mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the continuous treatment of an aluminium alloy strip comprising a step of forming a chemical conversion coating on the surface of said strip by a reaction with a chemical conversion treatment agent whose pH is maintained between 2 and 4 comprising at least one anionic compound containing at least one metallic element in the group consisting of zirconium, titanium, chromium with oxidation state III, cerium, vanadium, molybdenum, manganese, wherein said strip is subjected to an alternating current whose density is comprised between 0.1 and 3 A/dm2, the frequency is comprised between 40 and 70 Hz and the voltage is comprised between 0.1 V and 40 V while said chemical conversion treatment reaction is carried out, wherein the thickness of the conversion coating obtained is less than 50 nm per face.
A method of preparing a high temperature resistant NdFeB magnet, wherein the method comprises the following steps: (S1) Preparing NdFeB alloy flakes from a raw material of the NdFeB magnet by strip casting; (S2) Preparing a mixture of the NdFeB alloy flakes and a low melting point powder, then performing a hydrogen decrepitation of the mixture followed by jet milling to obtain a NdFeB powder, wherein the dehydrogenation temperature is 400-600 °C, wherein the low melting point powder comprises at least one of NdCu. NdAl and NdGa; (S3) cold isostatic pressing the alloy powder to a green compact while applying a magnetic field; (S4) sintering the green compact to obtain a NdFeB magnet; and (S5) applying a heavy rare earth diffusion material on the surface of the NdFeB magnet and performing a thermal diffusion process to obtain the high-temperature-resistant NdFeB magnet. (S1) Preparing NdFeB alloy flakes from a raw material of the NdFeB magnet by strip casting; (S2) Preparing a mixture of the NdFeB alloy flakes and a low melting point powder, then performing a hydrogen decrepitation of the mixture followed by jet milling to obtain a NdFeB powder, wherein the dehydrogenation temperature is 400-600 °C, wherein the low melting point powder comprises at least one of NdCu. NdAl and NdGa; (S3) cold isostatic pressing the alloy powder to a green compact while applying a magnetic field; (S4) sintering the green compact to obtain a NdFeB magnet; and (S5) applying a heavy rare earth diffusion material on the surface of the NdFeB magnet and performing a thermal diffusion process to obtain the high-temperature-resistant NdFeB magnet.
A method performed by a first user equipment, UE, comprising: measuring a first reference signal received power, RSRP, of a physical sidelink feedback channel, PSFCH, transmission transmitted during a channel occupancy time, COT, initiated by a second UE; and accessing a first slot of the COT based on the first RSRP. measuring a first reference signal received power, RSRP, of a physical sidelink feedback channel, PSFCH, transmission transmitted during a channel occupancy time, COT, initiated by a second UE; and accessing a first slot of the COT based on the first RSRP.
Expansion tank (20; 30) for the coolant of a fluid-cooled machine, in particular a fluid-cooled internal combustion engine of a vehicle, comprising at least one inlet connection arranged in the lower region of the expansion tank (20; 30), and an outlet connection for connection of the expansion tank (20; 30) to a cooling circuit of the machine; a filler nozzle arranged in the upper region of the expansion tank which has a lower edge spaced from an expansion tank cover to limit the fill level; at least one valve sealing the filler nozzle for filling the expansion tank (20; 30) and protecting the cooling system from over-pressure, wherein an air volume in the expansion tank (20; 30), which remains on maximum filling of the expansion tank (20; 30) with coolant, can be adjusted; wherein to adjust the remaining air volume in the expansion tank (20; 30), at least one air chamber is provided; wherein the at least one air chamber comprises an air inlet opening which lies in the interior of the expansion tank (20; 30) above the lower edge of the filler nozzle and can be opened and closed with an assigned closing device ; characterized in that the at least one air chamber is arranged on the inside in the upper region of the expansion tank (20; 30).
An automated feed ration preparing system for use in an animal feeding system, comprising - a feed storage having multiple feed storage locations for holding multiple feed types including at least one type of ensiled feed, - an automated feed loading system configured for loading quantities of feed in a feed container , - a feed container for receiving feed quantities from the feed loading system, and - a control system having at least one stored ration recipe prescribing quantities of at least two feed types and being arranged to control the feed loading system in accordance with the ration recipe to load predetermined quantities of at least two feed types into the feed container, characterized in that the feeding ration preparing system further includes a sieving device arranged to separate the at least one type of ensiled feed into two or more feed fractions, wherein the two or more feed fractions comprise a first feed fraction having a first feed energy content and a second feed fraction having a second feed energy content, wherein the first feed energy content is higher than the second feed energy content, and wherein the control system is arranged to control the feed loading system in accordance with the ration recipe to load a quantity of at least one of the feed fractions into the feed container. - a feed storage having multiple feed storage locations for holding multiple feed types including at least one type of ensiled feed, - an automated feed loading system configured for loading quantities of feed in a feed container , - a feed container for receiving feed quantities from the feed loading system, and - a control system having at least one stored ration recipe prescribing quantities of at least two feed types and being arranged to control the feed loading system in accordance with the ration recipe to load predetermined quantities of at least two feed types into the feed container, characterized in that the feeding ration preparing system further includes a sieving device arranged to separate the at least one type of ensiled feed into two or more feed fractions, wherein the two or more feed fractions comprise a first feed fraction having a first feed energy content and a second feed fraction having a second feed energy content, wherein the first feed energy content is higher than the second feed energy content, and wherein the control system is arranged to control the feed loading system in accordance with the ration recipe to load a quantity of at least one of the feed fractions into the feed container.
Electricity meter comprising a housing having a first housing part with a viewing window , a second housing part , a sealable cover, and a compartment for receiving a label arranged behind the viewing window between the first housing part and the second housing part , the label being intended for displaying information relating to the meter and being readable through the viewing window , and the compartment being protected against unauthorized access, the housing having an opening which can be covered by the sealable cover and through which the label can be inserted into the compartment without removing the first housing part from the second housing part , characterized in that the opening is offset relative to a plane in which the compartment is located.
A method for producing a water-absorbent resin by a reversed-phase suspension polymerization method, the method comprising: step 1 of dispersing a first aqueous solution containing a partially neutralized product (A) of a water-soluble ethylenically unsaturated monomer having acid groups in the molecule in a petroleum-type hydrocarbon dispersion medium in the presence of a dispersing agent, and then polymerizing the resulting dispersion to obtain a slurry containing primary particles of a polymer, step 2 of adding a second aqueous solution containing a partially neutralized product (B) of a water-soluble ethylenically unsaturated monomer having acid groups in the molecule to the slurry obtained in step 1, and then polymerizing the resulting mixture to obtain a slurry in which the primary particles are agglomerated, and a drying step of removing the petroleum-type hydrocarbon dispersion medium and moisture from the slurry obtained in step 2, wherein, the dispersing agent is at least one member selected from the group consisting of a surfactant and a polymer-type dispersing agent, and a molar neutralization degree X of the partially neutralized product (A) is set larger than a molar neutralization degree Y of the partially neutralized product (B), and also a difference between the molar neutralization degree X and the molar neutralization degree Y is set to 5% or more. step 1 of dispersing a first aqueous solution containing a partially neutralized product (A) of a water-soluble ethylenically unsaturated monomer having acid groups in the molecule in a petroleum-type hydrocarbon dispersion medium in the presence of a dispersing agent, and then polymerizing the resulting dispersion to obtain a slurry containing primary particles of a polymer, step 2 of adding a second aqueous solution containing a partially neutralized product (B) of a water-soluble ethylenically unsaturated monomer having acid groups in the molecule to the slurry obtained in step 1, and then polymerizing the resulting mixture to obtain a slurry in which the primary particles are agglomerated, and a drying step of removing the petroleum-type hydrocarbon dispersion medium and moisture from the slurry obtained in step 2, wherein, the dispersing agent is at least one member selected from the group consisting of a surfactant and a polymer-type dispersing agent, and a molar neutralization degree X of the partially neutralized product (A) is set larger than a molar neutralization degree Y of the partially neutralized product (B), and also a difference between the molar neutralization degree X and the molar neutralization degree Y is set to 5% or more.
A method of producing a relief image or mold from a liquid photopolymer resin, said method comprising the steps of: a) placing an image film onto an exposure glass of an exposure unit; b) placing a coverfilm onto the image film and applying a vacuum between the coverfilm and the exposure glass to tightly pull the coverfilm and the image film onto the exposure glass ; c) placing a sheet of substrate material onto a bottom glass of the exposure unit and temporarily adhering the sheet of substrate material to the bottom glass , preferably wherein the substrate material is coated with an adhesive layer on one side of the substrate material such that the adhesive coating is situated on the side of the substrate material furthest from the bottom glass ; d) casting photopolymer resin onto the substrate material and laminating a flexible polyester sheet on top of the photopolymer resin , preferably wherein the flexible polyester sheet is coated on one side with a layer of adhesive such that the adhesive coating is situated on the side of the flexible polyester sheet adjacent to the photopolymer resin ; and e) exposing the photopolymer resin through the image film to selectively crosslink and cure the photopolymer resin and form a cured relief image or mold, wherein the photopolymer resin is under-exposed such that a height of the cured relief image or mold is less than the height of the cast photopolymer resin and the relief image or mold comprises a raised relief pattern that has rounded edges at the point where a top surface of the raised relief pattern meets a sidewall of the raised relief pattern . a) placing an image film onto an exposure glass of an exposure unit; b) placing a coverfilm onto the image film and applying a vacuum between the coverfilm and the exposure glass to tightly pull the coverfilm and the image film onto the exposure glass ; c) placing a sheet of substrate material onto a bottom glass of the exposure unit and temporarily adhering the sheet of substrate material to the bottom glass , preferably wherein the substrate material is coated with an adhesive layer on one side of the substrate material such that the adhesive coating is situated on the side of the substrate material furthest from the bottom glass ; d) casting photopolymer resin onto the substrate material and laminating a flexible polyester sheet on top of the photopolymer resin , preferably wherein the flexible polyester sheet is coated on one side with a layer of adhesive such that the adhesive coating is situated on the side of the flexible polyester sheet adjacent to the photopolymer resin ; and e) exposing the photopolymer resin through the image film to selectively crosslink and cure the photopolymer resin and form a cured relief image or mold, wherein the photopolymer resin is under-exposed such that a height of the cured relief image or mold is less than the height of the cast photopolymer resin and the relief image or mold comprises a raised relief pattern that has rounded edges at the point where a top surface of the raised relief pattern meets a sidewall of the raised relief pattern .
A pharmaceutical composition comprising amorphous N-[2,4-bis(1,1-dimethylethyl)-5-hydroxyphenyl]-1,4-dihydro-4-oxoquinoline-3-carboxamide; wherein the amorphous N-[2,4-bis(1,1-dimethylethyl)-5-hydroxyphenyl]-1,4-dihydro-4-oxoquinoline-3-carboxamide has less than 30% crystalline N-[2,4-bis(1,1-dimethylethyl)-5-hydroxyphenyl]-1,4-dihydro-4-oxoquinoline-3-carboxamide.
An optical networking method, characterized in that , the method is applied to an optical communication device of an optical networking system, the optical networking system comprises at least two of the optical communication devices, the optical communication device comprises a signal lamp, and the optical networking method comprises steps of converting a natural optical signal into a first pulse current; controlling the signal lamp to start flickering at a first preset flicker frequency according to the first pulse current; controlling the signal lamp to start flickering at a second preset flicker frequency according to a preset optical coding data when the optical communication device is arranged as a primary optical communication device, so as to send an optical signal to a secondary optical communication device; converting the optical signal emitted by the signal lamp of the other optical communication device arranged as the primary optical communication device into a second pulse current when the optical communication device is arranged as the secondary optical communication device; controlling the signal lamp to start flickering at a third preset flicker frequency according to the second pulse current. converting a natural optical signal into a first pulse current; controlling the signal lamp to start flickering at a first preset flicker frequency according to the first pulse current; controlling the signal lamp to start flickering at a second preset flicker frequency according to a preset optical coding data when the optical communication device is arranged as a primary optical communication device, so as to send an optical signal to a secondary optical communication device; converting the optical signal emitted by the signal lamp of the other optical communication device arranged as the primary optical communication device into a second pulse current when the optical communication device is arranged as the secondary optical communication device; controlling the signal lamp to start flickering at a third preset flicker frequency according to the second pulse current.
A method by a source network node for providing mobility support for enhanced coverage of a wireless device in handover to a target network node , the method comprising: obtaining, from the target network node , an indication of at least one resource to be used by the wireless device in handover from the source network node to the target network node ; receiving, from the wireless device , an indication of a coverage enhancement level associated with the wireless device ; and transmit, to the wireless device , the indication of the at least one resource to be used by the wireless device in handover from the source network node to the target network node , wherein the indication transmitted by the source network node comprises an indication of resource information for each of only a plurality of coverage enhancement levels that are equal to or worse than the coverage enhancement level associated with the wireless device . obtaining, from the target network node , an indication of at least one resource to be used by the wireless device in handover from the source network node to the target network node ; receiving, from the wireless device , an indication of a coverage enhancement level associated with the wireless device ; and transmit, to the wireless device , the indication of the at least one resource to be used by the wireless device in handover from the source network node to the target network node , wherein the indication transmitted by the source network node comprises an indication of resource information for each of only a plurality of coverage enhancement levels that are equal to or worse than the coverage enhancement level associated with the wireless device .
An actuator provided with a low voltage DC motor which is coupled via a two-stage reduction mechanism with an output gear wheel , wherein the reduction mechanism comprises a first stage with a worm carried on the motor shaft of the DC motor, which worm in a right-angle transmission cooperates with the circumference of an intermediate gear wheel , which intermediate gear wheel is carried on an intermediate shaft which carries along its axis a spiral pinion , and wherein the reduction mechanism furthermore comprises a second stage with the spiral pinion which in a parallel transmission cooperates with the circumference of the output gear wheel , which is implemented as a spiral gear wheel, characterized in that the spiral pinion furthermore cooperates at its circumference with a support that supports the spiral pinion at its circumference.
A method of forming an at least partly hollow board material, the method including: supplying medium and/or high density fiber board (MDF, HDF) wound up on at least one board element roll , unwinding the medium and/or high density fiber board from the roll to form a web of fibrous sheet , flattening the web of fibrous sheet to form first and second flat fiber board elements , attaching spacing elements on the first flat fiber board element , and attaching said second flat fiber board element on top of the spacing elements to form a hollow board having the first and second fiber board elements connected to each other by means of the spacing elements .
A nonwoven fabric composed of regenerated cellulosic fibers with a fiber size, determined as described in the description, of 0.5 μm to 10.0 μm, wherein the nonwoven fabric has a dry surface roughness, determined as described in the description, of 100 μm or lower, a dry formation index, determined as described in the description, of 250 or less, and an initial tensile strength in the weft direction of the nonwoven fabric when wet, determined as described in the description, of 0.25 N/50 mm to 0.75 N/50 mm, whereby the "weft direction of the nonwoven fabric" refers to the direction perpendicular to the pull direction in which the initial tensile strength is greatest during measurement of the initial tensile strength of the nonwoven fabric when wet.
A nano rod type light emitting diode, LED, comprising: a metallic support layer ; an ohmic-contact and reflective electrode on the metallic support layer ; a plurality of nano rod structures on the ohmic-contact and reflective electrode, each nano rod structure sequentially comprising: a first polarity compound semiconductor layer , an active layer and a second polarity compound semiconductor layer whose polarity is opposite to that of the first polarity compound semiconductor layer , and being separated one another; an ohmic-contact and transmissive electrode on the plurality of nano rod structures ; and a planar compound semiconductor layer between the plurality of nano rod structures and the ohmic-contact and reflective electrode , whose polarity is the second one. a metallic support layer ; an ohmic-contact and reflective electrode on the metallic support layer ; a plurality of nano rod structures on the ohmic-contact and reflective electrode, each nano rod structure sequentially comprising: a first polarity compound semiconductor layer , an active layer and a second polarity compound semiconductor layer whose polarity is opposite to that of the first polarity compound semiconductor layer , and being separated one another; an ohmic-contact and transmissive electrode on the plurality of nano rod structures ; and a planar compound semiconductor layer between the plurality of nano rod structures and the ohmic-contact and reflective electrode , whose polarity is the second one.
Printhead for applying a coating agent, in particular a paint, an adhesive or a sealing material, to a component, in particular to a motor vehicle body component or an add-on part for a motor vehicle body component, having a) several nozzles for the application of the coating agent in the form of a coating agent jet, b) several coating agent valves for controlling the release of the coating agent through the individual nozzles, and c) several electrically controllable actuators (L) for controlling the coating agent valves , d) a control circuit for electrically driving the actuators (L), d1) wherein the control circuit is integrated in the printhead , d2) wherein the control circuit contains power electronics for driving the actuators (L), characterized in e) that the integrated control circuit also comprises a printhead logic , f) that the printhead logic is connected on the output side to the power electronics , g) that the printhead logic is connected on the input side to a robot controller and either directly or only indirectly to a graphics module , h) that the robot controller controls a coating robot which moves the printhead in a program-controlled manner over the component, the robot controller reporting robot control data to the printhead logic , i) that the graphics module specifies switching patterns for the actuators (L) in accordance with a predefined graphic and reports them to the printhead logic , and j) that the printhead logic controls the power electronics as a function of the robot control data and as a function of the switching patterns. a) several nozzles for the application of the coating agent in the form of a coating agent jet, b) several coating agent valves for controlling the release of the coating agent through the individual nozzles, and c) several electrically controllable actuators (L) for controlling the coating agent valves , d) a control circuit for electrically driving the actuators (L), d1) wherein the control circuit is integrated in the printhead , d2) wherein the control circuit contains power electronics for driving the actuators (L), d1) wherein the control circuit is integrated in the printhead , d2) wherein the control circuit contains power electronics for driving the actuators (L), e) that the integrated control circuit also comprises a printhead logic , f) that the printhead logic is connected on the output side to the power electronics , g) that the printhead logic is connected on the input side to a robot controller and either directly or only indirectly to a graphics module , h) that the robot controller controls a coating robot which moves the printhead in a program-controlled manner over the component, the robot controller reporting robot control data to the printhead logic , i) that the graphics module specifies switching patterns for the actuators (L) in accordance with a predefined graphic and reports them to the printhead logic , and j) that the printhead logic controls the power electronics as a function of the robot control data and as a function of the switching patterns.