mhurhangee/ep-ind-claims huggingface dataset:
Method for checking the accuracy of labels on containers, particularly bottles, with the steps: a) holding the containers in a predetermined rotational position, b) positioning a first probe on a first imprint feature which is present on a first label affixed laterally to the containers, by moving the first probe or the container along a straight measurement line extending in a direction perpendicular to the main axis of the container, and measuring an associated first actual position along the straight measurement line; c) positioning a second probe on a second imprint feature which is present on a second label affixed laterally to the containers, by moving the second probe or the container along the straight measurement line, and measuring an associated second actual position along the straight measurement line; and d) determining a position offset between the first and second actual position. a) holding the containers in a predetermined rotational position, b) positioning a first probe on a first imprint feature which is present on a first label affixed laterally to the containers, by moving the first probe or the container along a straight measurement line extending in a direction perpendicular to the main axis of the container, and measuring an associated first actual position along the straight measurement line; c) positioning a second probe on a second imprint feature which is present on a second label affixed laterally to the containers, by moving the second probe or the container along the straight measurement line, and measuring an associated second actual position along the straight measurement line; and d) determining a position offset between the first and second actual position.
An industrial vehicle remote operation system comprising: an industrial vehicle that includes a vehicle communication unit; a remote operation device that includes a remote communication unit performing wireless communication with the vehicle communication unit, and is used for remotely operating the industrial vehicle; and a forced stop control unit (33, 25) configured to decelerate and forcibly stop traveling of the industrial vehicle while maintaining a steering angle (Dθ) of the industrial vehicle formed when a forced stop condition is met, in a case where the forced stop condition is met during a remote operation of traveling of the industrial vehicle using the remote operation device, characterized in that the forced stop control unit is provided on the remote operation device, and transmits, to the vehicle communication unit using the remote communication unit, a forced stop remote operation signal that includes settings of at least either a forced stop speed or a forced stop deceleration, and the steering angle (Dθ) of the industrial vehicle formed when the forced stop condition is met, and when the vehicle communication unit receives the forced stop remote operation signal, the industrial vehicle is forcibly stopped based on the settings of at least either the forced stop speed or the forced stop deceleration included in the forced stop remote operation signal, and on the steering angle (Dθ). an industrial vehicle that includes a vehicle communication unit; a remote operation device that includes a remote communication unit performing wireless communication with the vehicle communication unit, and is used for remotely operating the industrial vehicle; and a forced stop control unit (33, 25) configured to decelerate and forcibly stop traveling of the industrial vehicle while maintaining a steering angle (Dθ) of the industrial vehicle formed when a forced stop condition is met, in a case where the forced stop condition is met during a remote operation of traveling of the industrial vehicle using the remote operation device, characterized in that the forced stop control unit is provided on the remote operation device, and transmits, to the vehicle communication unit using the remote communication unit, a forced stop remote operation signal that includes settings of at least either a forced stop speed or a forced stop deceleration, and the steering angle (Dθ) of the industrial vehicle formed when the forced stop condition is met, and when the vehicle communication unit receives the forced stop remote operation signal, the industrial vehicle is forcibly stopped based on the settings of at least either the forced stop speed or the forced stop deceleration included in the forced stop remote operation signal, and on the steering angle (Dθ).
Method for setting up a secure communication channel for interchanging data between a first and a second network device (1, 2) by using a secure protocol, wherein the second network device is configured to stipulate the secure protocol on the basis of protocol stipulation data indicating prerequisites for the secure protocol, comprising: producing security data by means of an issuer device, wherein the security data define the protocol stipulation data; signing the security data with a digital signature or a message authentication code by means of the issuer device; transmitting the security data to the first network device from the issuer device; transmitting the security data to the second network device from the first network device; verifying the authenticity of the security data by means of the second network device by checking the digital signature or the message authentication code; and updating obsolete protocol stipulation data of the second network device on the basis of the protocol stipulation data defined by the received security data. producing security data by means of an issuer device, wherein the security data define the protocol stipulation data; signing the security data with a digital signature or a message authentication code by means of the issuer device; transmitting the security data to the first network device from the issuer device; transmitting the security data to the second network device from the first network device; verifying the authenticity of the security data by means of the second network device by checking the digital signature or the message authentication code; and updating obsolete protocol stipulation data of the second network device on the basis of the protocol stipulation data defined by the received security data.
An electrical device comprising: a housing including a flange, the flange having a top side, an opposite bottom side, and outer side extending between the top side and the bottom side, the flange defining a bolt aperture extending from the bottom side towards the top side, wherein the flange includes a nut retention slot within the flange, the nut retention slot configured to receive a nut therein through an opening along the outer side of the flange, the nut retention slot within the flange including two opposing side walls that extend from the opening, the side walls extending parallel to each other and perpendicular to a plane of the opening, and the nut retention slot including at least one back wall between the two side walls, at least one of the side walls including a crush rib protruding from the respective side wall into the nut retention slot, the or each crush rib extending for a majority of the length of the side wall between the opening at the outer side of the flange and the at least one back wall of the nut retention slot, the or each crush rib configured to engage an exterior side of the nut that is received within the nut retention slot to retain the nut in the nut retention slot via an interference fit, wherein the bolt aperture is positioned relative to the nut retention slot to align with a threaded central bore of the nut disposed within the nut retention slot to allow insertion of a bolt through the bolt aperture into the threaded central bore of the nut. a housing including a flange, the flange having a top side, an opposite bottom side, and outer side extending between the top side and the bottom side, the flange defining a bolt aperture extending from the bottom side towards the top side, wherein the flange includes a nut retention slot within the flange, the nut retention slot configured to receive a nut therein through an opening along the outer side of the flange, the nut retention slot within the flange including two opposing side walls that extend from the opening, the side walls extending parallel to each other and perpendicular to a plane of the opening, and the nut retention slot including at least one back wall between the two side walls, at least one of the side walls including a crush rib protruding from the respective side wall into the nut retention slot, the or each crush rib extending for a majority of the length of the side wall between the opening at the outer side of the flange and the at least one back wall of the nut retention slot, the or each crush rib configured to engage an exterior side of the nut that is received within the nut retention slot to retain the nut in the nut retention slot via an interference fit, wherein the bolt aperture is positioned relative to the nut retention slot to align with a threaded central bore of the nut disposed within the nut retention slot to allow insertion of a bolt through the bolt aperture into the threaded central bore of the nut.
An austenitic stainless steel alloy, consisting of, by weight: 22% to 28% chromium; 3.5% to 6.5% nickel; 1% to 6% manganese; 1.0% to 2.0% silicon; 0.5% to 1.5% tungsten; 0.2% to 0.8% molybdenum; 0.2% to 0.8% niobium; 0.3% to 0.6% carbon; 0.2% to 0.8% nitrogen; less than 0.005% boron; less than 0.005% calcium; less than 0.005% cerium; less than 0.03% sulfur; less than 0.03% phosphorus and a balance of iron. 22% to 28% chromium; 3.5% to 6.5% nickel; 1% to 6% manganese; 1.0% to 2.0% silicon; 0.5% to 1.5% tungsten; 0.2% to 0.8% molybdenum; 0.2% to 0.8% niobium; 0.3% to 0.6% carbon; 0.2% to 0.8% nitrogen; less than 0.005% boron; less than 0.005% calcium; less than 0.005% cerium; less than 0.03% sulfur; less than 0.03% phosphorus and a balance of iron.
A method for predicting battery health, performed by a terminal device and comprising: obtaining an environment temperature, a discharge capacity and an operating parameter of a battery; characterised by: determining an estimated operating parameter in a preset temperature at the discharge capacity according to the environment temperature, the discharge capacity and the operating parameter; determining an estimated capacity of the battery at the discharge capacity according to the estimated operating parameter; and determining a health level of the battery according to the estimated capacity of the battery and a reference capacity, at the discharge capacity, of the battery. determining an estimated operating parameter in a preset temperature at the discharge capacity according to the environment temperature, the discharge capacity and the operating parameter; determining an estimated capacity of the battery at the discharge capacity according to the estimated operating parameter; and determining a health level of the battery according to the estimated capacity of the battery and a reference capacity, at the discharge capacity, of the battery.
A gyrostabiliser control system for stabilising floating vessel motion induced by wave action, the control system comprising: a first sensing means for sensing the precession of a flywheel of the gyrostabiliser, a control means and actuator responsive to the control signal for applying a precession control torque to the gyrostabiliser flywheel whereby, in use, adaptive control of the vessel motion based only on the precession of the gyrostabiliser flywheel is achieved, characterised in that the control means generates a control signal to increase the precession of the gyrostabiliser flywheel until it is estimated, based on the sensed precession, that the precession will exceed a predefined limit.
A producing method of an aging delaying material for fruits or vegetables, wherein the producing method has steps comprising of: adding and blending a silicon material in a blending machine, the silicon material comprising a silicon oxide, clay or mixture thereof and having porous structures or layer structures; gradually spraying or dropping an ethylene reducing material solution into the silicon material in the blending machine during blending, the ethylene reducing material solution comprising bromide solution, potassium permanganate, potassium bromide or mixture thereof dispersed in a solvent; and gradually removing the solvent of the ethylene reducing solvent solution during blending under humidity control or temperature control at range of 85°C~105°C until the solvent is partially removed from the silicon material and the ethylene reducing material to form a dry mixing powder, wherein at least partial surfaces, pores of the porous structures or layer structures are coated or filled with the ethylene reducing material to form the dry mixing powder. adding and blending a silicon material in a blending machine, the silicon material comprising a silicon oxide, clay or mixture thereof and having porous structures or layer structures; gradually spraying or dropping an ethylene reducing material solution into the silicon material in the blending machine during blending, the ethylene reducing material solution comprising bromide solution, potassium permanganate, potassium bromide or mixture thereof dispersed in a solvent; and gradually removing the solvent of the ethylene reducing solvent solution during blending under humidity control or temperature control at range of 85°C~105°C until the solvent is partially removed from the silicon material and the ethylene reducing material to form a dry mixing powder, wherein at least partial surfaces, pores of the porous structures or layer structures are coated or filled with the ethylene reducing material to form the dry mixing powder.
Method for assisting a pilot of a rotary wing aircraft during a phase of flight in autorotation, said aircraft comprising: - a hybrid power plant provided with a single thermal engine, at least one electric machine and a main power transmission gearbox, - at least one electrical energy storage means and - at least one main rotor driven, in flight, at a nominal speed of rotation Nr N by said hybrid power plant, characterised in that - during a monitoring step, a monitoring parameter of said aircraft is measured during a flight in order to detect a possible failure of said thermal engine, - when a failure of said thermal engine is detected, said electric machine is controlled to deliver auxiliary power W e to said main rotor, thus making it possible to assist said pilot of said aircraft, during the entry into the phase of flight in autorotation following said failure to manoeuvre said aircraft. - a hybrid power plant provided with a single thermal engine, at least one electric machine and a main power transmission gearbox, - at least one electrical energy storage means and - at least one main rotor driven, in flight, at a nominal speed of rotation Nr N by said hybrid power plant, - during a monitoring step, a monitoring parameter of said aircraft is measured during a flight in order to detect a possible failure of said thermal engine, - when a failure of said thermal engine is detected, said electric machine is controlled to deliver auxiliary power W e to said main rotor, thus making it possible to assist said pilot of said aircraft, during the entry into the phase of flight in autorotation following said failure to manoeuvre said aircraft.
An optical cable which comprises: - an optical core consisting of at least one optical fiber, protected or unprotected by a protective sheath; - around this optical core, a sheath called "external sheath"; - at least one mechanical reinforcing element which has a thickness smaller than its width and which is disposed between the optical core and the external sheath; characterized by the fact that: - said at least one mechanical reinforcing element has an angular extent less than 360°, preferably less than 180°; - said at least one mechanical reinforcing element is disposed according to a circular arc configuration whose concavity is directed towards said optical core; - said at least one mechanical reinforcing element is secured to the surrounding medium, but is simply in contact with said optical core when it touches it. - an optical core consisting of at least one optical fiber, protected or unprotected by a protective sheath; - around this optical core, a sheath called "external sheath"; - at least one mechanical reinforcing element which has a thickness smaller than its width and which is disposed between the optical core and the external sheath; - said at least one mechanical reinforcing element has an angular extent less than 360°, preferably less than 180°; - said at least one mechanical reinforcing element is disposed according to a circular arc configuration whose concavity is directed towards said optical core; - said at least one mechanical reinforcing element is secured to the surrounding medium, but is simply in contact with said optical core when it touches it.
A high-voltage DC relay with an auxiliary contact, comprising two stationary contacts, a movable contact piece, a pushing rod, a coil assembly, a movable iron core and an auxiliary contact, wherein the movable iron core is disposed in the coil assembly and is capable of moving up and down and is fixedly connected with the pushing rod; the movable contact piece is movably connected with the pushing rod and cooperates with the two stationary contacts; characterized in that, the auxiliary contact comprises two auxiliary springs located in the coil assembly, each of the two auxiliary springs is provided with a lead-out pin, the pushing rod is provided with an insulating portion and a conductive portion, the insulating portion is adjacent to the conductive portion in a vertical direction, as the pushing rod is moved up and down, the two auxiliary springs clamp the conductive portion or the insulating portion of the pushing rod to make the auxiliary contact close or open.
Tool for machining a workpiece, comprising: - a holder, extending substantially along a longitudinal axis, having a first internal coolant duct; - a cutting insert having a main cutting edge; - a first fastening element for releasably fastening the cutting insert to the holder; - a substantially plate-like coolant guiding attachment having a second internal coolant duct; and - a second fastening element for releasably fastening the coolant guiding attachment to the holder; wherein, in an assembled state of the tool, the first internal coolant duct is fluidically connected to the second internal coolant duct, wherein the coolant guiding attachment comprises a first opening, which is configured as a recess or through-opening and allows access to the first fastening element, such that the cutting insert is separately releasable from the holder by releasing the first fastening element even when the coolant guiding attachment is fastened to the holder, and the coolant guiding attachment is separately releasable from the holder by releasing the second fastening element even when the cutting insert is fastened to the holder, wherein the second internal coolant duct comprises a first coolant outlet opening and a second coolant outlet opening at which coolant leaves the second internal coolant duct, wherein the first and the second coolant outlet opening (32, 34) are arranged on a front side of the coolant guiding attachment on opposite sides of the first opening, wherein said front side of the coolant guiding attachment faces the main cutting edge, characterized in that the coolant guiding attachment covers at least a part of the cutting insert, wherein the first coolant outlet opening is arranged at a first distance (d 1) from an imaginary reference plane which is oriented perpendicularly to the longitudinal axis of the holder and in which a central axis of the second fastening element is located, wherein the second coolant outlet opening is arranged at a second distance (d 2) from the imaginary reference plane, wherein a central axis of the first fastening element is arranged at a third distance (d 3) from the imaginary reference plane, and wherein at least one point on the main cutting edge is arranged at a fourth distance (d 4) from the imaginary reference plane, and wherein the following applies: third distance (d 3) ≤ second distance (d 2) ≤ first distance (d 1) < fourth distance (d 4). - a holder, extending substantially along a longitudinal axis, having a first internal coolant duct; - a cutting insert having a main cutting edge; - a first fastening element for releasably fastening the cutting insert to the holder; - a substantially plate-like coolant guiding attachment having a second internal coolant duct; and - a second fastening element for releasably fastening the coolant guiding attachment to the holder;
Plug connection, comprising an industrial angled plug or an angled junction box which has a contact insert for establishing an electrical connection and has a conductive plug or junction box housing, a nonconductive plug or junction box housing sheath, and a union nut with a cable kink-protection apparatus, wherein the housing sheath at least partially envelops a lateral surface of the housing and bears against the housing in the manner of a shell, wherein the housing sheath is formed from separate housing shells which are connected to one another at their butt joints, and wherein the housing sheath is provided with a thread at at least one plug or junction box end, the said thread implementing the connection of the separate housing shells by way of an end of the union nut, and wherein the cable kink-protection apparatus is arranged at an end of the union nut which is averted from the housing sheath.
A recording/reproducing device used in a movable object and recording and reproducing captured data captured by a camera, comprising: a captured data acquisition unit configured to acquire the captured data; an event detection unit configured to detect occurrence of an event involving the movable object; a recording control unit configured to store, as event recording data, the captured data for a predetermined period from at least part of the captured data on the basis of detection of the event; a line-of-sight detection unit configured to detect that a user's line of sight, continuously for a predetermined period of time, is pointing towards a display unit configured to display the event recording data; and a reproduction control unit configured to start reproduction of the event recording data stored most recently when the line-of-sight detection unit detects that the user's line of sight is pointing, continuously for the predetermined period of time, towards the display unit within a predetermined period immediately after detection of the event. a captured data acquisition unit configured to acquire the captured data; an event detection unit configured to detect occurrence of an event involving the movable object; a recording control unit configured to store, as event recording data, the captured data for a predetermined period from at least part of the captured data on the basis of detection of the event; a line-of-sight detection unit configured to detect that a user's line of sight, continuously for a predetermined period of time, is pointing towards a display unit configured to display the event recording data; and a reproduction control unit configured to start reproduction of the event recording data stored most recently when the line-of-sight detection unit detects that the user's line of sight is pointing, continuously for the predetermined period of time, towards the display unit within a predetermined period immediately after detection of the event.