mhurhangee/ep-ind-claims huggingface dataset:
Extractor machine for removing a metering valve from containers, comprising: - a fixed support structure; - at least one extraction head which is mounted on said fixed support structure and comprises: - at least one gripper, which comprises: - a support body; - two jaws, which are mechanically connected in a guided manner to said support body and each comprise a gripping portion; said extractor machine being characterized in that said extraction head comprises movement means arranged at least for moving said jaws between a closed configuration, in which said gripping portions are brought close to each other in order to cross said metering valve, and an open configuration, in which said gripping portions are moved away from each other in order to mechanically engage said metering valve. - a fixed support structure; - at least one extraction head which is mounted on said fixed support structure and comprises: - at least one gripper, which comprises: - a support body; - two jaws, which are mechanically connected in a guided manner to said support body and each comprise a gripping portion; - at least one gripper, which comprises: - a support body; - two jaws, which are mechanically connected in a guided manner to said support body and each comprise a gripping portion; - a support body; - two jaws, which are mechanically connected in a guided manner to said support body and each comprise a gripping portion;
An electrode for electrolysis comprising: a conductive substrate; and a catalyst layer formed on a surface of the conductive substrate, wherein the catalyst layer comprises ruthenium element, iridium element, titanium element, and at least one first transition metal element selected from the group consisting of Sc, V, Cr, Fe, Co, Ni, Cu, and Zn, a content ratio of the first transition metal element contained in the catalyst layer based on 1 mol of the titanium element is 0.25 mol % or more and less than 3.4 mol %, and a D value being an indicator of an electric double layer capacitance of the electrode for electrolysis, determined as described in the description, is 120 C/m 2 or more and 420 C/m 2 or less. a conductive substrate; and a catalyst layer formed on a surface of the conductive substrate, wherein the catalyst layer comprises ruthenium element, iridium element, titanium element, and at least one first transition metal element selected from the group consisting of Sc, V, Cr, Fe, Co, Ni, Cu, and Zn, a content ratio of the first transition metal element contained in the catalyst layer based on 1 mol of the titanium element is 0.25 mol % or more and less than 3.4 mol %, and a D value being an indicator of an electric double layer capacitance of the electrode for electrolysis, determined as described in the description, is 120 C/m 2 or more and 420 C/m 2 or less.
An LED lighting device comprising: at least one heat radiating member including the a light source module disposed therein; a side frame which is coupled to both sides of the heat radiating member respectively; a support frame which is coupled to one side of the side frame and supports the side frame; and a cap which is coupled to the other side of the side frame, characterized in that the light source module comprises: a clad metal layer; an insulating structure which is disposed on the clad metal layer; a light emitting module which is disposed on the insulating structure and includes a plurality of light emitting device; a lens structure which is disposed on the light emitting module; a packing structure which is disposed on the lens structure; and a case which is disposed on the packing structure and is coupled to the clad metal layer. at least one heat radiating member including the a light source module disposed therein; a side frame which is coupled to both sides of the heat radiating member respectively; a support frame which is coupled to one side of the side frame and supports the side frame; and a cap which is coupled to the other side of the side frame, characterized in that the light source module comprises: a clad metal layer; an insulating structure which is disposed on the clad metal layer; a light emitting module which is disposed on the insulating structure and includes a plurality of light emitting device; a lens structure which is disposed on the light emitting module; a packing structure which is disposed on the lens structure; and a case which is disposed on the packing structure and is coupled to the clad metal layer. a clad metal layer; an insulating structure which is disposed on the clad metal layer; a light emitting module which is disposed on the insulating structure and includes a plurality of light emitting device; a lens structure which is disposed on the light emitting module; a packing structure which is disposed on the lens structure; and a case which is disposed on the packing structure and is coupled to the clad metal layer.
An object detection apparatus, comprising: a housing connectable to a surface, said housing comprising: one or more laser scanning sensors configured to simultaneously detect a combined predetermined scanning space of 360 degrees to detect an object located within said predetermined scanning space; a sensor extraction mechanism, which exposes the one or more laser scanning sensors to an environment surrounding outside of the housing to a pre-determined distance to enable scanning of said environment by the one or more laser scanning sensors; a detection processor configured to: receive a command to activate the one or more laser scanning sensors to scan the predetermined scanning space; activate the sensor extraction mechanism to expose the one or more laser scanning sensors for performing the scan; activate the one or more laser scanning sensors to scan the predetermined scanning space; receive scan data from the one or more laser scanning sensors; analyze the scan data to determine a hazardous object has been detected; and generate a notification that a hazardous object was detected within scanned area. one or more laser scanning sensors configured to simultaneously detect a combined predetermined scanning space of 360 degrees to detect an object located within said predetermined scanning space; a sensor extraction mechanism, which exposes the one or more laser scanning sensors to an environment surrounding outside of the housing to a pre-determined distance to enable scanning of said environment by the one or more laser scanning sensors; a detection processor configured to: receive a command to activate the one or more laser scanning sensors to scan the predetermined scanning space; activate the sensor extraction mechanism to expose the one or more laser scanning sensors for performing the scan; activate the one or more laser scanning sensors to scan the predetermined scanning space; receive scan data from the one or more laser scanning sensors; analyze the scan data to determine a hazardous object has been detected; and generate a notification that a hazardous object was detected within scanned area. receive a command to activate the one or more laser scanning sensors to scan the predetermined scanning space; activate the sensor extraction mechanism to expose the one or more laser scanning sensors for performing the scan; activate the one or more laser scanning sensors to scan the predetermined scanning space; receive scan data from the one or more laser scanning sensors; analyze the scan data to determine a hazardous object has been detected; and generate a notification that a hazardous object was detected within scanned area.
A method for removing carbon dioxide from carbon dioxide laden air, comprising directing a flow of carbon dioxide laden air at ambient temperature through each of a pair of vertically oriented carbon dioxide capture structures, wherein the flow of carbon dioxide laden air is ambient air, and each carbon dioxide capture structure comprises a solid top support member and a sorbent structure, the sorbent structure depending from the solid top support member, the sorbent structure including an amine sorbent on its surface to capture carbon dioxide from the ambient air, the method further comprising alternatively moving, by a hydraulic cylinder or a mechanical pulley, each carbon dioxide capture structure from an upper position, in which the carbon dioxide-laden ambient air is brought into contact with the sorbent structure, to a lower position and into a respective regeneration box of a pair of regeneration boxes, each regeneration box having solid metal plate on five sides and an open top which is mechanically sealed by the top member of the carbon dioxide capture structure, and directing steam at the sorbent structure in the regeneration box to separate the carbon dioxide from the sorbent structure thereby to regenerate the sorbent structure at a temperature of about 100-120° C, and selectively and alternatively moving, by the hydraulic cylinder or the mechanical pulley, the capture structures out of the respective regeneration boxes and returning the capture structures alternatively to the upper position that is in the flow of carbon dioxide laden air, so that the regenerated sorbent structure can continue to be used to absorb carbon dioxide, to remove more than about 95 mole % of carbon dioxide from the flow of carbon dioxide laden air, wherein one of the pair of vertically oriented carbon dioxide capture structures is in the path of carbon dioxide laden air while the other of the pair of vertically oriented carbon dioxide capture structures is being treated with steam, at a temperature of about 100-120°C., to separate the carbon dioxide from the sorbent and regenerate the sorbent, such that one carbon dioxide capture structure is in line with a flow of carbon dioxide-laden air while the other carbon dioxide capture structure is being regenerated; the method further comprising withdrawing the carbon dioxide separated from each sorbent structure from its respective sealed regeneration box together with the steam, and cooling the carbon dioxide and the steam to condense all of the steam and separating the condensed steam from the carbon dioxide.
A system for deicing a plurality of airplanes having differing exterior geometries, the system comprising: • first and second mobility units (500L- 500R) provided either with crawlers or rubber-type wheels and adapted for independent, movement relative to an airplane positioned for deicing treatment; • first and second vertical elements extending upward relative to the first and second mobility units (500L- 500R), respectively; • a horizontal beam structure extending between the first and second vertical elements; • a plurality of downwardly extending vertical structures that are mounted with respect to the horizontal beam structure between the first and second vertical elements; • at least one over-wing beam, wherein each over-wing beam is attached to a respective downwardly extending vertical structure of the plurality of downwardly extending vertical structures; • proximity structures (301-1 301-3) mounted underneath each one of the over-wing beams; and • a plurality of nozzles mounted with respect to each one of the proximity structures (301-1 301-3); wherein the proximity structures (301-1 301-3) attached to each over-wing beam provide a degree of freedom whereby the proximity structures (301-1 301-3) are configured to adjust their relative positioning based upon an exterior geometry of an airplane, by following the contour of the camber of its wings. • first and second mobility units (500L- 500R) provided either with crawlers or rubber-type wheels and adapted for independent, movement relative to an airplane positioned for deicing treatment; • first and second vertical elements extending upward relative to the first and second mobility units (500L- 500R), respectively; • a horizontal beam structure extending between the first and second vertical elements; • a plurality of downwardly extending vertical structures that are mounted with respect to the horizontal beam structure between the first and second vertical elements; • at least one over-wing beam, wherein each over-wing beam is attached to a respective downwardly extending vertical structure of the plurality of downwardly extending vertical structures; • proximity structures (301-1 301-3) mounted underneath each one of the over-wing beams; and • a plurality of nozzles mounted with respect to each one of the proximity structures (301-1 301-3);
A method for recovering volatile anaesthetic agent from a material, the method comprises the step of subjecting the material to a supercritical fluid, thereby forming a supercritical solution, the anaesthetic agent is dissolved in the supercritical fluid to form the supercritical solution which carries the anaesthetic agent from the material, in which the supercritical fluid is carbon dioxide or nitrous oxide, characterised in that supercritical temperature is between 30°C and 100°C.
A prosthesis or an orthosis comprising: a plurality of movable components each component being movable by a respective motor; and a control device which controls movement of the movable components and stores predetermined current values for the respective motors; characterised in that the prosthesis or the orthosis further comprises a current measurement circuit which measures the current drawn by the respective motors, wherein the control device compares the current measured by the current measurement circuit with the predetermined current value stored for a first motor so as to determine when movement of at least a first component moveable by the first motor is arrested when the at least first component bears against a surface; and the control device moves one or more further components by means of respective one or more further motors so that each subsequent component is moved upon determination that the movement of the preceding component is arrested when the preceding component bears against a surface. a plurality of movable components each component being movable by a respective motor; and a control device which controls movement of the movable components and stores predetermined current values for the respective motors; characterised in that the prosthesis or the orthosis further comprises a current measurement circuit which measures the current drawn by the respective motors, wherein the control device compares the current measured by the current measurement circuit with the predetermined current value stored for a first motor so as to determine when movement of at least a first component moveable by the first motor is arrested when the at least first component bears against a surface; and the control device moves one or more further components by means of respective one or more further motors so that each subsequent component is moved upon determination that the movement of the preceding component is arrested when the preceding component bears against a surface.
A plywood adhesive composition comprising a protein and a poly(glycidyl ether), wherein the composition has a viscosity from 30 to 150 Pas (30,000 to 150,000 cps) at 26.7 0 C (80 0 F) measured with a Brookfield viscometer at 10rpm; wherein the protein is a plant protein, in the form of a flour; wherein the protein flour comprises from 80 to 96 percent dry weight of the plywood adhesive composition, and the poly(glycidyl ether) comprises from 4 to 20 percent dry weight of the plywood adhesive composition; and wherein the pH of the composition is from 9 to 12. wherein the protein is a plant protein, in the form of a flour; wherein the protein flour comprises from 80 to 96 percent dry weight of the plywood adhesive composition, and the poly(glycidyl ether) comprises from 4 to 20 percent dry weight of the plywood adhesive composition; and
High entropy alloy with a composition containing between 4 and 9 major elements chosen from the list comprising Cr, Fe, V, Al, Si, Mn, Mo, Ti and Ni with: - 3 major elements which are Cr, Fe and V, each having an atomic concentration comprised between 20 and 40%, - 1 or 2 major elements chosen from Al and Si each having an atomic concentration greater than or equal to 5% with a total concentration for these 2 major elements of less than or equal to 25%, - 0, 1, 2, 3 or 4 major elements chosen from Mn, Mo, Ti and Ni, each having an atomic concentration greater than or equal to 5% with a total atomic concentration for these 4 major elements of less than or equal to 35%, the total atomic concentration for all of the 4 to 9 major elements being greater than or equal to 80% and the remainder being made up of impurities and/or one or more minor elements each having an atomic concentration of less than 5%. - 3 major elements which are Cr, Fe and V, each having an atomic concentration comprised between 20 and 40%, - 1 or 2 major elements chosen from Al and Si each having an atomic concentration greater than or equal to 5% with a total concentration for these 2 major elements of less than or equal to 25%, - 0, 1, 2, 3 or 4 major elements chosen from Mn, Mo, Ti and Ni, each having an atomic concentration greater than or equal to 5% with a total atomic concentration for these 4 major elements of less than or equal to 35%,
A camera arrangement comprising a camera head, a camera holder ring and a camera holder base, wherein the camera head has an imaging unit and an interaction portion with a defined cross section, the camera holder ring has an inner surface configured to fit onto the interaction portion of the camera head, the camera holder base has a receptacle orifice dimensioned to receive the camera holder ring fitted onto the interaction portion of the camera head and grip an outer surface of the holder ring, the receptacle orifice has a tightening function (124, 126) such that its dimensions may be reduced so as to fixate the camera holder ring and the camera head in relation to the camera holder base, and thereby to fixate an orientation of the camera head in relation to the camera holder base, wherein the camera holder ring is configured to be movable along a length of the interaction portion until the tightening function of the receptacle orifice has been actuated. the camera head has an imaging unit and an interaction portion with a defined cross section, the camera holder ring has an inner surface configured to fit onto the interaction portion of the camera head, the camera holder base has a receptacle orifice dimensioned to receive the camera holder ring fitted onto the interaction portion of the camera head and grip an outer surface of the holder ring, the receptacle orifice has a tightening function (124, 126) such that its dimensions may be reduced so as to fixate the camera holder ring and the camera head in relation to the camera holder base, and thereby to fixate an orientation of the camera head in relation to the camera holder base, wherein the camera holder ring is configured to be movable along a length of the interaction portion until the tightening function of the receptacle orifice has been actuated.
A method for communication, comprising: transmitting a listen before talk, LBT, communication symbol in a communication frame, the LBT communication symbol defining an amount of frequency resource anticipated for control information and data, wherein the amount of frequency resource used by the LBT communication symbol is directly proportional in the frequency domain to an amount of frequency resource used by a control channel and by a data channel; transmitting the control channel using the amount of frequency resource defined by the LBT communication symbol; and transmitting the data channel using the amount of frequency resource defined by the LBT communication symbol. transmitting a listen before talk, LBT, communication symbol in a communication frame, the LBT communication symbol defining an amount of frequency resource anticipated for control information and data, wherein the amount of frequency resource used by the LBT communication symbol is directly proportional in the frequency domain to an amount of frequency resource used by a control channel and by a data channel; transmitting the control channel using the amount of frequency resource defined by the LBT communication symbol; and transmitting the data channel using the amount of frequency resource defined by the LBT communication symbol.
An animal monitoring system for determining feed consumption of one or more animals feeding at a common feeding area, comprising - an imaging unit for range imaging the common feeding area, - identification means configured to uniquely identify each feeding animal, and - processing means configured for assessing the amount of feed consumed by each identified animal by determining the reduction of feed in subsequent range images of the common feeding area in front of each identified animal, acquired continuously or at selected time points while said animal(s) are feeding. - an imaging unit for range imaging the common feeding area, - identification means configured to uniquely identify each feeding animal, and - processing means configured for assessing the amount of feed consumed by each identified animal by determining the reduction of feed in subsequent range images of the common feeding area in front of each identified animal, acquired continuously or at selected time points while said animal(s) are feeding.
A method of displaying a stored photographic image, wherein the method comprises accomplishing in real-time: - capturing an auxiliary image; - determining light direction information from the captured auxiliary image - on the basis of the determined light direction information, generating a lighted image from the stored photographic image; and - displaying the lighted image. - capturing an auxiliary image; - determining light direction information from the captured auxiliary image - on the basis of the determined light direction information, generating a lighted image from the stored photographic image; and - displaying the lighted image.
A method for grinding a metal annular member, comprising a step of grinding a circumferential surface of a metal annular processed object using a rotating grindstone while measuring a dimension in a radial direction of the processed object in process, the grinding comprising a rough grinding, a finish grinding, and a spark out in order, characterized in that a first threshold value (v 1) for the rate of change of the dimension in the radial direction of the processed object is determined for each of a plurality of different preset target values (D i) for the dimension in the radial direction of the processed object, and when the dimension in the radial direction of the processed object becomes one target value of the plurality of different preset target values (D i), the spark out starts under a condition that an absolute value (|v|) of the rate of change of the dimension in the radial direction of the processed object becomes greater than the first threshold value (v 1) that corresponds to the one target value.
Method for reducing the peak factor of a broadband signal (r(t)) generated by a generation module, with the broadband signal (r(t)) comprising N narrow-band signals (e1(t),..., eN(t)), N being a natural integer greater than or equal to two, the method, implemented by a piece of emitting equipment (2A, 2B) comprising a power amplifier and/or a power amplification simulator, characterised in that it comprises a phase shifting step of the narrow-band signals (e1 (t),..., eN(t)) between them in such a way as to reduce said peak factor, the phase shifting values (φ1,..., φN) of the narrow-band signals (e1(t),..., e N (t)) are determined using the error between the value of the signal amplified (s(t), S1 (t)) by said power amplifier or said power amplification simulator and the value of the signal generated (r(t)) by the generation module.