mhurhangee/ep-ind-claims huggingface dataset:
A trampoline, comprising a chassis, a flexible cushion, a plurality of flexible rods, a protective net, a plurality of support rods, and a plurality of buckles, wherein the chassis comprises a base and a plurality of support legs provided on the base, the base is provided with a plurality of installation holes, characterized in that each installation hole is provided with a positioning sleeve; the plurality of flexible rods is obliquely and detachably installed on the base, the flexible rod comprises a body portion and a snap ring provided at the top end of the body portion, and the bottom end of the body portion is provided in the positioning sleeve; the buckles are provided on the bottom outer periphery of the flexible cushion, the bottom surface of the buckle is provided with a receiving groove and a carrying portion extending into the receiving groove, the snap ring is provided in the receiving groove, and the carrying portion penetrates into the snap ring; the bottom end of the protective net is connected to the flexible cushion, the bottom ends of the support rods are detachably provided in the corresponding positioning sleeves on the base, and the top end of the protective net is supported at the top ends of the support rods; and a bounce space is enclosed by the protective net and the flexible cushion. characterized in that each installation hole is provided with a positioning sleeve; the plurality of flexible rods is obliquely and detachably installed on the base, the flexible rod comprises a body portion and a snap ring provided at the top end of the body portion, and the bottom end of the body portion is provided in the positioning sleeve; the buckles are provided on the bottom outer periphery of the flexible cushion, the bottom surface of the buckle is provided with a receiving groove and a carrying portion extending into the receiving groove, the snap ring is provided in the receiving groove, and the carrying portion penetrates into the snap ring; the bottom end of the protective net is connected to the flexible cushion, the bottom ends of the support rods are detachably provided in the corresponding positioning sleeves on the base, and the top end of the protective net is supported at the top ends of the support rods; and a bounce space is enclosed by the protective net and the flexible cushion.
Protective equipment for a clean room or aseptic environment, which is a garment, said garment being a garment for a clean room or aseptic environment comprising: • an outer surface provided to be in contact with the surrounding environment, • an inner surface arranged to be in contact with a handler, • a first and a second sleeve, • a body portion comprising a torso portion and a leg portion, said first and second sleeves being connected to said body portion, preferably to the torso portion by a connected end, said body portion comprising a section for the head to pass through, • at least one gripping means in contact with said inner surface in the body portion, preferably in the torso portion, characterised in that said garment is packaged in a reusable and sterilisable pouch, made of textile material, having an opening provided with closing means and in that said garment comprises said pouch connected to said inner surface of said garment by fastening means and located on the inner surface of said pouch, preferably opposite the opening of said pouch for securing the inner surface of said pouch to said inner surface of the body portion of said garment, preferably to the inner surface of the torso portion of said garment. • an outer surface provided to be in contact with the surrounding environment, • an inner surface arranged to be in contact with a handler, • a first and a second sleeve, • a body portion comprising a torso portion and a leg portion, said first and second sleeves being connected to said body portion, preferably to the torso portion by a connected end, said body portion comprising a section for the head to pass through, • at least one gripping means in contact with said inner surface in the body portion, preferably in the torso portion,
A processing head for a hair cutting appliance, the processing head comprising: - a powered blade set comprising a stationary blade and a movable blade, wherein the movable blade is arranged to be moved with respect to the stationary blade to cut hair between teeth of the movable blade and teeth of the stationary blade, - a linkage unit supporting the powered blade set, wherein the linkage unit enables a contour following pivoting movement of the powered blade set when the appliance is operated to cut hair, and - a razor blade that is arranged to be attached to the powered blade set in such a way that the powered blade set and the razor blade are pivotably supported by the linkage unit, wherein the razor blade is removably attached to the powered blade set. - a powered blade set comprising a stationary blade and a movable blade, wherein the movable blade is arranged to be moved with respect to the stationary blade to cut hair between teeth of the movable blade and teeth of the stationary blade, - a linkage unit supporting the powered blade set, wherein the linkage unit enables a contour following pivoting movement of the powered blade set when the appliance is operated to cut hair, and - a razor blade that is arranged to be attached to the powered blade set in such a way that the powered blade set and the razor blade are pivotably supported by the linkage unit,
An assembly for the production of vacuum that can be applied to a machine for the treatment of food substances, dynamically and simultaneously with the thermo-mechanical process performed by said machine, comprising, in combination: a group for the production of vacuum, a flexible tube and a lid (12, 112), wherein said flexible tube is operatively connected at one end to said group for the production of vacuum and at the opposite end to said lid (12; 112) suitable for being applied as a seal for the hermetic closure of a container of said machine for the treatment of food substances, in particular liquid mixtures contained within said container, characterized in that said container that receives said lid (12,112) is part of said machine for the treatment of food substances and said group comprises a socket for inserting a rapid coupling provided at one end of said flexible tube and said lid (12, 112) provides at least one connection (33,53, 54, 55) for a rapid coupling provided at the end of the flexible tube opposite to the coupling.
A computer implemented method for simulating an operation of a reactor core, the method comprising: determining an initial state of the reactor core, the reactor core comprising a plurality of fuel assemblies, wherein the core is partitioned in cubes to constitute nodes of a grid; calculating (102, 104), based on the initial state, a nodal target power distribution (p) and/or the target 3D neutron flux distribution (Φ); obtaining an actual power distribution and/or the actual 3D neutron flux distribution of the nuclear reactor core, wherein the actual power distribution and/or the actual 3D neutron flux distribution of the nuclear reactor core is obtained through measurements; determining a difference between the target power distribution (p) and the actual power distribution of the nuclear reactor core and/or determining a difference (δΦ) between the target 3D neutron flux distribution (Φ) and the actual 3D neutron flux distribution of the nuclear reactor core; determining modal expansion coefficients (δc l) using a Fourier modal decomposition based on the determined difference (δΦ) and applying a Modal Generalized Perturbation Theory, MGPT, to the modal expansion coefficients (δc l) for determining a 3D cross-section distribution perturbation (δΣ) causing the determined difference (δΦ); and determining a 3D adaptation distribution (δx) for the determined difference (δΦ) based on the determined 3D cross-section distribution perturbation (δΣ). determining an initial state of the reactor core, the reactor core comprising a plurality of fuel assemblies, wherein the core is partitioned in cubes to constitute nodes of a grid; calculating (102, 104), based on the initial state, a nodal target power distribution (p) and/or the target 3D neutron flux distribution (Φ); obtaining an actual power distribution and/or the actual 3D neutron flux distribution of the nuclear reactor core, wherein the actual power distribution and/or the actual 3D neutron flux distribution of the nuclear reactor core is obtained through measurements; determining a difference between the target power distribution (p) and the actual power distribution of the nuclear reactor core and/or determining a difference (δΦ) between the target 3D neutron flux distribution (Φ) and the actual 3D neutron flux distribution of the nuclear reactor core; determining modal expansion coefficients (δc l) using a Fourier modal decomposition based on the determined difference (δΦ) and applying a Modal Generalized Perturbation Theory, MGPT, to the modal expansion coefficients (δc l) for determining a 3D cross-section distribution perturbation (δΣ) causing the determined difference (δΦ); and determining a 3D adaptation distribution (δx) for the determined difference (δΦ) based on the determined 3D cross-section distribution perturbation (δΣ).
Spot welding tongs for robotic applications for the resistance welding of workpieces and, in particular sheet metals, of the type including tong arms which are each pivotally mounted on a base body and adjustable by an actuating means and to which electrode holders for the electrodes are fastened, characterized in that the tong arms are each comprised of a main element which is prestressed by at least one drag strut or a drag rope, said drag strut or said drag rope, being arranged on that side of the main element, on which the electrode holder extends.
A method for recovering a fluorine-containing ether, comprising the steps of: producing a wet fluoropolymer by suspension polymerization, solution polymerization, or bulk polymerization in the presence of at least a fluorine-containing ether represented by the formula: Rf -O-R wherein Rf represents a C2-C6 fluoroalkyl group or a C2-C6 alkyl group, and R represents a C1-C4 fluoroalkyl group or a C1-C4 alkyl group, provided that the total number of carbon atoms in Rf and R is at most 8; vaporizing and discharging vaporizable substances including the fluorine-containing ether by heating the wet fluoropolymer in a container; and transferring the vaporizable substances in the vaporized state to a cooling means to cool the vaporizable substances, wherein a value of x/V is at most 0.140, wherein V represents the inner volume of the container, and x represents the discharge rate (kg/hour) of the vaporizable substances from the container. producing a wet fluoropolymer by suspension polymerization, solution polymerization, or bulk polymerization in the presence of at least a fluorine-containing ether represented by the formula: Rf -O-R wherein Rf represents a C2-C6 fluoroalkyl group or a C2-C6 alkyl group, and R represents a C1-C4 fluoroalkyl group or a C1-C4 alkyl group, provided that the total number of carbon atoms in Rf and R is at most 8; vaporizing and discharging vaporizable substances including the fluorine-containing ether by heating the wet fluoropolymer in a container; and transferring the vaporizable substances in the vaporized state to a cooling means to cool the vaporizable substances, wherein a value of x/V is at most 0.140, wherein V represents the inner volume of the container, and x represents the discharge rate (kg/hour) of the vaporizable substances from the container.
A method, comprising: a) determining excess margin relative to margin, each measured in dB, needed to ensure performance at a nominal guaranteed rate in an optical modem configured to communicate over an optical link, wherein the nominal guaranteed rate is a rate transmitted by the optical modem and guaranteed to work under any condition on the optical link; b) causing the optical modem to consume most or all of the excess margin for an increased rate, in bits per second, wherein increased rate increased above the nominal guaranteed rate in the optical modem is excess capacity; c) mapping the excess capacity to one or more logical interfaces, defined in terms of bandwidth, for use by a management system, management plane, and/or control plane to map physical interfaces in a data plane over the optical link; d) flagging the bandwidth created in step c) on the one or more logical interfaces as excess capacity; and e) reiterating steps a) to d), thereby rerouting, via the management system, the management plane, and/or the control plane, to other optical links in an optical network, the one or more logical interfaces when some or all of the excess margin is lost. a) determining excess margin relative to margin, each measured in dB, needed to ensure performance at a nominal guaranteed rate in an optical modem configured to communicate over an optical link, wherein the nominal guaranteed rate is a rate transmitted by the optical modem and guaranteed to work under any condition on the optical link; b) causing the optical modem to consume most or all of the excess margin for an increased rate, in bits per second, wherein increased rate increased above the nominal guaranteed rate in the optical modem is excess capacity; c) mapping the excess capacity to one or more logical interfaces, defined in terms of bandwidth, for use by a management system, management plane, and/or control plane to map physical interfaces in a data plane over the optical link; d) flagging the bandwidth created in step c) on the one or more logical interfaces as excess capacity; and e) reiterating steps a) to d), thereby rerouting, via the management system, the management plane, and/or the control plane, to other optical links in an optical network, the one or more logical interfaces when some or all of the excess margin is lost.
A package (100, 200, 300) for a surgical repair kit comprising: a first area configured and dimensioned to receive at least one surgical mesh (112, 212, 312), and a second area configured and dimensioned to receive at least one surgical plug (122, 222, 322), wherein the first area is flat and the second area comprises a protrusion (125, 225) for receiving the plug, and wherein the mesh (112, 212, 312) and the plug (122, 222, 322) are maintained separate from each other. a first area configured and dimensioned to receive at least one surgical mesh (112, 212, 312), and a second area configured and dimensioned to receive at least one surgical plug (122, 222, 322), wherein the first area is flat and the second area comprises a protrusion (125, 225) for receiving the plug, and wherein the mesh (112, 212, 312) and the plug (122, 222, 322) are maintained separate from each other.
Method for operating a pumping station, in particular a waste water pumping station, which comprises a pump sump having at least one inlet and at least one outlet and at least one variable-rotational speed pump arranged in the said pump sump, - over a progressive time period, the volume of water per unit of time (Q in (t i)) flowing into the pump sump via the inlet is determined and is stored in a data memory as inflow values, - the stored inflow values are used to determine reference values which define a reference curve covering a future optimization time period (T opt) as a forecast for an expected water inflow volume (Q in (t i), t i ≥t 0) into the pump sump, characterized in that - by applying a numerical optimization method for the optimization time period (T opt), at least a first rotational speed setting (n(t 0)) for the pump is determined which, with regard to at least one determined optimization variable (E i) and at least one optimization target connected thereto, starting from the current level (P(t 0)) in the pump sump and the forecast water inflow volume (Q in (t i), t i ≥t 0) within the optimization time period (T opt), is optimal to achieve an intermediate level (P(t 0 +i·Δt i)) or final level (P(t 0 +T opt)) within or at the end of the optimization time period (T opt), and - the pump is operated with the rotational speed setting (n(t 0)) that is determined. - over a progressive time period, the volume of water per unit of time (Q in (t i)) flowing into the pump sump via the inlet is determined and is stored in a data memory as inflow values, - the stored inflow values are used to determine reference values which define a reference curve covering a future optimization time period (T opt) as a forecast for an expected water inflow volume (Q in (t i), t i ≥t 0) into the pump sump, characterized in that - by applying a numerical optimization method for the optimization time period (T opt), at least a first rotational speed setting (n(t 0)) for the pump is determined which, with regard to at least one determined optimization variable (E i) and at least one optimization target connected thereto, starting from the current level (P(t 0)) in the pump sump and the forecast water inflow volume (Q in (t i), t i ≥t 0) within the optimization time period (T opt), is optimal to achieve an intermediate level (P(t 0 +i·Δt i)) or final level (P(t 0 +T opt)) within or at the end of the optimization time period (T opt), and - the pump is operated with the rotational speed setting (n(t 0)) that is determined.
Method for operating a headlamp for a motor vehicle, which can be operated in at least two illumination states (26, 50, 54, 58; 30, 52, 56, 60), with the steps: - detecting at least one influencing variable, which can influence a future change of a mode of the headlamp from one of the illumination states (26, 50, 54, 58; 30, 52, 56, 60) to another of the illumination states (30, 52, 56, 60; 26, 50, 54, 58), - detecting a time profile of the influencing variable, - detecting a control signal, which is intended to effect a change of mode of the headlamp from a current illumination state (26, 50, 54, 58) to another of the illumination states (30, 52, 56, 60), and - controlling the mode of the headlamp depending on the control signal, wherein the change of mode of the headlamp is delayed depending on the time profile of the influencing variable; - wherein at least one ambient measurement value for the surroundings of the motor vehicle is detected as the influencing variable; characterized in that - a probability for an appearance of another vehicle in a working range of the headlamp is determined from the time profile of the ambient measurement value, wherein the control is delayed depending on the probability. - detecting at least one influencing variable, which can influence a future change of a mode of the headlamp from one of the illumination states (26, 50, 54, 58; 30, 52, 56, 60) to another of the illumination states (30, 52, 56, 60; 26, 50, 54, 58), - detecting a time profile of the influencing variable, - detecting a control signal, which is intended to effect a change of mode of the headlamp from a current illumination state (26, 50, 54, 58) to another of the illumination states (30, 52, 56, 60), and - controlling the mode of the headlamp depending on the control signal, wherein the change of mode of the headlamp is delayed depending on the time profile of the influencing variable; - wherein at least one ambient measurement value for the surroundings of the motor vehicle is detected as the influencing variable; characterized in that - a probability for an appearance of another vehicle in a working range of the headlamp is determined from the time profile of the ambient measurement value, wherein the control is delayed depending on the probability.
An ink cartridge comprising: a cartridge body defining an ink chamber therein for storing ink, the cartridge body having an outer surface and an air communication port formed to be open on the outer surface, the outer surface being oriented in a first direction; an ink supply portion provided at the cartridge body and configured to supply the ink stored in the ink chamber to outside; an air flow path provided in the cartridge body, the air flow path being configured to be in communication with the ink chamber through a communication hole and in communication with ambient air through the air communication port to permit the ink chamber to communicate with ambient air through the air flow path; a cover covering the outer surface of the cartridge body; and a memory chip disposed on the cover and configured to store information, external access to the memory chip permitting the information to be electrically retrieved therefrom, characterized in that the cover is formed with an opening at a position aligned with the air communication port in the first direction; and the memory chip closes the opening. a cartridge body defining an ink chamber therein for storing ink, the cartridge body having an outer surface and an air communication port formed to be open on the outer surface, the outer surface being oriented in a first direction; an ink supply portion provided at the cartridge body and configured to supply the ink stored in the ink chamber to outside; an air flow path provided in the cartridge body, the air flow path being configured to be in communication with the ink chamber through a communication hole and in communication with ambient air through the air communication port to permit the ink chamber to communicate with ambient air through the air flow path; a cover covering the outer surface of the cartridge body; and a memory chip disposed on the cover and configured to store information, external access to the memory chip permitting the information to be electrically retrieved therefrom, the cover is formed with an opening at a position aligned with the air communication port in the first direction; and the memory chip closes the opening.
A method for manufacturing a device for forming at least one focused beam in a near zone, from an electromagnetic wave incident on said device, said method being characterized in that it comprises: - depositing a dielectric material layer with a first refractive index on a substrate layer; - forming at least one cavity (111a, 111b, 111c) by a microfabrication technique in said dielectric material layer deposited on said substrate layer); - filling said at least one cavity (111a, 111b, 111c) with a material having a second refractive index lower than said first refractive index, wherein said device for forming the at least one focused beam in a near zone comprises said substrate layer and said dielectric material layer having said at least one cavity filled with said material; - determining a deviation between a measured radiation angle of a near zone focused beam obtained from said device and an expected focused beam radiation angle; and - modifying locally at least one of the two refractive indexes according to said determined deviation. - depositing a dielectric material layer with a first refractive index on a substrate layer; - forming at least one cavity (111a, 111b, 111c) by a microfabrication technique in said dielectric material layer deposited on said substrate layer); - filling said at least one cavity (111a, 111b, 111c) with a material having a second refractive index lower than said first refractive index, wherein said device for forming the at least one focused beam in a near zone comprises said substrate layer and said dielectric material layer having said at least one cavity filled with said material; - determining a deviation between a measured radiation angle of a near zone focused beam obtained from said device and an expected focused beam radiation angle; and - modifying locally at least one of the two refractive indexes according to said determined deviation.