mhurhangee/ep-ind-claims huggingface dataset:
A transmission characteristic value determination method of a laser marking a battery cell whose appearance is formed of a heat shrinkable tube, the method comprising the following order of steps: first a temporary setting step (S110; S210) of setting a laser frequency to 20 kHz to 100 kHz, a marking speed to 50 mm/sec to 5000 mm/sec, and a focal distance of a laser to 10 mm to 300 mm which are predetermined temporary setting values, wherein the focal length is a value at which the size of the readout symbol is adjusted, and the frequency and the marking speed are values mutually set to a value at which the depth of the readout symbol is adjusted; then marking (S120; S220) a letter on the heat shrinkable tube by transmitting the laser beam using temporary setting values set in the temporary setting step (S110; S210); then a heating step (S130; S230) of applying heat to the heat shrinkable tube leading to a shrinkage of the tube; and then a font size checking step of determining, after the heating step (S130; S230), whether a font size of the letter marked on the heat shrinkable tube is greater than or equal to a preset font size, the method further comprising: if the font size of the letter checked in the font size checking step is equal to or greater than a preset font size, a transmission characteristic value storing step of storing the frequency, the marking speed and the focal distance set in the temporary setting step (S110; S210) in a separate storage space, and if the font size of the letter is less than the preset font size, the marking step (S120; S220) being performed again by correcting the frequency, the marking speed and the focal distance. first a temporary setting step (S110; S210) of setting a laser frequency to 20 kHz to 100 kHz, a marking speed to 50 mm/sec to 5000 mm/sec, and a focal distance of a laser to 10 mm to 300 mm which are predetermined temporary setting values, wherein the focal length is a value at which the size of the readout symbol is adjusted, and the frequency and the marking speed are values mutually set to a value at which the depth of the readout symbol is adjusted; then marking (S120; S220) a letter on the heat shrinkable tube by transmitting the laser beam using temporary setting values set in the temporary setting step (S110; S210); then a heating step (S130; S230) of applying heat to the heat shrinkable tube leading to a shrinkage of the tube; and then a font size checking step of determining, after the heating step (S130; S230), whether a font size of the letter marked on the heat shrinkable tube is greater than or equal to a preset font size, the method further comprising: if the font size of the letter checked in the font size checking step is equal to or greater than a preset font size, a transmission characteristic value storing step of storing the frequency, the marking speed and the focal distance set in the temporary setting step (S110; S210) in a separate storage space, and if the font size of the letter is less than the preset font size, the marking step (S120; S220) being performed again by correcting the frequency, the marking speed and the focal distance.
A composite catalyst comprising a titanium compound catalyst active component, an organometallic compound co-catalyst component selected from organo-lithium compounds and organoboron compounds, a sulfoxide compound catalyst-modifying component, a monoester compound catalyst-modifying component, and a solvent component.
A method for handling a service request within a local area network coupled to a wide area network through a gateway system, the method comprising: - a service provisioning broker in the gateway system receiving a service request from a user device, the service request comprising information regarding one or more requirements needed to perform the service; - localizing a download location by means of a localization service within a public network to obtain computer executable information on the basis of the information in the service request; - the service provisioning broker retrieving computer executable information from the download location for performing the service and arranging installment of the computer executable information on a networked device within the local area network; and - the service provisioning broker sending a message to the user device regarding the availability of the service within the local area network. - a service provisioning broker in the gateway system receiving a service request from a user device, the service request comprising information regarding one or more requirements needed to perform the service; - localizing a download location by means of a localization service within a public network to obtain computer executable information on the basis of the information in the service request; - the service provisioning broker retrieving computer executable information from the download location for performing the service and arranging installment of the computer executable information on a networked device within the local area network; and - the service provisioning broker sending a message to the user device regarding the availability of the service within the local area network.
A communication apparatus (1100; 1200) configured to be installed in a first aircraft (1; 1 b-d), the communication apparatus characterized by: a controller configured to acquire resource information and determine a communication condition based on the resource information, the resource information being related to a second aircraft (1a; 9) different from the first aircraft (1; 1b-d) or to a radio altimeter installed in the second aircraft; and a transmitter configured to transmit transmission data to one other communication apparatus (1201a-c) installed in the first aircraft (1; 1b-d), according to the communication condition, wherein the resource information includes at least one of: a transmission frequency of the radio altimeter; a transmission timing of a signal from the radio altimeter; and position information of the second aircraft, and the communication condition includes at least one of: transmission power for the transmission data of the communication apparatus; a transmission frequency/frequency band/transmission timing for the transmission data; and a directivity of an antenna. a controller configured to acquire resource information and determine a communication condition based on the resource information, the resource information being related to a second aircraft (1a; 9) different from the first aircraft (1; 1b-d) or to a radio altimeter installed in the second aircraft; and a transmitter configured to transmit transmission data to one other communication apparatus (1201a-c) installed in the first aircraft (1; 1b-d), according to the communication condition, wherein the resource information includes at least one of: a transmission frequency of the radio altimeter; a transmission timing of a signal from the radio altimeter; and position information of the second aircraft, and the communication condition includes at least one of: transmission power for the transmission data of the communication apparatus; a transmission frequency/frequency band/transmission timing for the transmission data; and a directivity of an antenna.
A rotary atomiser drive spindle for use as part of a rotary atomiser, the drive spindle comprising a shaft which carries a turbine and a body which comprises at least one supply channel for supplying gas to the turbine for rotatingly driving the shaft relative to the body, wherein the turbine comprises a rotor body portion, which is one of disc shaped and ring shaped, and a plurality of blades projecting from one of the generally flat surfaces of the rotor body portion with generally radial gas paths through the turbine being defined by adjacent pairs of blades and in which the at least one supply channel comprises a nozzle portion from which, in use, gas leaves the body of the spindle towards the turbine, the nozzle comprising an outlet and, characterised by, the cross sectional area of the gas passage through the nozzle portion decreasing monotonically from the inlet of the nozzle to the outlet.
An orthodontic attachment device for interacting with an orthodontic appliance, the device comprising: an anchoring attachment body comprising a first material having a first elastic modulus, and a second material having a second elastic modulus, wherein the second material is more elastic than the first material; a bonding surface on the anchoring attachment body, said bonding surface configured for anchoring the anchoring attachment body to a tooth; and an orthodontic appliance engagement surface on the anchoring attachment body, the orthodontic appliance engagement surface configured to contact the orthodontic appliance in use so that force may be applied between the tooth and the orthodontic appliance through the orthodontic attachment device; wherein the first material is arranged as a frame extending between the bonding surface and the orthodontic appliance engagement surface, further wherein the second material is at least partially between a bonding surface portion of the frame and an orthodontic appliance engagement surface portion of the frame. an anchoring attachment body comprising a first material having a first elastic modulus, and a second material having a second elastic modulus, wherein the second material is more elastic than the first material; a bonding surface on the anchoring attachment body, said bonding surface configured for anchoring the anchoring attachment body to a tooth; and an orthodontic appliance engagement surface on the anchoring attachment body, the orthodontic appliance engagement surface configured to contact the orthodontic appliance in use so that force may be applied between the tooth and the orthodontic appliance through the orthodontic attachment device; wherein the first material is arranged as a frame extending between the bonding surface and the orthodontic appliance engagement surface, further wherein the second material is at least partially between a bonding surface portion of the frame and an orthodontic appliance engagement surface portion of the frame.
A light source apparatus comprising: a first light source configured to output light having a first wavelength included in a first wavelength region; a second light source configured to output light having a second wavelength that is included in the first wavelength region, and is shorter than the first wavelength; a fluorescent substance configured to be excited, when the light having the first wavelength and the light having the second wavelength are incident on the fluorescent substance, by the light having the first wavelength and the light having the second wavelength to emit light in a second wavelength region, and to output the light having the first wavelength, the light having the second wavelength and the light in the second wavelength region as light from the fluorescent substance; and a wavelength selection member provided to face the fluorescent substance, and configured to reflect the light having the second wavelength among the light output from the fluorescent substance and to transmit the light having the first wavelength and the light in the second wavelength region among the light output from the fluorescent substance. a first light source configured to output light having a first wavelength included in a first wavelength region; a second light source configured to output light having a second wavelength that is included in the first wavelength region, and is shorter than the first wavelength; a fluorescent substance configured to be excited, when the light having the first wavelength and the light having the second wavelength are incident on the fluorescent substance, by the light having the first wavelength and the light having the second wavelength to emit light in a second wavelength region, and to output the light having the first wavelength, the light having the second wavelength and the light in the second wavelength region as light from the fluorescent substance; and a wavelength selection member provided to face the fluorescent substance, and configured to reflect the light having the second wavelength among the light output from the fluorescent substance and to transmit the light having the first wavelength and the light in the second wavelength region among the light output from the fluorescent substance.
A method of converting a working program from a first robot (R 1) to a second robot (R 2), each robot (R 1, R 2) having joints connecting two flanges: a base flange and a tool flange, the method comprising the steps of: (a) replacing the first robot (R 1) with the second robot (R 2), (b) providing a working program (R 1 P) associated with the first robot (R 1), (c) choosing a number of positions o in accordance with the working program (R 1 P) and moving the second robot (R 2) to those positions, thereby obtaining corresponding positions or angles (R 2 Q), and thereby providing a position or angle pair data set (<R 1 Q, R 2 Q>), consisting of pairs of: - positions or angles (R 1 Q) in accordance with the working program (R 1 P), and - said corresponding positions or angles (R 2 Q) to which the second robot (R 2) moved, and then (d) estimating kinematic models (M 1, M 2) of said at least two robots, base flange offset (T base) and tool center point offset (T top) using the position pair data set (<R 1 Q, R 2 Q>) of the first robot (R 1) and the second, replacing robot (R 2), by creating and employing a mathematically closed chain system and then (e) performing a working program conversion on the basis of said estimated kinematic models (M 1, M 2). (a) replacing the first robot (R 1) with the second robot (R 2), (b) providing a working program (R 1 P) associated with the first robot (R 1), (c) choosing a number of positions o in accordance with the working program (R 1 P) and moving the second robot (R 2) to those positions, thereby obtaining corresponding positions or angles (R 2 Q), and thereby providing a position or angle pair data set (<R 1 Q, R 2 Q>), consisting of pairs of: - positions or angles (R 1 Q) in accordance with the working program (R 1 P), and - said corresponding positions or angles (R 2 Q) to which the second robot (R 2) moved, and then - positions or angles (R 1 Q) in accordance with the working program (R 1 P), and - said corresponding positions or angles (R 2 Q) to which the second robot (R 2) moved, and then (d) estimating kinematic models (M 1, M 2) of said at least two robots, base flange offset (T base) and tool center point offset (T top) using the position pair data set (<R 1 Q, R 2 Q>) of the first robot (R 1) and the second, replacing robot (R 2), by creating and employing a mathematically closed chain system and then (e) performing a working program conversion on the basis of said estimated kinematic models (M 1, M 2).
Suspension device for at least one motor vehicle rear wheel, which comprises: - an axle having a crossmember that is elastically flexible when twisted and that comprises at least one longitudinal arm having: - a longitudinal body; - a front end intended to be rotatably mounted about a transverse axis on a motor vehicle shell; - a head forming a rear end section of the arm; - a spindle carrier which can receive a wheel rotating about a first transverse axis by means of a spindle, the spindle carrier being pivotably mounted about a second transverse axis directly on the head of the arm with a determined play about a stable angular position toward which it is elastically returned; characterized in that the body of the arm is produced by forming sheet metal, while the head is formed by a solid element that is attached and fixed to a free rear end of the body. - an axle having a crossmember that is elastically flexible when twisted and that comprises at least one longitudinal arm having: - a longitudinal body; - a front end intended to be rotatably mounted about a transverse axis on a motor vehicle shell; - a head forming a rear end section of the arm; - a spindle carrier which can receive a wheel rotating about a first transverse axis by means of a spindle, the spindle carrier being pivotably mounted about a second transverse axis directly on the head of the arm with a determined play about a stable angular position toward which it is elastically returned;
A wireless communication device, comprising: a wireless communicator (11, 12) configured to transmit and receive a signal_for communication; and controlling circuitry configured to communicate with a first wireless communication device through the wireless communicator to determine an identification of the first wireless communication device, and wherein the wireless communicator is configured to transmit a control signal including the identification for activation of the first wireless communication device to restart communication with the first wireless communication device when the controlling circuitry fails to detect the first wireless communication device. a wireless communicator (11, 12) configured to transmit and receive a signal_for communication; and controlling circuitry configured to communicate with a first wireless communication device through the wireless communicator to determine an identification of the first wireless communication device, and wherein the wireless communicator is configured to transmit a control signal including the identification for activation of the first wireless communication device to restart communication with the first wireless communication device when the controlling circuitry fails to detect the first wireless communication device.
A battery classification apparatus, comprising: a profile generating unit configured to obtain battery information about capacity and voltage of a battery and generate a differential profile representing a corresponding relationship between the capacity and a differential voltage based on the capacity and the voltage; and a control unit configured to obtain the differential profile from the profile generating unit, detect a plurality of peaks in the obtained differential profile, and classify the battery into any one of a plurality of preset groups based on a plurality of classification conditions preset for the number of the plurality of detected peaks and the differential voltage, characterised in that the plurality of classification conditions are set to include: a first classification condition about whether a peak at which a corresponding differential voltage is equal to or greater than a criterion value exists in a first capacity region; and a second classification condition about whether a peak at which a corresponding differential voltage is equal to or greater than the criterion value exists in a second capacity region. a profile generating unit configured to obtain battery information about capacity and voltage of a battery and generate a differential profile representing a corresponding relationship between the capacity and a differential voltage based on the capacity and the voltage; and a control unit configured to obtain the differential profile from the profile generating unit, detect a plurality of peaks in the obtained differential profile, and classify the battery into any one of a plurality of preset groups based on a plurality of classification conditions preset for the number of the plurality of detected peaks and the differential voltage, characterised in that the plurality of classification conditions are set to include: a first classification condition about whether a peak at which a corresponding differential voltage is equal to or greater than a criterion value exists in a first capacity region; and a second classification condition about whether a peak at which a corresponding differential voltage is equal to or greater than the criterion value exists in a second capacity region. a first classification condition about whether a peak at which a corresponding differential voltage is equal to or greater than a criterion value exists in a first capacity region; and a second classification condition about whether a peak at which a corresponding differential voltage is equal to or greater than the criterion value exists in a second capacity region.
Method for operating a device for additively manufacturing a three-dimensional object, a gas flow being guided over a construction platform on which the three-dimensional object is built, and the gas flow being conducted through a filter medium, characterized by the following steps: - determining the differential gas pressure Δp 1 between the gas pressure (p v1) before the filter medium and the gas pressure (p n1) after the filter medium before inert material is applied to the filter medium when the gas flow flows through the filter medium, granular or powder material which comprises and/or is formed from lime, sand, glass and/or ceramics being used as the inert material, - applying inert material to the filter medium, - determining the differential gas pressure Δp 2 between the gas pressure (p v2) before the filter medium and the gas pressure (p n2) after the filter medium after inert material is applied to the filter medium when the gas flow flows through the filter medium, - determining the resulting differential pressure Δp r from the difference between the differential pressures Δp 2 and Δp 1, and - determining a degree of application of inert material to the filter medium from the resulting differential pressure Δp r. - determining the differential gas pressure Δp 1 between the gas pressure (p v1) before the filter medium and the gas pressure (p n1) after the filter medium before inert material is applied to the filter medium when the gas flow flows through the filter medium, granular or powder material which comprises and/or is formed from lime, sand, glass and/or ceramics being used as the inert material, - applying inert material to the filter medium, - determining the differential gas pressure Δp 2 between the gas pressure (p v2) before the filter medium and the gas pressure (p n2) after the filter medium after inert material is applied to the filter medium when the gas flow flows through the filter medium, - determining the resulting differential pressure Δp r from the difference between the differential pressures Δp 2 and Δp 1, and - determining a degree of application of inert material to the filter medium from the resulting differential pressure Δp r.
A method for synthesizing a hydrocarbon by reducing carbon dioxide in water, wherein nanobubbles of oxygen are generated by feeding oxygen into water containing carbon dioxide; water containing the nanobubbles of oxygen is irradiated with ultraviolet light in the presence of a photocatalyst to produce active oxygen; and carbon dioxide is reduced in the presence of the active oxygen.