mhurhangee/ep-ind-claims huggingface dataset:
A system comprising a chain barrier with a safety device (60,60') for the aforesaid chain barrier, wherein the chain barrier comprises a pair of pillars (30,40) between which a chain can be suspended and an actuating assembly, placed inside one of the two pillars, said actuating assembly being configured to actuate the chain through an opening of the pillar from a first position, wherein it leaves the passage free between the two pillars (30,40) to a second position, wherein it prevents the passage between the two pillars (30,40) and vice versa, and where the safety device (60,60') is configured to intervene in the event of danger, characterized in that said safety device comprises at least one movable element, applied at the opening of the pillar, housing said actuating assembly, where said safety device is configured to move in the event of contact with a foreign body about to enter into said opening, where said movement is calibrated to actuate an electrical contact, which acts on operation of the chain actuating assembly.
A film-packaged tissue paper in which a pop-up type tissue paper bundle having a substantially cuboid shape and formed by folding and stacking a plurality of tissue papers so that the tissue paper is folded in half and outer folded sides of the other tissue papers located at upper and lower positions are located at an inner folded side is packaged with a flexible resinous packaging film, wherein an air vent communicating the inside and the outside of a package is formed at a position facing a short side surface having no arranged folded edges of the tissue paper bundle of the packaging film, the air vent being capable of discharging a gas inside the package to the outside of the package and guiding a gas outside the package to flow into the package.
A level sensor for measuring a distance between a transmitter-receiver device and a target, the transmitter-receiver device having: - a transmission mode for transmitting a sending signal formed of electromagnetic waves at an angle α and - a reception mode for receiving electromagnetic waves forming a return signal, called echo, characterized in that it includes: - a lens positioned between the transmitter-receiver device and the target at a distance, said lens deflecting the electromagnetic waves transmitted by the transmitter-receiver device at the angle α to change the angle of the electromagnetic waves to an angle β, - an electronic radar board provided to pilot the transmitter-receiver device for sending electromagnetic waves and processing the received echo and to calculate the distance with the target based on the speed of propagation of the wave in its environment, the frequency of the electromagnetic waves and the response time between transmitting the sending signal and receiving the echo, the electronic radar board being configured to adapt the amplitude of the electromagnetic waves transmitted so that the amplitude of the echo received is within a reference range of plus 10% and minus 10% of the amplitude of a reference echo, said reference echo being prerecorded or extracted from an abacus, with successive shots being performed and a comparison between the echoes of successive shots and the reference one. - a transmission mode for transmitting a sending signal formed of electromagnetic waves at an angle α and - a reception mode for receiving electromagnetic waves forming a return signal, called echo, characterized in that it includes: - a lens positioned between the transmitter-receiver device and the target at a distance, said lens deflecting the electromagnetic waves transmitted by the transmitter-receiver device at the angle α to change the angle of the electromagnetic waves to an angle β, - an electronic radar board provided to pilot the transmitter-receiver device for sending electromagnetic waves and processing the received echo and to calculate the distance with the target based on the speed of propagation of the wave in its environment, the frequency of the electromagnetic waves and the response time between transmitting the sending signal and receiving the echo,
A surgical robotic system comprising: a left handheld user interface device and right handheld UID; an autostereoscopic three dimensional display; and a processor, configured to receive a plurality of pre-operation images of a patient; perform reconstruction upon the plurality of pre-operation images to generate a three dimensional image of the patient; render the three dimensional image of the patient stereoscopically, resulting in a stereoscopic data stream; drive the autostereoscopic three dimensional display with the stereoscopic data stream to produce one or more views of the three dimensional image of the patient on the autostereoscopic three dimensional display; and adjust a view of the three dimensional image of the patient on the autostereoscopic three dimensional display in response to an input from the left handheld UID or the right handheld UID. a left handheld user interface device and right handheld UID; an autostereoscopic three dimensional display; and a processor, configured to receive a plurality of pre-operation images of a patient; perform reconstruction upon the plurality of pre-operation images to generate a three dimensional image of the patient; render the three dimensional image of the patient stereoscopically, resulting in a stereoscopic data stream; drive the autostereoscopic three dimensional display with the stereoscopic data stream to produce one or more views of the three dimensional image of the patient on the autostereoscopic three dimensional display; and adjust a view of the three dimensional image of the patient on the autostereoscopic three dimensional display in response to an input from the left handheld UID or the right handheld UID. receive a plurality of pre-operation images of a patient; perform reconstruction upon the plurality of pre-operation images to generate a three dimensional image of the patient; render the three dimensional image of the patient stereoscopically, resulting in a stereoscopic data stream; drive the autostereoscopic three dimensional display with the stereoscopic data stream to produce one or more views of the three dimensional image of the patient on the autostereoscopic three dimensional display; and adjust a view of the three dimensional image of the patient on the autostereoscopic three dimensional display in response to an input from the left handheld UID or the right handheld UID.
A method of analysing an aircraft being located in an inspection area by means of at least one drone comprising at least one sensor adapted to a analyse the surface of said aircraft, the method comprising the steps of: - bringing said at least one drone in said inspection area; - making a first scan of at least one part of said aircraft; - processing said first scan in order to determine automatically an inspection path for said at least one drone, said processing comprising: - determining the type of said aircraft, - accessing a database (A_DB) in order to obtain characteristic data for said type of said aircraft; and - determining said inspection path as a function of said characteristic data for said type of said aircraft; and - making by means of said at least one drone a second scan following said inspection path and simultaneously analysing the surface of said aircraft by means of said at least one sensor; characterized in that said database (A_DB) comprises a three-dimensional model of said aircraft divided into a plurality of areas, where associated to each area is an index indicating whether the respective area is to be analysed or a forbidden area. - bringing said at least one drone in said inspection area; - making a first scan of at least one part of said aircraft; - processing said first scan in order to determine automatically an inspection path for said at least one drone, said processing comprising: - determining the type of said aircraft, - accessing a database (A_DB) in order to obtain characteristic data for said type of said aircraft; and - determining said inspection path as a function of said characteristic data for said type of said aircraft; and - determining the type of said aircraft, - accessing a database (A_DB) in order to obtain characteristic data for said type of said aircraft; and - determining said inspection path as a function of said characteristic data for said type of said aircraft; and - making by means of said at least one drone a second scan following said inspection path and simultaneously analysing the surface of said aircraft by means of said at least one sensor;
A binding machine comprising: a wire feeding unit configured to feed two wires to be wound on an object to be bound; a binding unit comprising at least a pair of engaging members (70L, 70R, 70C) which are openable and closable, the binding unit configured to twist the two wires engaged by closing the pair of the engaging members (70L, 70R, 70C); and a control unit (14A, 14B, 14C) configured to execute an operation of releasing a parallel alignment state of the two wires in an opening/closing direction of the pair of engaging members (70L, 70R, 70C), characterized in that the control unit (14A, 14B, 14C) is configured to estimate a parallel alignment state of the two wires passing between the pair of engaging members (70L, 70R, 70C), and when it is estimated that the two wires are aligned in parallel in the opening/closing direction of the pair of engaging members (70L, 70R, 70C), the control unit executes the operation of releasing the parallel alignment state of the two wires in the opening/closing direction of the pair of engaging members (70L, 70R, 70C). a wire feeding unit configured to feed two wires to be wound on an object to be bound; a binding unit comprising at least a pair of engaging members (70L, 70R, 70C) which are openable and closable, the binding unit configured to twist the two wires engaged by closing the pair of the engaging members (70L, 70R, 70C); and a control unit (14A, 14B, 14C) configured to execute an operation of releasing a parallel alignment state of the two wires in an opening/closing direction of the pair of engaging members (70L, 70R, 70C), characterized in that the control unit (14A, 14B, 14C) is configured to estimate a parallel alignment state of the two wires passing between the pair of engaging members (70L, 70R, 70C), and when it is estimated that the two wires are aligned in parallel in the opening/closing direction of the pair of engaging members (70L, 70R, 70C), the control unit executes the operation of releasing the parallel alignment state of the two wires in the opening/closing direction of the pair of engaging members (70L, 70R, 70C).
An electrical conductor arrangement for an electrical machine, the conductor arrangement comprising: - an electrical conductor; and - an insulator for electrically insulating the conductor comprising an electrical insulation material; wherein the insulator comprises at least one film including a first edge portion and wherein the first edge portion is bonded to an overlapping portion (114, 115, 116) of the insulator by heating and melting a portion of the insulation material, and wherein the film comprises a non-conductive and laser active material, and wherein the film is a multi-layer film comprising a semiconductive material or field grading material. - an electrical conductor; and - an insulator for electrically insulating the conductor comprising an electrical insulation material;
A communication apparatus that operates as an access point the communication apparatus comprising: a communicating unit configured to transmit and receive wireless signals; and a control unit configured to control communication operations in the communicating unit, the communication operations including a communication operation for sharing data to be simultaneously transmitted to a single communication terminal between adjacent access points and a communication operation for recognizing that sharing of the data has been completed; wherein the control unit is configured to perform control so as to identify a time section in which the single communication terminal is incapable of communication owing to an interference signal by not receiving a response from the single communication terminal during the time section; and perform a communication operation for sharing the data between the adjacent access points during the time section. a communicating unit configured to transmit and receive wireless signals; and a control unit configured to control communication operations in the communicating unit, the communication operations including a communication operation for sharing data to be simultaneously transmitted to a single communication terminal between adjacent access points and a communication operation for recognizing that sharing of the data has been completed; wherein the control unit is configured to perform control so as to identify a time section in which the single communication terminal is incapable of communication owing to an interference signal by not receiving a response from the single communication terminal during the time section; and perform a communication operation for sharing the data between the adjacent access points during the time section.
A color categorization machine learning method comprising the steps of: taking color or spectral measurements of a color of a surface of the skin, hair, finger nail, or other part of a body using a color or spectral measurement device; mapping the color or spectral measurements into a color space; mapping the color space measurements into a multi-dimensional feature space to generate a multi-dimensional feature vector representative of a plurality of different measured locations of the body; classifying the mapped color or spectral measurements into a color category using the generated multi-dimensional feature vector and at least one classifier; generating a validation request for a user of the color or spectral measurement device, the validation request including a request to validate the color category determined in the classifying step; and adding the mapped color or spectral measurements and color category to training data used by the classifier only if the user of the color or spectral measurement device validates the color category. taking color or spectral measurements of a color of a surface of the skin, hair, finger nail, or other part of a body using a color or spectral measurement device; mapping the color or spectral measurements into a color space; mapping the color space measurements into a multi-dimensional feature space to generate a multi-dimensional feature vector representative of a plurality of different measured locations of the body; classifying the mapped color or spectral measurements into a color category using the generated multi-dimensional feature vector and at least one classifier; generating a validation request for a user of the color or spectral measurement device, the validation request including a request to validate the color category determined in the classifying step; and adding the mapped color or spectral measurements and color category to training data used by the classifier only if the user of the color or spectral measurement device validates the color category.
A fuel cell, comprising: a membrane electrode assembly including an electrolyte membrane, catalyst layers disposed on both sides of the electrolyte membrane, and three or more layers of porous bodies disposed on a front surface side of the catalyst layer; a frame body surrounding an outer periphery of the electrolyte membrane; a separator for partitioning and forming a gas passage between the membrane electrode assembly and the separator; wherein extended portions (11A, 12A) are provided at an outer edge of a first porous body adjacent to the separator among the at least three layers of the porous bodies, and at an outer edge of a second porous body adjacent to the first porous body, respectively, so as to extend to be superimposed over the frame body, and the extended portions (11A, 12A) of the first and second porous bodies (11, 12) intervene between the frame body and the separator. a membrane electrode assembly including an electrolyte membrane, catalyst layers disposed on both sides of the electrolyte membrane, and three or more layers of porous bodies disposed on a front surface side of the catalyst layer; a frame body surrounding an outer periphery of the electrolyte membrane; a separator for partitioning and forming a gas passage between the membrane electrode assembly and the separator; extended portions (11A, 12A) are provided at an outer edge of a first porous body adjacent to the separator among the at least three layers of the porous bodies, and at an outer edge of a second porous body adjacent to the first porous body, respectively, so as to extend to be superimposed over the frame body, and the extended portions (11A, 12A) of the first and second porous bodies (11, 12) intervene between the frame body and the separator.
A cargo restraint system, comprising: a first restraint configured to rotate about an axis; a second restraint configured to rotate about the axis; and an actuator assembly comprising an actuator shaft, the actuator assembly configured to simultaneously rotate the first restraint and the second restraint between a raised position and a stowed position, wherein the first restraint includes: a head configured to rotate about the axis; and a plunger configured to translate between an engaged state and a disengaged state, wherein in the engaged state the head is rotationally coupled to the actuator assembly, and wherein in the disengaged state the head of the first restraint rotates independently of the second restraint and the actuator assembly, wherein the plunger translates toward the actuator shaft when translating from the disengaged state to the engaged state, and the plunger translates away from the actuator shaft when translating from the engaged state to the disengaged state. a first restraint configured to rotate about an axis; a second restraint configured to rotate about the axis; and an actuator assembly comprising an actuator shaft, the actuator assembly configured to simultaneously rotate the first restraint and the second restraint between a raised position and a stowed position, wherein the first restraint includes: a head configured to rotate about the axis; and a plunger configured to translate between an engaged state and a disengaged state, wherein in the engaged state the head is rotationally coupled to the actuator assembly, and wherein in the disengaged state the head of the first restraint rotates independently of the second restraint and the actuator assembly, a head configured to rotate about the axis; and a plunger configured to translate between an engaged state and a disengaged state, wherein in the engaged state the head is rotationally coupled to the actuator assembly, and wherein in the disengaged state the head of the first restraint rotates independently of the second restraint and the actuator assembly, wherein the plunger translates toward the actuator shaft when translating from the disengaged state to the engaged state, and the plunger translates away from the actuator shaft when translating from the engaged state to the disengaged state.
A process for producing 1,1-dichloro-2,3,3,3-tetrafluoropropene, characterized by bringing a mixture of dichloropentafluoropropane isomers which contains 1,1-dichloro-2,2,3,3,3-pentafluoropropane into contact with an aqueous alkali solution in the presence of a phase transfer catalyst, and thereby selectively dehydrofluorinating only the 1,1-dichloro-2,2,3,3,3-pentafluoropropane in the mixture.
A reprogrammable target device comprising: a connector including an external port; a port controller including logic configured to: detect a debug mode request, transmitted by a debug tool arranged to be connected to the external port, via the external port, activate a communication program path between the external port and the port controller, via logic included in the port controller, in response to the debug mode request, process one or more commands received via the communication program path, the one or more commands transmitted by the debug tool, and reprogram the port controller, upon processing the one or more commands, characterized by: a multiplexer (30, 40) coupled to the external port and the port controller, wherein the logic is configured to send a routing signal to the multiplexer to activate the communication program path, which is configured to bypass components of the target device, and connects directly to the port controller via the multiplexer. a connector including an external port; a port controller including logic configured to: detect a debug mode request, transmitted by a debug tool arranged to be connected to the external port, via the external port, activate a communication program path between the external port and the port controller, via logic included in the port controller, in response to the debug mode request, process one or more commands received via the communication program path, the one or more commands transmitted by the debug tool, and reprogram the port controller, upon processing the one or more commands, characterized by: a multiplexer (30, 40) coupled to the external port and the port controller, wherein the logic is configured to send a routing signal to the multiplexer to activate the communication program path, which is configured to bypass components of the target device, and connects directly to the port controller via the multiplexer. detect a debug mode request, transmitted by a debug tool arranged to be connected to the external port, via the external port, activate a communication program path between the external port and the port controller, via logic included in the port controller, in response to the debug mode request, process one or more commands received via the communication program path, the one or more commands transmitted by the debug tool, and reprogram the port controller, upon processing the one or more commands, characterized by: a multiplexer (30, 40) coupled to the external port and the port controller, wherein the logic is configured to send a routing signal to the multiplexer to activate the communication program path, which is configured to bypass components of the target device, and connects directly to the port controller via the multiplexer.