mhurhangee/ep-ind-claims huggingface dataset:
A profiled metal fiber with rectangular cross-section, also with angled fiber ends in the form of a clamp, for stabilizing, consolidating, fastening or connecting materials and building materials such as concrete, wood, paper and similar, in particular made of steel, in which the fiber edges of the fiber outer surfaces extending in the longitudinal direction of the fiber are designed in the manner of a chamfer as edge surfaces aligned obliquely to the fiber outer surfaces, wherein the two wider outer fiber surfaces (3.1, 3.2) of the rectangular fiber are provided with longitudinally extending V-shaped grooves, wherein the edge surfaces are provided with protrusions and the V-shaped grooves are provided with end zones limiting their longitudinal extent, wherein the protrusions form anchoring heads and the end zones form anchoring surfaces with respect to the materials to be stabilized, consolidated or fastened, and wherein one of the wider fiber outer surfaces (3.1) has a V-shaped groove and the fiber outer surface (3.2) opposite thereto has at least two V-shaped grooves of the same size, wherein the single V-shaped groove on the wide fiber outer surface (3.1) is arranged centrally with respect to the surface and the two V-shaped grooves on the opposite wide fiber outer surface (3.2) are arranged symmetrically or centrally with respect to the wide fiber outer surface (3.2) and are in contact or close to one another in the middle, such that the grooves support the axial guidance of a top and bottom roll in a rolling process of a metal strip for forming the metal fiber. wherein the two wider outer fiber surfaces (3.1, 3.2) of the rectangular fiber are provided with longitudinally extending V-shaped grooves, wherein the edge surfaces are provided with protrusions and the V-shaped grooves are provided with end zones limiting their longitudinal extent, wherein the protrusions form anchoring heads and the end zones form anchoring surfaces with respect to the materials to be stabilized, consolidated or fastened, and wherein one of the wider fiber outer surfaces (3.1) has a V-shaped groove and the fiber outer surface (3.2) opposite thereto has at least two V-shaped grooves of the same size, wherein the single V-shaped groove on the wide fiber outer surface (3.1) is arranged centrally with respect to the surface and the two V-shaped grooves on the opposite wide fiber outer surface (3.2) are arranged symmetrically or centrally with respect to the wide fiber outer surface (3.2) and are in contact or close to one another in the middle, such that the grooves support the axial guidance of a top and bottom roll in a rolling process of a metal strip for forming the metal fiber.
A robotic catheter system, the system comprising: a motor drive base (22, 302) comprising one or more drive motors located in the motor drive base (22, 302); and a cassette (24, 300) configured to couple to the motor drive base (22, 302), the cassette (24, 300) including a cassette housing (42, 316), the cassette housing (42, 316) including a front end, a rear end, a first channel and a second channel, wherein the cassette (24, 300) includes: a first pair of engagement surfaces (426, 428) configured to releasably engage and impart axial movement to a guide wire (50, 301) retained in the first channel, wherein the guide wire (50, 301) extends out of a rear of the cassette housing (42, 316) and exits a front end of the cassette housing (42, 316); and a second pair of engagement surfaces (472,474) configured to releasably engage and impart axial movement to a catheter device (54, 303) retained in the second channel; wherein the catheter device (54, 303) exits the front end of the cassette housing (42,316) over the guide wire (50, 301); wherein the second channel is arranged at an angle with respect to the first channel. a motor drive base (22, 302) comprising one or more drive motors located in the motor drive base (22, 302); and a cassette (24, 300) configured to couple to the motor drive base (22, 302), the cassette (24, 300) including a cassette housing (42, 316), the cassette housing (42, 316) including a front end, a rear end, a first channel and a second channel, wherein the cassette (24, 300) includes: a first pair of engagement surfaces (426, 428) configured to releasably engage and impart axial movement to a guide wire (50, 301) retained in the first channel, wherein the guide wire (50, 301) extends out of a rear of the cassette housing (42, 316) and exits a front end of the cassette housing (42, 316); and a second pair of engagement surfaces (472,474) configured to releasably engage and impart axial movement to a catheter device (54, 303) retained in the second channel; a first pair of engagement surfaces (426, 428) configured to releasably engage and impart axial movement to a guide wire (50, 301) retained in the first channel, wherein the guide wire (50, 301) extends out of a rear of the cassette housing (42, 316) and exits a front end of the cassette housing (42, 316); and a second pair of engagement surfaces (472,474) configured to releasably engage and impart axial movement to a catheter device (54, 303) retained in the second channel; wherein the catheter device (54, 303) exits the front end of the cassette housing (42,316) over the guide wire (50, 301); wherein the second channel is arranged at an angle with respect to the first channel.
An aqueous coating agent comprising an aqueous polyurethane resin containing a polyurethane resin having an acid group and a polyamine compound, a water-soluble polymer, and an inorganic layered mineral as main constituents, wherein solid formulation ratios of the aqueous polyurethane resin, the water-soluble polymer and the inorganic layered mineral occupied in a total solid content of the aqueous coating agent are within ranges indicated below. Aqueous polyurethane resin: 5 to 60 mass% Water-soluble polymer: 25 to 80 mass% Inorganic layered compound: 8 to 20 mass% Aqueous polyurethane resin: 5 to 60 mass% Water-soluble polymer: 25 to 80 mass% Inorganic layered compound: 8 to 20 mass%
A system for cooperative control of a surgical tool, comprising: a surgical tool (16, 30) for use in vitreoretinal surgery and being adapted to be held by a robot and a surgeon, a tool holder for receiving said surgical tool (16, 30); a sensor for detecting a force applied on a target area of interest of an eye by said surgical tool (16, 30); a controller for limiting velocity of said robot based upon the force detected so as to provide a haptic feedback; a selector for automatically selecting an audio feedback based upon the force applied on the target area of interest of said eye by said surgical tool (16, 30), the audio feedback comprising a modulating playback of audio that varies in tempo based on the relative intensity of the force applied on said target area of interest of said eye by said surgical tool (16, 30); and an audio device for providing the audio feedback together with the haptic feedback. a surgical tool (16, 30) for use in vitreoretinal surgery and being adapted to be held by a robot and a surgeon, a tool holder for receiving said surgical tool (16, 30); a sensor for detecting a force applied on a target area of interest of an eye by said surgical tool (16, 30); a controller for limiting velocity of said robot based upon the force detected so as to provide a haptic feedback; a selector for automatically selecting an audio feedback based upon the force applied on the target area of interest of said eye by said surgical tool (16, 30), the audio feedback comprising a modulating playback of audio that varies in tempo based on the relative intensity of the force applied on said target area of interest of said eye by said surgical tool (16, 30); and an audio device for providing the audio feedback together with the haptic feedback.
An electroacoustic converter comprising a piezoelectric film comprising: a polymer-based piezoelectric composite material which contains piezoelectric particles in a matrix containing a polymer material; and electrode layers (14, 16) which are provided on both surfaces of the polymer-based piezoelectric composite material, characterized in that in a case where a cross section of the film in a thickness direction is observed with a scanning electron microscope and the polymer-based piezoelectric composite material is divided into ten equal regions (12a to 12b) in the thickness direction, area ratios of the piezoelectric particles in the cross section of the film in the thickness direction of two most distant regions (12a, 12b) are measured, so that the area ratio of the piezoelectric particles in the region (12a or 12b) with a lower area ratio is set as 1, the area ratio of the piezoelectric particles in the region (12b or 12a) with a higher area ratio is 1.2 or greater. a polymer-based piezoelectric composite material which contains piezoelectric particles in a matrix containing a polymer material; and electrode layers (14, 16) which are provided on both surfaces of the polymer-based piezoelectric composite material, characterized in that in a case where a cross section of the film in a thickness direction is observed with a scanning electron microscope and the polymer-based piezoelectric composite material is divided into ten equal regions (12a to 12b) in the thickness direction, area ratios of the piezoelectric particles in the cross section of the film in the thickness direction of two most distant regions (12a, 12b) are measured, so that the area ratio of the piezoelectric particles in the region (12a or 12b) with a lower area ratio is set as 1, the area ratio of the piezoelectric particles in the region (12b or 12a) with a higher area ratio is 1.2 or greater.
A flat primary battery comprising a negative electrode mixture in a gel state and an electrolytic solution in a can, wherein the negative electrode mixture includes a zinc powder or a zinc alloy powder, a gelling agent, and a resin powder which does not react with the electrolytic solution and which has an average particle diameter of from 60 % to 140 % of an average particle diameter of the zinc powder or zinc alloy powder, the average particle diameter of the resin powder is 110 μm or more, the average particle diameter of the zinc powder or the zinc alloy powder is 50 to 250 μm, and the negative electrode mixture includes from 1 % by volume to 25 % by volume of the resin powder.
A membrane structure comprising cellulose microfibers and an inorganic layered compound, cellulose constituting the cellulose microfibers having a carboxyl content of 0.1 to 3 mmol/g, and the mass ratio of the inorganic layered compound to the cellulose microfibers being 0.01 to 100, wherein the cellulose microfibers have an average fiber diameter of 200 nm or smaller.
A structure comprising: multiple photonic crystals nested together, each photonic crystal comprising a dielectric layer (14a, 14b), the dielectric layer (14a, 14b) comprising therein light-emitting nanostructure materials, wherein a first set of light-emitting nanostructure materials is positioned at a first depth level of the dielectric layer, and a second set of light-emitting nanostructure materials is positioned at a second depth level of the dielectric layer that is distinct from the first depth level, wherein the emission wavelengths differ between the first and second sets of light-emitting nanostructure materials. multiple photonic crystals nested together, each photonic crystal comprising a dielectric layer (14a, 14b), the dielectric layer (14a, 14b) comprising therein light-emitting nanostructure materials, wherein a first set of light-emitting nanostructure materials is positioned at a first depth level of the dielectric layer, and a second set of light-emitting nanostructure materials is positioned at a second depth level of the dielectric layer that is distinct from the first depth level, wherein the emission wavelengths differ between the first and second sets of light-emitting nanostructure materials.
A control panel, comprising: a housing; one or more processors for controlling operation of the control panel for at least one of a security system or an automation system, the one or more processors carried within the housing; a first communication interface for enabling the control panel to connect to a plurality of wireless devices as a wireless access point, the first communication interface carried by or within the housing, and configured to provide the plurality of wireless devices access to a communication network accessible through the first communication interface; a second communication interface for communicatively coupling the one or more processors to the communication network, the second communication interface being carried by or within the housing; and a graphical user interface carried by the housing and in communication with the one or more processors for enabling control of the first communication interface and the security system or the automation system. a housing; one or more processors for controlling operation of the control panel for at least one of a security system or an automation system, the one or more processors carried within the housing; a first communication interface for enabling the control panel to connect to a plurality of wireless devices as a wireless access point, the first communication interface carried by or within the housing, and configured to provide the plurality of wireless devices access to a communication network accessible through the first communication interface; a second communication interface for communicatively coupling the one or more processors to the communication network, the second communication interface being carried by or within the housing; and a graphical user interface carried by the housing and in communication with the one or more processors for enabling control of the first communication interface and the security system or the automation system.
A cloud detector (100, 600) comprising: a near detector module directed to a first region of the sky, the near detector module comprising a tube and one or more sensing elements within the tube, wherein the one or more sensing elements are configured to take weather condition readings from the first region of the sky, wherein the tube is configured to restrict the field of view of the one or more sensing elements within the tube of the near detector module; and a far detector module directed to a second region of the sky, wherein the second region is farther away from a building than the first region, the far detector module comprising a tube and one or more sensing elements within the tube, wherein the one or more sensing elements within the tube are configured to take weather condition readings from the second region of the sky, wherein the tube is configured to restrict the field of view of the one or more sensing elements within the tube of the far detector module; wherein the one or more sensing elements (114, 124) within the tube (111, 121) of each of the near and far detector modules (110, 120) comprises an infrared radiation detector for measuring infrared radiation intensity and a photosensor element for measuring sunlight intensity. a near detector module directed to a first region of the sky, the near detector module comprising a tube and one or more sensing elements within the tube, wherein the one or more sensing elements are configured to take weather condition readings from the first region of the sky, wherein the tube is configured to restrict the field of view of the one or more sensing elements within the tube of the near detector module; and a far detector module directed to a second region of the sky, wherein the second region is farther away from a building than the first region, the far detector module comprising a tube and one or more sensing elements within the tube, wherein the one or more sensing elements within the tube are configured to take weather condition readings from the second region of the sky, wherein the tube is configured to restrict the field of view of the one or more sensing elements within the tube of the far detector module; wherein the one or more sensing elements (114, 124) within the tube (111, 121) of each of the near and far detector modules (110, 120) comprises an infrared radiation detector for measuring infrared radiation intensity and a photosensor element for measuring sunlight intensity.
A method for measuring the inflation pressure of tyres (Ppneu) fitted to a moving vehicle, comprising at least the following steps during which: - a) a stress, which is defined by the pressure exerted on at least one pressure sensor fixed in a part of a rolling track on which a tyre moves, is measured by a tyre (3, 3', 3", 3"') rolling on said sensor, - b) the time (t) during which the tyre (3, 3', 3", 3"') rolls on said sensor fixed to the rolling track is measured, said track representing a known contact surface, - c) a curve (C1, C2, C3) representing the distribution of stresses (Psol) exerted by the tyre (3, 3', 3", 3"') on said contact surface as a function of time (t) is established during the passage of the tyre (3, 3', 3", 3"') over said sensor, - d) the inflation pressure (Ppneu) of the tyre (3, 3', 3", 3"') is determined using a computer, with programming chosen from algorithmic or fuzzy logic programming, incorporating at least one model established from measurements carried out in steps a) to c) on tyres (3, 3', 3", 3"') for which the inflation pressure is known, characterised in that the method comprises at least the following step: e) during step d), the model used takes into account two other parameters, namely: - the length Lpneu of the tread of the tyre (3, 3', 3", 3"') in contact with said sensor fixed to the rolling track, determined during the measurement carried out in step b), the speed of the tyre being known, and - during an additional step g) prior to step d), the quantification of the shape (Shape) of the curve (C1, C2, C3) obtained in step c) according to a relationship taking into account the pressure exerted at mid-time (Psolt) of the passage of the tyre over the sensor fixed to the rolling track and the average pressure (Psolm) exerted by the tyre during its passage over the sensor. - a) a stress, which is defined by the pressure exerted on at least one pressure sensor fixed in a part of a rolling track on which a tyre moves, is measured by a tyre (3, 3', 3", 3"') rolling on said sensor, - b) the time (t) during which the tyre (3, 3', 3", 3"') rolls on said sensor fixed to the rolling track is measured, said track representing a known contact surface, - c) a curve (C1, C2, C3) representing the distribution of stresses (Psol) exerted by the tyre (3, 3', 3", 3"') on said contact surface as a function of time (t) is established during the passage of the tyre (3, 3', 3", 3"') over said sensor, - d) the inflation pressure (Ppneu) of the tyre (3, 3', 3", 3"') is determined using a computer, with programming chosen from algorithmic or fuzzy logic programming, incorporating at least one model established from measurements carried out in steps a) to c) on tyres (3, 3', 3", 3"') for which the inflation pressure is known,
A method for processing a database data modification request, the method comprising: receiving a data modification request for a database; modifying second data in the database to first data; generating a first log and a second log based on the data modification request, wherein the first log is a simplified log that includes only the first data, and the second log comprises the first data and the second data; performing persistence processing on the first log and performing persistence processing on the second log; and returning a modification result that corresponds to the data modification request after having performed persistence processing on the first log without waiting for persistence processing to have been performed on the second log. receiving a data modification request for a database; modifying second data in the database to first data; generating a first log and a second log based on the data modification request, wherein the first log is a simplified log that includes only the first data, and the second log comprises the first data and the second data; performing persistence processing on the first log and performing persistence processing on the second log; and returning a modification result that corresponds to the data modification request after having performed persistence processing on the first log without waiting for persistence processing to have been performed on the second log.
Method for automated cleaning of finned heat exchangers and other sensitive surfaces, a carrier gas, preferably compressed air, and a liquid as an abrasive medium, preferably water, being supplied at a pressure of at least 2 bar through feed tubes, the supplied water amount being less than 1 %, preferably less than 0.30 %, of the supplied air amount, characterised in that, at a guide unit consisting of at least one and preferably two guide rails, a movement device preferably moved on rollers or runners is moved up and down, to which device a carrier arm is attached on which at least one, preferably a plurality of blast nozzles are attached in such a way that they are moved alongside the guide unit via the movement device by way of an additional drive unit, preferably via a roller or toothed wheel attached to the other end.
Method for manufacturing an optical lens comprising the following successive steps: - a step of providing an optical lens attached to a blocking piece, - a step of laminating a functional film on a surface of said optical lens, - a step of obtaining an assembly constituted by the blocking piece, the optical lens and the functional laminated film, - a step of cutting the excess film (1, 20) directly on said assembly, so as to reduce the film shape, - a step of deblocking the optical lens with the film, and the blocking piece. - a step of providing an optical lens attached to a blocking piece, - a step of laminating a functional film on a surface of said optical lens, - a step of obtaining an assembly constituted by the blocking piece, the optical lens and the functional laminated film, - a step of cutting the excess film (1, 20) directly on said assembly, so as to reduce the film shape, - a step of deblocking the optical lens with the film, and the blocking piece.
A method for secure transmissions on a broadcast channel, the method comprising: obtaining a short term key for a message for transmission, the short term key corresponding to a short term key identifier; determining a broadcast access key for the message, the broadcast access key corresponding to an access key identifier; encrypting the message with the short term key; forming an Internet protocol header comprising the short term key identifier; and transmitting the encrypted message on the broadcast channel with the Internet protocol header, wherein the short term key is calculated as a function of the short term key identifier and the broadcast access key. obtaining a short term key for a message for transmission, the short term key corresponding to a short term key identifier; determining a broadcast access key for the message, the broadcast access key corresponding to an access key identifier; encrypting the message with the short term key; forming an Internet protocol header comprising the short term key identifier; and transmitting the encrypted message on the broadcast channel with the Internet protocol header, wherein the short term key is calculated as a function of the short term key identifier and the broadcast access key.