of the container.
A gripping device having at least two gripping elements , which can be moved towards or away from one another and are arranged on carriages or gripping-element supports , in the drivetrain or mounting of which gripping elements at least one shaft or spindle is located, the rotational or pivot movement of which is permanently coupled with the movement of the gripping elements , wherein a shaft or spindle ends in the housing of the gripping device with a component end , which carries either a magnetic field generator or a magnetic field sensor for detection of the angle of rotation, whilst in the housing opposite the component end either a magnetic field sensor is arranged opposite a component-end-side magnetic field generator or a magnetic field generator is arranged opposite a component-end-side magnetic field sensor .
A method of merging and compressing compact tori plasma within a system comprising a central chamber , diametrically opposed formation sections , a plurality of active magnetic coils disposed about and axially along the formation sections, one or more acceleration sections , a plurality compression sections configured with a conically constricting flux conserver and interposing the formation sections and adjacent acceleration sections and interposing the central chamber and adjacent acceleration sections, and a plurality of active magnetic coils (36N and 36S) disposed about and axially along the acceleration section the steps comprising: forming and accelerating compact tori in a staged symmetric sequence within the formation sections and the acceleration sections towards a mid-plane of the central chamber, passively adiabatically compressing the compact tori within the compression sections, and magnetically compressing the merged compact tori within the central chamber. forming and accelerating compact tori in a staged symmetric sequence within the formation sections and the acceleration sections towards a mid-plane of the central chamber, passively adiabatically compressing the compact tori within the compression sections, and magnetically compressing the merged compact tori within the central chamber.
Heat guard for cooking appliances with a support element and a metal sheet fastened to this support element , wherein the support element is designed in a "U" shape, so that it has a groove between metal strips which are parallel to one another, said groove being built for receiving one of the longitudinal edges of the metal sheet , wherein the support element has at least one associated lug which forms a protrusion which points downward from the upper metal strip and the metal sheet has at least one protrusion , which is attached to its longitudinal edge, wherein the protrusion attached to the longitudinal edge is upwardly arched from the metal sheet and forms a counter piece to the lug of the support element and in this way the said lug rests against a surface of the counter piece and ensures that the metal sheet is fastened to the support element in a stable manner, and wherein the support element has a mounting area attached at both ends, which offers the option of mounting the said support element between lateral strips of the cooking appliance so that a door of the cooking appliance can lean against the other longitudinal edge of the metal sheet and the door can thus be kept in a half open position.
An azeotropic or azeotrope-like composition consisting essentially of 1,3,3-trichloro-3-fluoroprop-1-ene (HCFO-1231 zd) and hydrogen fluoride (HF), wherein the composition consists essentially of from 1 to 99 wt.% hydrogen fluoride (HF) and from 1 to 99 wt.% 1,3,3-trichloro-3-fluoroprop-1-ene (HCFO-1231zd), based on the combined weight of the hydrogen fluoride (HF) and 1,3,3-trichloro-3-fluoroprop-1-ene (HCFO-1231zd); wherein the composition has a boiling point of -10°C ± 0.5°C at a pressure of 69 +/- 14 kPa (10 +/- 2 psia).
A compressor body for a screw compressor, comprising a housing provided with a suction inlet and a discharge end face , said housing being internally provided with a rotor chamber, wherein said housing is provided with a cooling chamber around said rotor chamber, said cooling chamber communicates with said suction inlet , and said cooling chamber is provided with an air inlet communicating with said rotor chamber, the amount of said air inlet is plural, a plurality of said air inlets are a primary air inlet , a first auxiliary air inlet and a second auxiliary air inlet , said primary air inlets having a diameter greater than that of both said first auxiliary air inlet and said second auxiliary air inlet , said rotor chamber comprises a female rotor chamber and a male rotor chamber , said female rotor chamber is configured to accommodate a female rotor and said male rotor chamber is configured to accommodate a male rotor; said primary air inlet is disposed in the middle of said female rotor chamber and said male rotor chamber , characterised in that said housing is internally provided with a spool chamber and in that said primary air inlet is proximate to said discharge end face axially compared to said first auxiliary air inlet and said second auxiliary air inlet , said first auxiliary air inlet is disposed at the bottom of said female rotor chamber , and said second auxiliary air inlet is disposed at the bottom of said male rotor chamber . said housing is provided with a cooling chamber around said rotor chamber, said cooling chamber communicates with said suction inlet , and said cooling chamber is provided with an air inlet communicating with said rotor chamber, the amount of said air inlet is plural, a plurality of said air inlets are a primary air inlet , a first auxiliary air inlet and a second auxiliary air inlet , said primary air inlets having a diameter greater than that of both said first auxiliary air inlet and said second auxiliary air inlet , said rotor chamber comprises a female rotor chamber and a male rotor chamber , said female rotor chamber is configured to accommodate a female rotor and said male rotor chamber is configured to accommodate a male rotor; said primary air inlet is disposed in the middle of said female rotor chamber and said male rotor chamber , characterised in that said housing is internally provided with a spool chamber and in that said primary air inlet is proximate to said discharge end face axially compared to said first auxiliary air inlet and said second auxiliary air inlet , said first auxiliary air inlet is disposed at the bottom of said female rotor chamber , and said second auxiliary air inlet is disposed at the bottom of said male rotor chamber .
A control device that controls a work machine having an autonomous travel function, the control device comprising an image acquiring section that is configured to acquire image data of an image of a work target of the work machine , characterized in that the control device further comprises: a feature recognizing section that is configured to recognize a feature about at least one of a shape, hue and luster of the work target after work, based on the image data acquired by the image acquiring section ; and a control parameter deciding section that is configured to decide at least either (i) a parameter for controlling travel of the work machine or (ii) a parameter for controlling work of the work machine , based on the feature recognized by the feature recognizing section . an image acquiring section that is configured to acquire image data of an image of a work target of the work machine , characterized in that the control device further comprises: a feature recognizing section that is configured to recognize a feature about at least one of a shape, hue and luster of the work target after work, based on the image data acquired by the image acquiring section ; and a control parameter deciding section that is configured to decide at least either (i) a parameter for controlling travel of the work machine or (ii) a parameter for controlling work of the work machine , based on the feature recognized by the feature recognizing section . a feature recognizing section that is configured to recognize a feature about at least one of a shape, hue and luster of the work target after work, based on the image data acquired by the image acquiring section ; and a control parameter deciding section that is configured to decide at least either (i) a parameter for controlling travel of the work machine or (ii) a parameter for controlling work of the work machine , based on the feature recognized by the feature recognizing section .
A pharmaceutical composition or a formulation for use for killing or reducing the number of αvβ3 (avb3) polypeptide-expressing drug resistant cancer cells or tumor cells or drug resistant Cancer Stem Cells (CSCs) in an individual in need thereof, wherein the pharmaceutical composition or a formulation comprises: an integrin αvβ3 antibody capable of specifically binding to an αvβ3 (avb3) integrin polypeptide expressed on the drug resistant cancer or the drug resistant tumor cell, or on the drug resistant CSC, wherein the antibody has an Fc domain or equivalent domain or moiety capable of binding a macrophage and initiating an antibody-dependent cell-mediated cytotoxicity (ADCC) killing of the cell to which the antibody specifically binds, wherein the antibody is the monoclonal antibody LM609, or a humanized version thereof, and wherein the αvβ3 (avb3) polypeptide-expressing drug resistant cancer cells, tumor cells or Cancer Stem Cells (CSCs) are resistant to a Receptor Tyrosine Kinase (RTK) inhibitor. killing or reducing the number of αvβ3 (avb3) polypeptide-expressing drug resistant cancer cells or tumor cells or drug resistant Cancer Stem Cells (CSCs) in an individual in need thereof, wherein the pharmaceutical composition or a formulation comprises: an integrin αvβ3 antibody capable of specifically binding to an αvβ3 (avb3) integrin polypeptide expressed on the drug resistant cancer or the drug resistant tumor cell, or on the drug resistant CSC, wherein the antibody has an Fc domain or equivalent domain or moiety capable of binding a macrophage and initiating an antibody-dependent cell-mediated cytotoxicity (ADCC) killing of the cell to which the antibody specifically binds, wherein the antibody is the monoclonal antibody LM609, or a humanized version thereof, and wherein the αvβ3 (avb3) polypeptide-expressing drug resistant cancer cells, tumor cells or Cancer Stem Cells (CSCs) are resistant to a Receptor Tyrosine Kinase (RTK) inhibitor. an integrin αvβ3 antibody capable of specifically binding to an αvβ3 (avb3) integrin polypeptide expressed on the drug resistant cancer or the drug resistant tumor cell, or on the drug resistant CSC, wherein the antibody has an Fc domain or equivalent domain or moiety capable of binding a macrophage and initiating an antibody-dependent cell-mediated cytotoxicity (ADCC) killing of the cell to which the antibody specifically binds, wherein the antibody is the monoclonal antibody LM609, or a humanized version thereof, and wherein the αvβ3 (avb3) polypeptide-expressing drug resistant cancer cells, tumor cells or Cancer Stem Cells (CSCs) are resistant to a Receptor Tyrosine Kinase (RTK) inhibitor.
Panel-processing plant having a processing station for processing a panel-like workpiece and a transport device for controlled displacement of the workpiece in at least one first linear axis during processing of the workpiece through the processing station, wherein the transport device has two transport units spaced from one another for displacement of the panel-like workpiece over a gap between the two transport units and the processing station contains two sets of processing machines arranged opposite one another at the gap , characterised in that the sets of processing machines have respectively a horizontal transverse support which can be moved within the gap above and below the workpiece in a second linear axis at right-angles to the first linear axis and a third linear axis at right-angles to the first and second linear axis , on which transverse support is arranged respectively a processing unit rotatable about at least two rotational axes to receive a tool .
A wireless communication method, comprising: determining, by a first network node, that a maximum integrity protection enabled data rate capability of a user equipment has been or will be exceeded; and transmitting, by the first network node to a second network node, a message indicating to the second network node that the maximum integrity protection enabled data rate capability has been or will be exceeded, wherein the message indicates a rejection of a request received from the second network node for a PDU session addition configured with integrity protection. determining, by a first network node, that a maximum integrity protection enabled data rate capability of a user equipment has been or will be exceeded; and transmitting, by the first network node to a second network node, a message indicating to the second network node that the maximum integrity protection enabled data rate capability has been or will be exceeded, wherein the message indicates a rejection of a request received from the second network node for a PDU session addition configured with integrity protection.
A therapeutic nanoparticle, wherein said nanoparticle: has a diameter of between 10 nm to 30 nm; and comprises an iron oxide core, a polymer coating comprising dextran, and an inhibitory nucleic acid targeting an immune checkpoint molecule, wherein the immune checkpoint molecule is programmed cell death 1 ligand 1 (PD-L1), that is covalently linked to the nanoparticle. has a diameter of between 10 nm to 30 nm; and comprises an iron oxide core, a polymer coating comprising dextran, and an inhibitory nucleic acid targeting an immune checkpoint molecule, wherein the immune checkpoint molecule is programmed cell death 1 ligand 1 (PD-L1), that is covalently linked to the nanoparticle.
A process for the production of biomass comprising a biological compound selected from the group consisting of phytoene, lycopene, beta-carotene, alpha-carotene, beta-cryptoxanthin, lutein, zeaxanthin, astaxanthin, canthaxanthin, echinenone, 3-hydroxyechinenone, 3'-hydroxyechinenone, adonirubin, violaxanthin, adonixanthin, ubiquinone, vitamin K, vitamin E, retinol, retinal, retinoic acid and retinyl palmitate which is free of active nucleic acid molecules, said process comprises: a) fermenting a genetically modified cell at a temperature between 25°C and 40°C; b) degrading the nucleic acids of the genetically modified cell by changing the temperature to at least 50°C; and c) recovering the biological product isolated from the biomass; wherein the genetically modified cell being capable of producing said biological compound and having a growth optimum between 25°C and 40°C is selected from Yarrowia, Bacillus, Escherichia, Pseudomonas, Paracoccus, Corynebacterium, Candida, Hansenula, Saccharomyces, Mortierella, Schizosaccharomyces, Aspergillus, Fusarium, Trichoderma, Crypthecodinium, Schizochytrium, or Thraustochytrium, furthermore carrying a heterologous nucleic acid sequence encoding a thermophilic Taq I or Pho I nuclease gene with an enzymatic activity of 20% or less compared to the activity of said Taq I or Pho I at optimum temperature which is 65°C ± 5°C for Taq I and 75°C ± 5°C for Pho I, and wherein the degradation is conducted during the pasteurization of the host cell. a) fermenting a genetically modified cell at a temperature between 25°C and 40°C; b) degrading the nucleic acids of the genetically modified cell by changing the temperature to at least 50°C; and c) recovering the biological product isolated from the biomass;
A ball socket assembly , comprising: a housing with an inner bore; a bearing received in said inner bore of said housing, said bearing being made as a monolithic piece of a plastic material, and said bearing having a curved bearing surface which surrounds a ball cavity; a ball stud having a ball portion and a shank portion , said ball portion being received in said ball cavity of said bearing, and said ball portion having an equator; said curved bearing surface of said bearing being in slidable contact with said ball portion of said ball stud on opposite axial sides of said equator; and said plastic material of said bearing comprising 8-12 mass percent polytetrafluoroethylene, 2-6 mass percent carbon fibers, and the remainder acetal. a housing with an inner bore; a bearing received in said inner bore of said housing, said bearing being made as a monolithic piece of a plastic material, and said bearing having a curved bearing surface which surrounds a ball cavity; a ball stud having a ball portion and a shank portion , said ball portion being received in said ball cavity of said bearing, and said ball portion having an equator; said curved bearing surface of said bearing being in slidable contact with said ball portion of said ball stud on opposite axial sides of said equator; and said plastic material of said bearing comprising 8-12 mass percent polytetrafluoroethylene, 2-6 mass percent carbon fibers, and the remainder acetal.
An apparatus for fractionating a suspension containing elongated particles, comprising a plurality of substantially tubular fractionation devices as well as at least one distributor which can be connected to an inflow opening of each fractionation device , wherein each of the substantially tubular fractionation devices has a tubular through-flow region which is surrounded, at least over a portion of its length, by an annular channel , wherein one end of the through-flow region facing away from an inflow opening has a substantially conical connecting piece , which conical connecting piece having an outlet opening which is tapered with respect to its intake end and which optionally opens into a tube with an enlarged cross-section, as well as an outlet coupled to the connecting piece opening into the annular channel , the outlet having, in the direction of flow, a fractionation gap opening at a substantially acute angle between the through-flow region and the annular channel , wherein the annular channel opens into a collecting chamber , wherein optionally, a fractionation device or a further distributor is coupled to an outlet opening of each distributor and wherein optionally, at least one further fractionation device is connected to the outlet opening from each fractionation device , optionally with the interposition of an intermediate piece provided with a rinsing opening .
Oscillating axle for a lifting device , wherein this axle comprises: - an axle bridge at the ends of which are mounted two members contacting the ground; - an axis of oscillation (X3); - a left jack and a right jack , each jack having a rod in contact with the bridge and a body fixed on a fixed part of a chassis of the lifting device , wherein the body forms a chamber in which the rod moves, - a hydraulic circuit interconnecting the chambers of the left jack and right jack , in which a fluid is present at a given pressure, making it possible to press the rods of the left jack and right jack against the bridge ; - at least one solenoid valve on a branch of the hydraulic circuit connected to the chamber of the left jack , and at least one solenoid valve on a branch of the hydraulic circuit connected to the chamber of the right jack , each of these solenoid valves being able to be positioned in an open position, in which the fluid may circulate freely, and a closed position, in which the fluid is trapped in the chamber of the corresponding jack , each of the chambers of the left jack and of the right jack comprising a pressure sensor designed to measure the pressure (P9, P11) of the fluid in each of the chambers , and control means being provided to detect a pressure in one of the chambers characterized in that the control means are provided to detect that a pressure in one of the chambers is greater than a first threshold (P1), and/or a differential (ΔP) between the pressures in each of the chambers that is greater than a second threshold (P2), so as to detect the blocking in the closed position of a solenoid valve , and initiate a security procedure. - an axle bridge at the ends of which are mounted two members contacting the ground; - an axis of oscillation (X3); - a left jack and a right jack , each jack having a rod in contact with the bridge and a body fixed on a fixed part of a chassis of the lifting device , wherein the body forms a chamber in which the rod moves, - a hydraulic circuit interconnecting the chambers of the left jack and right jack , in which a fluid is present at a given pressure, making it possible to press the rods of the left jack and right jack against the bridge ; - at least one solenoid valve on a branch of the hydraulic circuit connected to the chamber of the left jack , and at least one solenoid valve on a branch of the hydraulic circuit connected to the chamber of the right jack , each of these solenoid valves being able to be positioned in an open position, in which the fluid may circulate freely, and a closed position, in which the fluid is trapped in the chamber of the corresponding jack ,