mhurhangee/ep-ind-claims huggingface dataset:
A device for stopping a flow of fluid, comprising: a tube; a tube holder, keeping the tube in a looped configuration; and a movable part, pressing the looped configuration of the tube; wherein the movable part presses the looped configuration to make a bend on the tube, which results in the stopping of a flow of fluid passed through the tube, and the tube returns from the configuration having the bend when putting the movable part back into place, allowing the fluid to flow through the tube 1 again, characterized in that: the tube holder keeps the looped configuration by crossing the tube over itself into a loop; and the movable part presses the looped configuration of the tube so as to relatively bring a crossed portion of the looped configuration, in which the tube is crossed, close to a portion of the looped configuration which faces to the crossed portion. a tube; a tube holder, keeping the tube in a looped configuration; and a movable part, pressing the looped configuration of the tube; wherein the movable part presses the looped configuration to make a bend on the tube, which results in the stopping of a flow of fluid passed through the tube, and the tube returns from the configuration having the bend when putting the movable part back into place, allowing the fluid to flow through the tube 1 again, characterized in that: the tube holder keeps the looped configuration by crossing the tube over itself into a loop; and the movable part presses the looped configuration of the tube so as to relatively bring a crossed portion of the looped configuration, in which the tube is crossed, close to a portion of the looped configuration which faces to the crossed portion. the tube holder keeps the looped configuration by crossing the tube over itself into a loop; and the movable part presses the looped configuration of the tube so as to relatively bring a crossed portion of the looped configuration, in which the tube is crossed, close to a portion of the looped configuration which faces to the crossed portion.
A calibration method of operating an output circuit block for analog neural network non-volatile memory array cells, comprising: performing leakage or offset calibration; measuring leakage of the analog neural network non-volatile memory array cells using analog-to-digital conversion or measuring offset from the analog neural network non-volatile memory array cells using analog-to-digital conversion, and storing the measured digital outputs in a register; and converting a neuron output by counting up digital output bits from the neuron and then subtracting the stored measured digital outputs. performing leakage or offset calibration; measuring leakage of the analog neural network non-volatile memory array cells using analog-to-digital conversion or measuring offset from the analog neural network non-volatile memory array cells using analog-to-digital conversion, and storing the measured digital outputs in a register; and converting a neuron output by counting up digital output bits from the neuron and then subtracting the stored measured digital outputs.
A developer cartridge detachably mountable on a tandem type photosensitive unit slidable to a drawn-out position and a mounted position with respect to an image forming apparatus body, comprising: a casing; a developer carrier rotatably supported on one end portion of the casing for carrying a developer; a pair of upright portions arranged on another end portion of the casing at an interval from each other in an axial direction of the developer carrier to extend from another end portion of the casing in a detaching direction for the developer cartridge; and an elastically deformable coupling portion extending in the axial direction of the developer carrier for coupling the upright portions with each other, wherein a notched portion notched from the another end portion of the casing toward the one end portion of the casing is formed on the another end portion of the casing to be opposed to the coupling portion, characterized by an opposed portion opposed to the coupling portion at an interval from a lower side of the coupling portion and arranged between the lower end portions of the upright portions, to be extended between the upper end portions of opposing sidewalls of the notched portion, the opposing sidewalls opposing each other in the axial direction of the developer carrier, wherein an upper surface of the opposed portion is generally flush with an upper surface of the casing, wherein an upper side is a side facing in the detaching direction and a lower side is a side facing in a direction opposite to the detaching direction. a casing; a developer carrier rotatably supported on one end portion of the casing for carrying a developer; a pair of upright portions arranged on another end portion of the casing at an interval from each other in an axial direction of the developer carrier to extend from another end portion of the casing in a detaching direction for the developer cartridge; and an elastically deformable coupling portion extending in the axial direction of the developer carrier for coupling the upright portions with each other, wherein a notched portion notched from the another end portion of the casing toward the one end portion of the casing is formed on the another end portion of the casing to be opposed to the coupling portion, characterized by an opposed portion opposed to the coupling portion at an interval from a lower side of the coupling portion and arranged between the lower end portions of the upright portions, to be extended between the upper end portions of opposing sidewalls of the notched portion, the opposing sidewalls opposing each other in the axial direction of the developer carrier, wherein an upper surface of the opposed portion is generally flush with an upper surface of the casing, wherein an upper side is a side facing in the detaching direction and a lower side is a side facing in a direction opposite to the detaching direction.
Metallocene complex according to formula I, wherein R 1 and R 2 are independently selected from H, an alkyl or an aryl group, wherein R 3 is a C1-C10 alkyl group, wherein R' is selected from H, an alkyl group, an aryl group and wherein different R' substituents can be connected to form a ring structure, and wherein B is a 1,2 phenylene bridging moiety or a substituted 1,2-phenylene bridging moiety substituted on the 3, 4, 5 or 6 position with alkyl or aryl groups, wherein Mt is selected from Ti, Zr and Hf, X is an anionic ligand, z is the number of X groups and equals the valence of Mt minus 2. wherein R 1 and R 2 are independently selected from H, an alkyl or an aryl group, wherein R 3 is a C1-C10 alkyl group, wherein R' is selected from H, an alkyl group, an aryl group and wherein different R' substituents can be connected to form a ring structure, and wherein B is a 1,2 phenylene bridging moiety or a substituted 1,2-phenylene bridging moiety substituted on the 3, 4, 5 or 6 position with alkyl or aryl groups, wherein Mt is selected from Ti, Zr and Hf, X is an anionic ligand, z is the number of X groups and equals the valence of Mt minus 2.
A system for a gas turbine engine comprising: a starter turbine; an accessory gearbox; a starter gear train connecting the starter turbine and the accessory gearbox; a core-turning motor; a reduction gear train operable to drive rotation of the starter gear train that interfaces to the accessory gearbox of the gas turbine engine, the reduction gear train comprising: a starter interface gear that engages the starter gear train; a core-turning clutch operably connected to the starter interface gear; a planetary gear system operably connected to the core-turning clutch; and a jacking gear system operably connected to the planetary gear system and a core-turning input, the jacking gear system comprising a stacked series of jacking gears and planet gears; and a mounting pad comprising an interface to couple the core-turning motor to the core-turning input of the reduction gear train. a starter turbine; an accessory gearbox; a starter gear train connecting the starter turbine and the accessory gearbox; a core-turning motor; a reduction gear train operable to drive rotation of the starter gear train that interfaces to the accessory gearbox of the gas turbine engine, the reduction gear train comprising: a starter interface gear that engages the starter gear train; a core-turning clutch operably connected to the starter interface gear; a planetary gear system operably connected to the core-turning clutch; and a reduction gear train operable to drive rotation of the starter gear train that interfaces to the accessory gearbox of the gas turbine engine, the reduction gear train comprising: a starter interface gear that engages the starter gear train; a core-turning clutch operably connected to the starter interface gear; a planetary gear system operably connected to the core-turning clutch; and a starter interface gear that engages the starter gear train; a core-turning clutch operably connected to the starter interface gear; a planetary gear system operably connected to the core-turning clutch; and a jacking gear system operably connected to the planetary gear system and a core-turning input, the jacking gear system comprising a stacked series of jacking gears and planet gears; and a mounting pad comprising an interface to couple the core-turning motor to the core-turning input of the reduction gear train. a mounting pad comprising an interface to couple the core-turning motor to the core-turning input of the reduction gear train.
A compact for arthropod control comprising particles comprising carnauba wax and paraffin wax, and an active agent selected from a pesticide, and an arthropod attractant wherein the compact is a solid formed by confining the particles and compressing them, wherein the compact is sufficiently friable for arthropods to pick up particles from the compact whilst it is still compressed, and wherein the compact further comprises a flow agent.
A method for precisely enlarging the size of a nanopore formed in a membrane, comprising: a) selecting a value for an electric potential that induces an electric field in a nanopore, where the electric field is above 0.1 volts per nanometer; b) applying, for a predetermined period of time, an electric potential at the selected value across the nanopore disposed in an ionic solution, thereby, applying a high enlarging potential; c) after the predetermined time period, reducing the electric potential applied across the nanopore to a value less than the selected value, thereby, applying a low measuring potential, the low measuring potential being lower than the high enlarging potential; d) measuring current flowing through the nanopore, while the electric potential is applied at the reduced value; and e) determining size of the nanopore based on the measured current. a) selecting a value for an electric potential that induces an electric field in a nanopore, where the electric field is above 0.1 volts per nanometer; b) applying, for a predetermined period of time, an electric potential at the selected value across the nanopore disposed in an ionic solution, thereby, applying a high enlarging potential; c) after the predetermined time period, reducing the electric potential applied across the nanopore to a value less than the selected value, thereby, applying a low measuring potential, the low measuring potential being lower than the high enlarging potential; d) measuring current flowing through the nanopore, while the electric potential is applied at the reduced value; and e) determining size of the nanopore based on the measured current.
A method of producing a polymer part comprising the following steps: (a) incorporating a hydrophobic small molecule into the polymer before, during or after manufacture of the polymer part, the hydrophobic small molecule and the polymer being essentially inert to one another, wherein the molecular weight of the small molecule is between 100 and 500; and the molecule is hydrophobic if it has a water contact angle of greater than 90 degrees; and (b) annealing the polymer part to induce migration of the hydrophobic small molecules to a surface of the polymer part to provide that surface with a specified degree of hydrophobicity defined by the combination of the polymer and the hydrophobic small molecule; (c) annealing the polymer part to induce migration of the hydrophobic small molecules to a surface of the polymer part to provide the surface of an adjacent part of the polymer part with the specified degree of hydrophobicity by vaporisation onto an adjacent surface of the polymer part defined by the combination of the polymer and the hydrophobic small molecule. (a) incorporating a hydrophobic small molecule into the polymer before, during or after manufacture of the polymer part, the hydrophobic small molecule and the polymer being essentially inert to one another, wherein the molecular weight of the small molecule is between 100 and 500; and the molecule is hydrophobic if it has a water contact angle of greater than 90 degrees; and (b) annealing the polymer part to induce migration of the hydrophobic small molecules to a surface of the polymer part to provide that surface with a specified degree of hydrophobicity defined by the combination of the polymer and the hydrophobic small molecule; (c) annealing the polymer part to induce migration of the hydrophobic small molecules to a surface of the polymer part to provide the surface of an adjacent part of the polymer part with the specified degree of hydrophobicity by vaporisation onto an adjacent surface of the polymer part defined by the combination of the polymer and the hydrophobic small molecule.
Method for limiting an X-ray beam, in particular in connection with an extraoral radiographic apparatus, wherein two blades (3, 3', 3", 13; 4, 4', 4", 14) of a first blade limiting device (1, 1', 1", 11) are moved through one common actuator (9, 9', 9", 19) only, so as to produce an X-ray beam having the desired shape, the said at least two blades being movable one with respect to the other changing their distance, thereby varying the width of an aperture through which the x-ray beam passes which aperture is delimited on two opposite sides by respectively one of the said two blades characterized in - displacing along a path of predefined length the two blades (3, 3', 3", 13; 4, 4', 4", 14) together by means of the actuator (9, 9', 9", 19) in a same first or second direction, the second direction being opposite to the first direction, - displacing the second blade of the said two blades relatively to the first blade of the said two blades for a predefined path thus allowing the distance of the said two blades to be varied i.e. alternatively increased or decreased - said first blade (3, 3', 3", 13) being linked to the actuator by means of a rigid link (35, 32), thereby maintaining the same relative position to the said actuator; - and the second blade (4, 4', 4", 14) being linked to the actuator (9, 9', 9", 19) by a friction device interposed between the said second blade (4, 4', 4", 14) and a rigid link (33, 35) said friction device allowing the said second blade to be displaced relatively to the rigid link (33, 35) to the actuator; - stop means (5, 5', 6, 6') being provided cooperating respectively with one leading edge of the second blade (4, 4', 4", 14) relatively to the two opposed directions, which prevents the common displacement of the second blade in any of the two opposed directions with the first blade for a certain length of the path of the first blade. - displacing along a path of predefined length the two blades (3, 3', 3", 13; 4, 4', 4", 14) together by means of the actuator (9, 9', 9", 19) in a same first or second direction, the second direction being opposite to the first direction, - displacing the second blade of the said two blades relatively to the first blade of the said two blades for a predefined path thus allowing the distance of the said two blades to be varied i.e. alternatively increased or decreased - said first blade (3, 3', 3", 13) being linked to the actuator by means of a rigid link (35, 32), thereby maintaining the same relative position to the said actuator; - and the second blade (4, 4', 4", 14) being linked to the actuator (9, 9', 9", 19) by a friction device interposed between the said second blade (4, 4', 4", 14) and a rigid link (33, 35) said friction device allowing the said second blade to be displaced relatively to the rigid link (33, 35) to the actuator; - stop means (5, 5', 6, 6') being provided cooperating respectively with one leading edge of the second blade (4, 4', 4", 14) relatively to the two opposed directions, which prevents the common displacement of the second blade in any of the two opposed directions with the first blade for a certain length of the path of the first blade.
Heat exchanger of an air-conditioning system of a cabin of a transport vehicle, comprising: - a primary circuit supplied by a first air flow, called the hot air flow, - a secondary circuit supplied by a second air flow, called the cold air flow, - a casing defining an air-circulation enclosure in which a heat-exchange matrix is housed between said primary circuit and said secondary circuit, - an inlet box allowing the primary circuit to enter into said air-circulation enclosure, - an outlet box allowing the primary circuit to exit from the air-circulation enclosure, characterized in that said inlet box is mounted removably on said casing and in that it houses a three-dimensional structure forming a catalytic and/or adsorbent support for treating the air of said primary circuit, and a means for uniformly distributing said first air flow into said heat-exchange matrix. - a primary circuit supplied by a first air flow, called the hot air flow, - a secondary circuit supplied by a second air flow, called the cold air flow, - a casing defining an air-circulation enclosure in which a heat-exchange matrix is housed between said primary circuit and said secondary circuit, - an inlet box allowing the primary circuit to enter into said air-circulation enclosure, - an outlet box allowing the primary circuit to exit from the air-circulation enclosure,
A lighting device for a headlight of a motor vehicle, comprising two or more lighting units, wherein each lighting unit comprises: • at least one reflector and • at least one light source paired with the at least one reflector and arranged laterally with respect to the at least one reflector, wherein light from the at least one light source is emitted into a region in front of the vehicle via the corresponding at least one reflector in the installed state of the lighting device, and wherein the sub-light distributions of the two or more lighting units form a light distribution of the lighting device, wherein the sub-light distributions of the individual lighting units are arranged adjacently to one another in the horizontal direction, and wherein the reflectors of the lighting units are designed in such a way that the sub-light distribution of each lighting unit has at least one sharp vertical light-dark boundary, wherein the reflectors are divided into groups each having at least one reflector, and wherein the reflectors are designed in such a way that all lighting units with reflectors of a group produce a sub-light exposure of substantially identical form, and the sub-light exposures of lighting units with reflectors from different groups differ from one another, wherein the light source of a lighting unit is paired with at least one beam shield, characterized in that the at least one reflector is configured to build a sub-light distribution with two light-dark boundaries. • at least one reflector and • at least one light source paired with the at least one reflector and arranged laterally with respect to the at least one reflector,
Geopolymer foam formulation comprising: at least one inorganic binder which comprises blast furnace slag, and also comprises microsilica and/or metakaolin; at least one alkaline activator selected from the group consisting of alkali metal hydroxides, alkali metal carbonates, alkali metal aluminates, alkali metal silicates and mixtures thereof; at least one alkyl polyglucoside; a gas phase and water. at least one inorganic binder which comprises blast furnace slag, and also comprises microsilica and/or metakaolin; at least one alkaline activator selected from the group consisting of alkali metal hydroxides, alkali metal carbonates, alkali metal aluminates, alkali metal silicates and mixtures thereof; at least one alkyl polyglucoside; a gas phase and water.
A process for preparing a flexible packaging material comprising: providing a first flexible substrate; printing an ink composition comprising a thermoplastic resin onto the first flexible substrate; depositing a cross-linking composition comprising a cross-linker onto the printed ink composition such that the thermoplastic resin of the ink composition is crosslinked; and laminating the first flexible substrate with a second flexible substrate such that the ink composition and the cross-linker are disposed between the first and second flexible substrates, wherein the first flexible substrate comprises a primer comprising a primer resin on a surface onto which the ink composition is printed and depositing the cross-linking composition comprising the cross-linker onto the printed ink composition crosslinks the primer resin of the primer. providing a first flexible substrate; printing an ink composition comprising a thermoplastic resin onto the first flexible substrate; depositing a cross-linking composition comprising a cross-linker onto the printed ink composition such that the thermoplastic resin of the ink composition is crosslinked; and laminating the first flexible substrate with a second flexible substrate such that the ink composition and the cross-linker are disposed between the first and second flexible substrates,
Zinc oxide particles having a primary particle diameter of less than 0.1 μm, an aspect ratio of less than 2.5 and an oil absorption/BET specific surface area of 1.5 ml/100 m 2 or less.