mhurhangee/ep-ind-claims huggingface dataset:
Method for cleaning the inner surface of a tyre and comprising the step of emitting a laser beam that is directed against the inner surface by means of an emitter device; the cleaning method is characterised in that it comprises the further steps of: performing deeper cleaning within at least a first annular zone of the inner surface in applying, by means of the laser beam, to the first annular zone a first surface energy density; and performing less thorough cleaning within at least a second annular zone of the inner surface in applying, by means of the laser beam, to the second annular zone a second surface energy density that is not zero and that is lower than the first surface energy density. performing deeper cleaning within at least a first annular zone of the inner surface in applying, by means of the laser beam, to the first annular zone a first surface energy density; and performing less thorough cleaning within at least a second annular zone of the inner surface in applying, by means of the laser beam, to the second annular zone a second surface energy density that is not zero and that is lower than the first surface energy density.
A method for preparing 2,3,3,3-tetrafluoroprop-1-ene comprising: a. providing a starting composition comprising at least one compound having a structure selected from Formulae I, II and III: CX 2 =CCl-CH 2 X (Formula I) CX 3 -CCl=CH 2 (Formula II) CX 3 -CHCl-CH 2 X (Formula III) wherein X is independently selected from F, Cl, Br, and I, provided that at least one X is not fluorine; b. contacting said starting composition with a first fluorinating agent to produce a first intermediate composition comprising 2-chloro-3,3,3-trifluoropropene and a first chlorine-containing byproduct; c. contacting said first intermediate composition with a second fluorinating agent to produce a second intermediate composition comprising 2-chloro-1,1,1,2-tetrafluoropropane; and d. dehydrochlorinating at least a portion of said 2-chloro-1,1,1,2-tetrafluoropropane to produce a reaction product comprising 2,3,3,3-tetrafluoroprop-1-ene and a second chlorine-containing byproduct, wherein said first and second fluorinating agents are hydrogen fluoride, said method further comprising the step of separating at least one portion of said hydrogen fluoride from said 2-chloro-3,3,3-trifluoropropene subsequent to, or concurrently with, step (b) and prior to step (c), and the step of separating at least a portion of said hydrogen fluoride from said 2-chloro-1,1,1,2-tetrafluoropropane subsequent to, or concurrently with, step (c) and prior to step (d), wherein said first fluorinating agent comprises at least a portion of said hydrogen fluoride separated from said 2-chloro-3,3,3-trifluoropropene and said second fluorinating agent comprises at least a portion of said hydrogen fluoride separated from said 2-chloro-1,1,1,2-tetrafluoropropane. a. providing a starting composition comprising at least one compound having a structure selected from Formulae I, II and III: CX 2 =CCl-CH 2 X (Formula I) CX 3 -CCl=CH 2 (Formula II) CX 3 -CHCl-CH 2 X (Formula III) wherein X is independently selected from F, Cl, Br, and I, provided that at least one X is not fluorine; b. contacting said starting composition with a first fluorinating agent to produce a first intermediate composition comprising 2-chloro-3,3,3-trifluoropropene and a first chlorine-containing byproduct; c. contacting said first intermediate composition with a second fluorinating agent to produce a second intermediate composition comprising 2-chloro-1,1,1,2-tetrafluoropropane; and d. dehydrochlorinating at least a portion of said 2-chloro-1,1,1,2-tetrafluoropropane to produce a reaction product comprising 2,3,3,3-tetrafluoroprop-1-ene and a second chlorine-containing byproduct,
A paint storing and mixing system comprising: a receiving assembly rotatable about a longitudinally extending axis of rotation, including a plurality of receiver cells each including a receiver panel (254, 260) holding at least one paint canister (250, 252), each paint canister (250, 252) including a first end, a second end, and a sidewall extending between the first and second ends wherein the receiving assembly stores the paint canister (250,252) in a position where the sidewall of each paint canister (250,252) is generally orthogonal to the longitudinal axis, wherein, for each receiver cell, the receiving assembly includes first edge and a second edge, characterized in that a coupling member is located at the first edge and the second edge for removably engaging the receiver panels (254,260). a receiving assembly rotatable about a longitudinally extending axis of rotation, including a plurality of receiver cells each including a receiver panel (254, 260) holding at least one paint canister (250, 252), each paint canister (250, 252) including a first end, a second end, and a sidewall extending between the first and second ends wherein the receiving assembly stores the paint canister (250,252) in a position where the sidewall of each paint canister (250,252) is generally orthogonal to the longitudinal axis, wherein, for each receiver cell, the receiving assembly includes first edge and a second edge, characterized in that a coupling member is located at the first edge and the second edge for removably engaging the receiver panels (254,260).
A method of synchronizing a transmitter and a receiver in a supplemental remote control system for materials handling vehicles comprising: initiating a power on sequence to enable a materials handling vehicle for operation, said materials handling vehicle having a receiver for receiving wirelessly transmitted travel commands; entering a pairing mode to synchronize said receiver and a corresponding controller on said vehicle to a select one of a plurality of wireless remote control devices, wherein said select one of said wireless remote control devices is associated with an operator of said materials handling vehicle; receiving pairing mode confidence signals at said receiver of said vehicle, wherein each pairing mode confidence signal provides a transmitter identification code that uniquely identifies a corresponding one of said plurality of wireless remote control devices within range of said receiver; displaying a list of all detected transmitter identification codes ordered by signal strength; matching a known transmitter identification code associated with said select one of said plurality of wireless remote control devices associated with said operator of said materials handling vehicle with a corresponding one of the pairing mode confidence signals received by said receiver; and synchronizing said select one of said plurality of wireless remote control devices associated with said operator to said receiver and said controller of said vehicle such that said materials handling vehicle acknowledges remote travel commands from said select one of said plurality of wireless remote control devices. initiating a power on sequence to enable a materials handling vehicle for operation, said materials handling vehicle having a receiver for receiving wirelessly transmitted travel commands; entering a pairing mode to synchronize said receiver and a corresponding controller on said vehicle to a select one of a plurality of wireless remote control devices, wherein said select one of said wireless remote control devices is associated with an operator of said materials handling vehicle; receiving pairing mode confidence signals at said receiver of said vehicle, wherein each pairing mode confidence signal provides a transmitter identification code that uniquely identifies a corresponding one of said plurality of wireless remote control devices within range of said receiver; displaying a list of all detected transmitter identification codes ordered by signal strength; matching a known transmitter identification code associated with said select one of said plurality of wireless remote control devices associated with said operator of said materials handling vehicle with a corresponding one of the pairing mode confidence signals received by said receiver; and synchronizing said select one of said plurality of wireless remote control devices associated with said operator to said receiver and said controller of said vehicle such that said materials handling vehicle acknowledges remote travel commands from said select one of said plurality of wireless remote control devices.
A method for determining for a vehicle a chassis lubrication date based at least partly on the vehicle's environmental conditions, which method comprises: - determining, when said vehicle is in motion, a representation of prevailing environmental conditions, and - determining a chassis lubrication date based at least partly on said representation of the vehicle's prevailing environmental conditions, whereby said representation of prevailing environmental conditions is determined by determining a representation of an air humidity in the vehicle's environment and/or a representation of a liquid condition of the running surface along which said vehicle is travelling and/or a representation of an air quality in said vehicle's environment and/or a representation of irregularities in the running surface along which said vehicle is travelling. - determining, when said vehicle is in motion, a representation of prevailing environmental conditions, and - determining a chassis lubrication date based at least partly on said representation of the vehicle's prevailing environmental conditions, whereby said representation of prevailing environmental conditions is determined by determining a representation of an air humidity in the vehicle's environment and/or a representation of a liquid condition of the running surface along which said vehicle is travelling and/or a representation of an air quality in said vehicle's environment and/or a representation of irregularities in the running surface along which said vehicle is travelling.
A sealing element for a shaft coupling between a male shaft and a female shaft, comprising: an annular seal body, defining an outer diameter sealing face (232, 240) and a radially opposite inner diameter mounting face (234, 242), and a leading side and an axially opposite trailing side, relative to a center axis of the seal body; a plurality of projections circumferentially spaced around the inner diameter mounting face (234, 242) of the seal body; wherein one or more of the projections include an axial component extending longitudinally in an axial direction from the seal body and a radial component extending radially inwards from the inner diameter mounting face (234, 242) of the seal body towards the center axis, characterized by: another circumferentially adjacent projection including an axial component extending in the axial direction from the seal body, wherein the two adjacent axial components define an axial gap on at least one of the leading side and the trailing side for flow-through of a fluid. an annular seal body, defining an outer diameter sealing face (232, 240) and a radially opposite inner diameter mounting face (234, 242), and a leading side and an axially opposite trailing side, relative to a center axis of the seal body; a plurality of projections circumferentially spaced around the inner diameter mounting face (234, 242) of the seal body; wherein one or more of the projections include an axial component extending longitudinally in an axial direction from the seal body and a radial component extending radially inwards from the inner diameter mounting face (234, 242) of the seal body towards the center axis, characterized by: another circumferentially adjacent projection including an axial component extending in the axial direction from the seal body, wherein the two adjacent axial components define an axial gap on at least one of the leading side and the trailing side for flow-through of a fluid.
An electric arc melting facility for melting pieces of source iron having various lengths, comprising a melting chamber configured to melt the pieces of the source iron therein, a shaft-shaped preheating chamber directly connected to the melting chamber to allow the pieces of the source iron to exist continuously between the preheating chamber and the melting chamber and configured to preheat the pieces of the source iron before the pieces of the source iron is supplied to the melting chamber, and an electrode (3a, 3b) disposed in the melting chamber to melt the pieces of the source iron supplied from the preheating chamber, wherein at least a part of a bottom surface of the preheating chamber is formed as an inclined bottom surface that is inclined downward toward the melting chamber, the bottom surface of the preheating chamber being continuous to a bottom surface of the melting chamber, wherein a pushing device is disposed at a lower side of the preheating chamber and configured to move the pieces of the source iron, supplied from the preheating chamber, towards the melting chamber, such that supply of the pieces of the source iron from the preheating chamber to the melting chamber is performed by operating the pushing device, characterized in that a shaft opening dimension H is set to an optimum value for controlling supply of the pieces of the source iron such that the supply of the pieces of the source iron from the preheating chamber to the melting chamber is stopped by halting operation of the pushing device, the shaft opening dimension H being a minimum distance from a highest position in a connecting section between the preheating chamber and the melting chamber to the continuous bottom surfaces of the preheating chamber and the melting chamber in the electric arc melting facility.
An engine control device for a construction machine, said engine control device comprises an engine as a power source, control means for performing an automatic deceleration control adapted to reduce a rotational number of said engine when a predetermined automatic deceleration condition is met, and an automatic stop control adapted to automatically stop said engine when a predetermined automatic stop condition is met, and characterized in that a selection means is adapted to switch between an automatic deceleration effective position adapted to make said automatic deceleration control by said control means effective and an automatic deceleration ineffective position adapted to make said automatic deceleration control ineffective, and that the control means comprises an engine controller for sending signals of commands of stop/speed of the engine, an automatic deceleration command unit for sending a command of starting the automatic deceleration control to the engine controller when the predetermined automatic stop condition is met, an automatic stop command unit for sending a command of starting an automatic stop control to the engine controller when the predetermined automatic deceleration condition is met, and a selection determining unit for determining effectiveness/ineffectiveness of the automatic deceleration control and the automatic stop control based on a signal of the selection means, and wherein when said automatic stop condition is met even if said selection means is set to said automatic deceleration ineffective position, said control means performs a forced control adapted to cause said automatic deceleration control to be operated for a fixed period prior to said automatic stop control.
Cosmetic composition, in liquid form at room temperature, preferably for making up and/or caring for the skin and/or the lips, comprising, in a physiologically acceptable medium, at least one fatty phase comprising: - at least one non-volatile oil; - at least hydrophobic silica aerogel particles, present in an active material content ranging from 0.2% to 4% by weight, relative to the total weight of the composition, - at least one hydrocarbon-based indene resin, preferably having a number-average molecular weight of less than or equal to 10 000 g/mol; - at least one dyestuff preferably chosen from pigments and/or nacres, and mixtures thereof; - the said composition comprising less than 5% by weight of water relative to the total weight of the composition, and preferably being anhydrous. - at least one non-volatile oil; - at least hydrophobic silica aerogel particles, present in an active material content ranging from 0.2% to 4% by weight, relative to the total weight of the composition, - at least one hydrocarbon-based indene resin, preferably having a number-average molecular weight of less than or equal to 10 000 g/mol; - at least one dyestuff preferably chosen from pigments and/or nacres, and mixtures thereof; - the said composition comprising less than 5% by weight of water relative to the total weight of the composition, and preferably being anhydrous.
System (100, 200) for stereoscopic visualization of image information, having a display device (102, 202) having a display area (104, 204) for displaying a left and right partial image (106, 108, 206, 208), which display device provides the left partial image (106, 206) to a left eye (114, 214) of a viewer (118, 218) focused on the display area (104, 204) in a first viewing direction (144, 244) using a left observation beam path (120, 220), and displays the right partial image (108, 208) to a right eye (116, 216) of the viewer (118, 218) focused on the display area (104, 204) in a second viewing direction (146, 246) using a right observation beam path (122, 222), and having a vision aid (130, 230) through which the left and/or right observation beam path(s) (120, 220, 122, 222) travel(s), characterized in that the vision aid adjusts a beam course for the left and right observation beam paths (120, 122, 220, 222) in which, starting from the left and right eyes (114, 116, 214, 216) in the direction (136, 236) of the display area (104, 204), the perpendicular distance of the left observation beam path (120, 220, 120', 220'), which is continued to infinity, from the right observation beam path (122, 222), which is continued to infinity, decreases and has a minimum at a location (140, 240) which is at a finite distance from the display area (104, 204), wherein the first viewing direction (144, 244) and the second viewing direction (146, 246) intersect on the display area (104, 204), wherein the display device (102, 202) is embodied to generate the left partial image (106, 206) with a first group (107, 207) of display zones (111, 211) situated within the display area (104, 204) and the right partial image (108, 208) with a second group (109, 209) of display zones (113, 213) situated within the display area (104, 204) and to display them to the left and right eyes (114, 116, 214, 216) using a left and right observation beam path (120, 120', 122, 122', 220, 220', 222, 222') in which an optical assembly (124, 224) is arranged, which separates the light in the left observation beam path (120, 220) coming from the first group (107, 207) of display zones (111, 211) from the light the left observation beam path (120, 220) receives from the second group (109, 209) of display zones (113, 213) to feed the light from the first group (107, 207) of display zones (111, 211) to the left eye (114, 214), and which separates the light from the second group (109, 209) of display zones (113, 213) in the right observation beam path (116, 216) from the light the right observation beam path (116, 216) receives from the first group (107, 207) of display zones (111, 211) in order to guide the light from the second group (109, 209) of display zones (113, 213) to the right eye (116, 216), and wherein the display zones (111, 211) of the first group (107, 207) overlap with the display zones (113, 213) of the second group (109, 209) or wherein each display zone of the first group (107, 207) is arranged adjacent to at least one display zone of the second group (109, 209).
A method for manufacturing a single crystal SiC substrate, comprising: preparing an Si substrate having a surface Si layer of a predetermined thickness and an embedded insulating layer; performing a heating treatment on the Si substrate in a hydrocarbon gas atmosphere to convert the surface Si layer into a single crystal SiC layer; and leaving, when converting the surface Si layer into the single crystal SiC layer, the Si layer in the vicinity of an interface with the embedded insulating layer as a residual Si layer, wherein the predetermined thickness of the surface Si layer is set in the range from 6 to 40 nm and the thickness of the residual Si layer is set in the range of 3 to 20 nm by adjusting atmosphere of the heating treatment to a mixture of 1 vol% hydrocarbon gas in hydrogen gas; temperature during the heating treatment to a temperature between 500°C and the melting point of silicon; and time period of the heating treatment, to adjust the thickness of the single crystal SiC layer formed with respect to the thickness of the surface Si layer. preparing an Si substrate having a surface Si layer of a predetermined thickness and an embedded insulating layer; performing a heating treatment on the Si substrate in a hydrocarbon gas atmosphere to convert the surface Si layer into a single crystal SiC layer; and leaving, when converting the surface Si layer into the single crystal SiC layer, the Si layer in the vicinity of an interface with the embedded insulating layer as a residual Si layer, wherein the predetermined thickness of the surface Si layer is set in the range from 6 to 40 nm and the thickness of the residual Si layer is set in the range of 3 to 20 nm by adjusting atmosphere of the heating treatment to a mixture of 1 vol% hydrocarbon gas in hydrogen gas; temperature during the heating treatment to a temperature between 500°C and the melting point of silicon; and time period of the heating treatment, to adjust the thickness of the single crystal SiC layer formed with respect to the thickness of the surface Si layer.
A method for testing an electronic device, the method comprising: - while program code is being executed by one or more processors of the electronic device, a test equipment performing measurements on the electronic device to obtain first data; - the test equipment receiving, from a debug interface of the electronic device, debug information from monitoring execution of the program code; - the test equipment deriving second data from the debug information; - the test equipment coordinating the measurements with said monitoring of the execution of the program code by controlling the measurements depending on the second data, characterized in that said controlling of the measurements comprises, if the debug information indicates that a certain type of software routine is being executed, narrowing a measurement range to a corresponding range of interest and increasing a measurement sensitivity, and, if the debug information indicates that another type of software routine is being executed, widening the measurement range and decreasing the measurement sensitivity. - while program code is being executed by one or more processors of the electronic device, a test equipment performing measurements on the electronic device to obtain first data; - the test equipment receiving, from a debug interface of the electronic device, debug information from monitoring execution of the program code; - the test equipment deriving second data from the debug information; - the test equipment coordinating the measurements with said monitoring of the execution of the program code by controlling the measurements depending on the second data, characterized in that said controlling of the measurements comprises, if the debug information indicates that a certain type of software routine is being executed, narrowing a measurement range to a corresponding range of interest and increasing a measurement sensitivity, and, if the debug information indicates that another type of software routine is being executed, widening the measurement range and decreasing the measurement sensitivity.