mhurhangee/ep-ind-claims huggingface dataset:
An image erasing method comprising: heating a thermoreversible recording medium with laser beams to erase an image which has been recorded on the thermoreversible recording medium, the thermoreversible recording medium reversibly changing between a colored state and a decolored state depending on a heating temperature and a cooling time and comprising a thermoreversible recording layer containing a leuco dye, which is an electron-donating coloring compound, a reversible color developer, which is an electron-accepting compound, a binder resin and a photothermal converting material; and measuring at least one of a surface temperature of the thermoreversible recording medium and an erasing environmental temperature before a beginning of erasing the image to obtain a measured temperature value and controlling a heating time with the laser beams to be emitted for erasing the image depending on the measured temperature value, wherein the controlling further comprises controlling a spot diameter of the laser beams to be emitted for erasing the image which has been recorded on the thermoreversible recording medium depending on the measured temperature value. heating a thermoreversible recording medium with laser beams to erase an image which has been recorded on the thermoreversible recording medium, the thermoreversible recording medium reversibly changing between a colored state and a decolored state depending on a heating temperature and a cooling time and comprising a thermoreversible recording layer containing a leuco dye, which is an electron-donating coloring compound, a reversible color developer, which is an electron-accepting compound, a binder resin and a photothermal converting material; and measuring at least one of a surface temperature of the thermoreversible recording medium and an erasing environmental temperature before a beginning of erasing the image to obtain a measured temperature value and controlling a heating time with the laser beams to be emitted for erasing the image depending on the measured temperature value, wherein the controlling further comprises controlling a spot diameter of the laser beams to be emitted for erasing the image which has been recorded on the thermoreversible recording medium depending on the measured temperature value.
Scalable computer architectural framework for quantum computers or for classical digital computers, the framework comprising a plurality of processing nodes, each processing node comprising at least three processing elements, and a plurality of couplings, each coupling being configured to communicatively connect two processing elements, the processing elements of each processing node being connected with each other by means of internal couplings, and the processing elements of different processing nodes being connected with each other by means of external couplings, characterized in that the processing elements in a processing node are connected in series forming a string, the string comprising two end processing elements (111, 115) and at least one intermediate processing element (112, 113, 114), each processing node being connected to each of the other processing nodes by means of only one external coupling, the intermediate processing elements (112, 113, 114) of the processing nodes being connected to processing elements of other processing nodes by a number of external couplings, said number of external couplings being the same for all the intermediate processing elements, and the end processing elements (111, 115) of the processing nodes being connected to processing elements of other processing nodes by said same number of external couplings or one external coupling more than said same number. a plurality of processing nodes, each processing node comprising at least three processing elements, and a plurality of couplings, each coupling being configured to communicatively connect two processing elements, the processing elements of each processing node being connected with each other by means of internal couplings, and the processing elements of different processing nodes being connected with each other by means of external couplings, characterized in that the processing elements in a processing node are connected in series forming a string, the string comprising two end processing elements (111, 115) and at least one intermediate processing element (112, 113, 114), each processing node being connected to each of the other processing nodes by means of only one external coupling, the intermediate processing elements (112, 113, 114) of the processing nodes being connected to processing elements of other processing nodes by a number of external couplings, said number of external couplings being the same for all the intermediate processing elements, and the end processing elements (111, 115) of the processing nodes being connected to processing elements of other processing nodes by said same number of external couplings or one external coupling more than said same number.
A substrate storage container comprising: a container body that stores substrates being supported by supporting pieces; a door that opens and closes an opening side of the container body; and an interface portion that is provided for the door to come in contact with external equipment, wherein when the door opens or closes the opening side of the container body, the door is intended to be connected to external equipment, wherein the container body, supporting pieces thereof, the door and the interface portion are all formed of conductive materials so that the surface resistance values thereof fall within the range of 10 3 to 10 12 Ω, and wherein a variation in surface resistance values among the container body, the supporting pieces, the door and the interface portion falls within the range of 0 to 10 6 Ω, wherein the container body or the door is configured to be mountable to a charged plate monitor, and wherein when the container body or the door is mounted to the charged plate monitor and applied with a voltage of 1000 V, the time in which the voltage attenuates from 1000 V to 100 V is equal to or shorter than 1 sec.
A parallel passage fluid contactor structure (102, 302, 402, 502, 602, 702, 802, 902) comprising one or more segments (404, 604), each segment comprising: a plurality of substantially parallel fluid flow passages (110, 304, 410, 510, 610,710,810,910) oriented in an axial direction; cell walls (112, 312, 412, 512, 612, 712, 812, 912) situated between each adjacent one of said fluid flow passages, each said cell wall having at least two opposite cell wall surfaces, and comprising at least one active compound that is operable to interact with a fluid contained within or passed through the passages, the active compound being comprised on or in a said cell wall surface; and a plurality of axially continuous, axially oriented, filaments (114, 314, 414, 514, 614, 714, 814, 914) that are thermally conductive and/or electrically conductive for transfer of thermal energy from said active compound; and at least one segment additionally comprises transversely continuous filaments that are thermally conductive and / or electrically conductive and oriented in a transverse direction, substantially perpendicular to said axial direction, characterized in that both the axially continuous filaments and the transversely continuous filaments are embedded within said cell walls in direct contact with said at least one active compound on or in said cell wall surface, and are operable to transfer thermal energy between said at least one active compound and said conductive filaments. a plurality of substantially parallel fluid flow passages (110, 304, 410, 510, 610,710,810,910) oriented in an axial direction; cell walls (112, 312, 412, 512, 612, 712, 812, 912) situated between each adjacent one of said fluid flow passages, each said cell wall having at least two opposite cell wall surfaces, and comprising at least one active compound that is operable to interact with a fluid contained within or passed through the passages, the active compound being comprised on or in a said cell wall surface; and a plurality of axially continuous, axially oriented, filaments (114, 314, 414, 514, 614, 714, 814, 914) that are thermally conductive and/or electrically conductive for transfer of thermal energy from said active compound; and at least one segment additionally comprises transversely continuous filaments that are thermally conductive and / or electrically conductive and oriented in a transverse direction, substantially perpendicular to said axial direction, characterized in that both the axially continuous filaments and the transversely continuous filaments are embedded within said cell walls in direct contact with said at least one active compound on or in said cell wall surface, and are operable to transfer thermal energy between said at least one active compound and said conductive filaments.
End cap for terminating a transmission cable containing at least one transmission line, the end cap comprising at least one lead-through opening for guiding the at least one line from a rear side to a front side of the end cap, characterised in that a passage extends from the rear side to the front side, the passage is adapted for accommodating a central strength member of the cable, and in that the rear side is provided with a receptacle adapted for encompassing an end section of the cable.
A remote data concentrator, comprising: an enclosure having an interior divided into a first compartment and a second compartment configured to have a first transceiver seated within the first compartment and a second transceiver seated within the second compartment such that radio frequency energy transmitted from the first transceiver is blocked from reaching the second transceiver in a direct line of sight fashion, thereby allowing operational testing of the RDC without requiring wireless transmitting or receiving devices external to the RDC; a first antenna operatively connected to the first transceiver and arranged within the first compartment; and a second antenna operatively connected to the second transceiver and arranged within the second compartment, wherein an antenna pattern of the first antenna overlaps an antenna pattern of the second antenna outside of the enclosure for RF communication when the first and second transceivers (114, 116) are switched to a common wireless channel. an enclosure having an interior divided into a first compartment and a second compartment configured to have a first transceiver seated within the first compartment and a second transceiver seated within the second compartment such that radio frequency energy transmitted from the first transceiver is blocked from reaching the second transceiver in a direct line of sight fashion, thereby allowing operational testing of the RDC without requiring wireless transmitting or receiving devices external to the RDC; a first antenna operatively connected to the first transceiver and arranged within the first compartment; and a second antenna operatively connected to the second transceiver and arranged within the second compartment, wherein an antenna pattern of the first antenna overlaps an antenna pattern of the second antenna outside of the enclosure for RF communication when the first and second transceivers (114, 116) are switched to a common wireless channel.
A gas turbine combustor comprising - a fuel nozzle for injecting mixed gas of fuel and air, - a cylindrical liner for burning and reacting the mixed gas of fuel and air In a combustion chamber, - a liner flow sleeve arranged on the concentric circle with the liner on the outer periphery side of the liner, - a transition piece which is a flow path for leading combustion gas generated in the liner to turbine blades, and - a transition piece flow sleeve for wrapping around an outside surface of the transition piece so that high pressure air flows Into the gap between the transition piece and the transition piece flow sleeve and then flows through the gap between the liner and the liner flow sleeve, wherein the transition piece flow sleeve has a circular entrance portion at the side of the combustion chamber and a fan-shaped exit portion on the side of the turbine, and a plurality of air introduction holes for introducing air into the transition piece flow sleeve, characterized in that the air introduction holes are formed over the entire region of the transition piece flow sleeve excluding regions which are corner portions of the exit portion of the transition piece flow sleeve in a sectional direction thereof. - a fuel nozzle for injecting mixed gas of fuel and air, - a cylindrical liner for burning and reacting the mixed gas of fuel and air In a combustion chamber, - a liner flow sleeve arranged on the concentric circle with the liner on the outer periphery side of the liner, - a transition piece which is a flow path for leading combustion gas generated in the liner to turbine blades, and - a transition piece flow sleeve for wrapping around an outside surface of the transition piece so that high pressure air flows Into the gap between the transition piece and the transition piece flow sleeve and then flows through the gap between the liner and the liner flow sleeve,
A luminaire controller connectable to a luminaire, the luminaire controller comprising: a mains power connection (120, 130, 140, 150); a central processing module; an internal power supply; and an isolated supply connected via the internal power supply to the mains power connection (120, 130, 140, 150) and connected via a data transfer line to the central processing module, the isolated supply being operable for providing dimming signals to the luminaire; wherein the isolated supply comprises both a digital addressable lighting interface and a `0-10V' interface, and wherein the central processing module is operable to configure one of the interfaces (250, 260) for supplying the dimming signals to the luminaire in accordance with a mode of operation of the luminaire, said dimming signals being provided as an output of the isolated supply for the luminaire. a mains power connection (120, 130, 140, 150); a central processing module; an internal power supply; and an isolated supply connected via the internal power supply to the mains power connection (120, 130, 140, 150) and connected via a data transfer line to the central processing module, the isolated supply being operable for providing dimming signals to the luminaire; wherein the isolated supply comprises both a digital addressable lighting interface and a `0-10V' interface, and wherein the central processing module is operable to configure one of the interfaces (250, 260) for supplying the dimming signals to the luminaire in accordance with a mode of operation of the luminaire, said dimming signals being provided as an output of the isolated supply for the luminaire.
A communication method, comprising: sending, by a cellular base station configured to constitute an Evolved Universal Terrestrial Radio Access Network, E-UTRAN, a status request message that requests a measurement for access points included in an access point group, to a wireless LAN termination node configured to manage a wireless LAN access point, wherein the status request message includes a plurality of pieces of wireless LAN identification information and a type of resource status to be measured for the access points; receiving, by the wireless LAN termination node, the status request message from the cellular base station; and sending, by the wireless LAN termination node, a report of the requested measurement based on the status request message, wherein the status request message is sent via an interface formed between the cellular base station and the wireless LAN termination node, and the status request message is a message for causing the wireless LAN termination node to initiate a requested measurement according to parameters given in the status request message. sending, by a cellular base station configured to constitute an Evolved Universal Terrestrial Radio Access Network, E-UTRAN, a status request message that requests a measurement for access points included in an access point group, to a wireless LAN termination node configured to manage a wireless LAN access point, wherein the status request message includes a plurality of pieces of wireless LAN identification information and a type of resource status to be measured for the access points; receiving, by the wireless LAN termination node, the status request message from the cellular base station; and sending, by the wireless LAN termination node, a report of the requested measurement based on the status request message, wherein the status request message is sent via an interface formed between the cellular base station and the wireless LAN termination node, and the status request message is a message for causing the wireless LAN termination node to initiate a requested measurement according to parameters given in the status request message.
Method for providing a metallic or concrete surface of a chemical installation with a coating, which comprises the steps of - providing a two-pack coating composition wherein the first pack comprises an epoxy resin and the second pack comprises an amine curing agent for the epoxy resin, the coating composition further comprising an organoboron compound of the formula - wherein X is an organic group having 1 to 24 carbon atoms and is linked to the boron atom via a carbon-boron bond, and wherein Y is an at least divalent organic group having 2 to 16 carbon atoms, - combining the first pack and the second pack to form a coating composition, - applying the coating composition to the surface of a chemical installation to form a coating layer, and - allowing the coating layer to cure at a temperature in the range of -10 to 50°C. - providing a two-pack coating composition wherein the first pack comprises an epoxy resin and the second pack comprises an amine curing agent for the epoxy resin, the coating composition further comprising an organoboron compound of the formula - wherein X is an organic group having 1 to 24 carbon atoms and is linked to the boron atom via a carbon-boron bond, and wherein Y is an at least divalent organic group having 2 to 16 carbon atoms, - combining the first pack and the second pack to form a coating composition, - applying the coating composition to the surface of a chemical installation to form a coating layer, and - allowing the coating layer to cure at a temperature in the range of -10 to 50°C.
Rolling bearing arrangement for a wind power plant having an outer ring and an inner ring which is mounted at least partially within the outer ring, wherein the outer ring and the inner ring are arranged rotatably relative to one another about a rotational axis, wherein a first tapered roller bearing with first tapered rollers and a second tapered roller bearing with second tapered rollers are arranged between the outer ring and the inner ring, characterized in that, in the unloaded state of the rolling bearing arrangement, the first tapered rollers have a first logarithmic roller profile and the second tapered rollers have a second logarithmic roller profile which differs from the first logarithmic roller profile, wherein the first logarithmic roller profile satisfies the profile function P 1 x = c 1 ⋅ D we 1 ⋅ log 1 1 − 2 ⋅ x L we 1 2 in the unloaded state, wherein D we1 corresponds to the maximum diameter of the first tapered rollers, and L we1 corresponds to the effective length of the first tapered rollers, and wherein the logarithm coefficient c 1 of the first tapered rollers is different from a reference logarithm coefficient c 0 of 0.00045, wherein the second logarithmic roller profile satisfies the profile function P 2 x = c 2 ⋅ D we 2 ⋅ log 1 1 − 2 ⋅ x L we 2 2 in the unloaded state, wherein D we2 corresponds to the maximum diameter of the second tapered rollers, and L we2 corresponds to the effective length of the second tapered rollers, and wherein the logarithm coefficient c 2 of the second tapered rollers is different from the reference logarithm coefficient c 0 of 0.00045, and wherein the logarithm coefficient c 1 of the first tapered rollers is smaller than the reference logarithm coefficient c 0, and the logarithm coefficient c 2 of the second tapered rollers is greater than the reference logarithm coefficient c 0
An indicator system for a milk container, comprising: a time display element for fitting to the milk container, comprising: a first time scale which indicates a first freshness of milk on a first portion of the time display element when the milk is stored in first conditions; and a second time scale whch indicates a second freshness of milk on a second portion of the time display element when the milk is stored in different second conditions; and an indicator element, wherein the time display element is adapted to be configured with only a selected one of the first and second portions being in-use and with the indicator element indicating a selected portion of the in-use first or second time scale. a time display element for fitting to the milk container, comprising: a first time scale which indicates a first freshness of milk on a first portion of the time display element when the milk is stored in first conditions; and a second time scale whch indicates a second freshness of milk on a second portion of the time display element when the milk is stored in different second conditions; and a first time scale which indicates a first freshness of milk on a first portion of the time display element when the milk is stored in first conditions; and a second time scale whch indicates a second freshness of milk on a second portion of the time display element when the milk is stored in different second conditions; and an indicator element, wherein the time display element is adapted to be configured with only a selected one of the first and second portions being in-use and with the indicator element indicating a selected portion of the in-use first or second time scale.