mhurhangee/patent-ind-claim-en huggingface dataset:
A method for treating at least one lithium ion battery enclosed in a housing containing aluminum, comprising: heating the lithium ion battery using a combustion furnace in which a combustion object is incinerated by flames, while preventing the flames from being directly applied to the housing of the lithium ion battery wherein in the combustion furnace, the lithium ion battery is disposed in a battery protection container for preventing the flames from being directly applied to the housing of the lithium ion battery, and the flames are applied to an outer surface of the battery protection container, and wherein the battery protection container has at least one gas venting hole for discharging a gas flowing out from the inside of the housing of the lithium ion battery to the outside of the battery protection container. heating the lithium ion battery using a combustion furnace in which a combustion object is incinerated by flames, while preventing the flames from being directly applied to the housing of the lithium ion battery wherein in the combustion furnace, the lithium ion battery is disposed in a battery protection container for preventing the flames from being directly applied to the housing of the lithium ion battery, and the flames are applied to an outer surface of the battery protection container, and wherein the battery protection container has at least one gas venting hole for discharging a gas flowing out from the inside of the housing of the lithium ion battery to the outside of the battery protection container.
A therapeutic agent including an Aurora kinase inhibitor for use in therapeutically reducing viability of cancer cells or treating cancer in a subject, wherein the therapeutic agent is administered to the cancer cells or a target region of the subject, and an alternating electric field having a frequency between 100 kHz and 300 kHz applied to the cancer cells or the target region of the subject.
A method for temporary transportation of an overload within an elevator installation having a car and a counterweight interconnected by one or more suspension ropes engaging a traction sheave which is driven by a motor the motor having armature windings arranged in double star configuration with a winding pair for each phase, the method comprising the step of enhancing traction between the suspension ropes and the traction sheave independently of the counterweight , further comprising the step of switching the motor armature windings from parallel to series configuration.
An activated wooden structural element comprising a first outer layer , at least one active layer and a second outer layer, wherein the outer layers and the active layer comprise boards and/or posts and are connected by a plurality of connectors , wherein the boards and/or posts of the active layer have gaps , wherein at least one fluid conduit is introduced into said gaps , and wherein said gaps in said active layer are obtained by spacing between said boards and/or posts of said active layer , characterized in that each of said plurality of connectors extends into all of said layers and that said connectors are made of wood.
A method for separating biomolecules from a liquid medium, comprising: adding magnetic nanoparticles to the liquid medium comprising the biomolecules, the biomolecules each adapted to bind to respective surfaces of the magnetic nanoparticles, the biomolecules comprising proteins fused with peptide tags; bringing the liquid medium to which the magnetic nanoparticles have been added into contact with a collector ; applying a magnetic field (B) to the liquid medium in contact with the collector to attract the magnetic nanoparticles bound with the biomolecules to a surface of the collector; and applying an electric potential to the surface of the collector to release the biomolecules from the magnetic nanoparticles, wherein bringing the liquid medium to which the magnetic nanoparticles have been added into contact with the collector comprises: allowing the liquid medium to which the magnetic nanoparticles have been added to pass through a flow cell comprising a chamber and the collector, the collector being a working electrode disposed in the chamber. adding magnetic nanoparticles to the liquid medium comprising the biomolecules, the biomolecules each adapted to bind to respective surfaces of the magnetic nanoparticles, the biomolecules comprising proteins fused with peptide tags; bringing the liquid medium to which the magnetic nanoparticles have been added into contact with a collector ; applying a magnetic field (B) to the liquid medium in contact with the collector to attract the magnetic nanoparticles bound with the biomolecules to a surface of the collector; and applying an electric potential to the surface of the collector to release the biomolecules from the magnetic nanoparticles, wherein bringing the liquid medium to which the magnetic nanoparticles have been added into contact with the collector comprises: allowing the liquid medium to which the magnetic nanoparticles have been added to pass through a flow cell comprising a chamber and the collector, the collector being a working electrode disposed in the chamber.
A forceps, comprising: an end effector assembly including first and second jaw members , at least one of the jaw members movable relative to the other between a spaced-apart position and an approximated position for grasping tissue therebetween, at least one of the jaw members configured to conduct energy between the jaw members and through tissue grasped therebetween to treat tissue; and a monopolar member ; characterised by : an insulative tubular member movable relative to the end effector assembly between a retracted position, wherein the insulative tubular member is positioned proximally of the end effector assembly , and an extended position, wherein the insulative tubular member is disposed about the end effector assembly; the monopolar member being configured to apply energy to tissue to treat tissue when the insulative tubular member is disposed in the extended position. an end effector assembly including first and second jaw members , at least one of the jaw members movable relative to the other between a spaced-apart position and an approximated position for grasping tissue therebetween, at least one of the jaw members configured to conduct energy between the jaw members and through tissue grasped therebetween to treat tissue; and a monopolar member ; characterised by : an insulative tubular member movable relative to the end effector assembly between a retracted position, wherein the insulative tubular member is positioned proximally of the end effector assembly , and an extended position, wherein the insulative tubular member is disposed about the end effector assembly; the monopolar member being configured to apply energy to tissue to treat tissue when the insulative tubular member is disposed in the extended position.
An image processing apparatus comprising a processor, the processor being configured to implement: a decoder which decodes input image data; and a rendering module which renders the decoded image data according to a rendering cycle which corresponds to a refresh rate of a display to display a plurality of image frames of the decoded image data, wherein the rendering cycle comprises a rendering period during which the decoded image data is rendered and a non-rendering period during which the decoded image data is not rendered, wherein the decoder is configured to decode the input image data during the non-rendering period among the rendering period and the non-rendering period such that the rendering module and the decoder do not use the processor at the same time, wherein the display is configured to output the decoded and rendered image data, and wherein the rendering module is configured to match an interval between the image frames of the image data to an interval between refreshes of the display to render the decoded image data. a decoder which decodes input image data; and a rendering module which renders the decoded image data according to a rendering cycle which corresponds to a refresh rate of a display to display a plurality of image frames of the decoded image data, wherein the rendering cycle comprises a rendering period during which the decoded image data is rendered and a non-rendering period during which the decoded image data is not rendered, wherein the decoder is configured to decode the input image data during the non-rendering period among the rendering period and the non-rendering period such that the rendering module and the decoder do not use the processor at the same time, wherein the display is configured to output the decoded and rendered image data, and wherein the rendering module is configured to match an interval between the image frames of the image data to an interval between refreshes of the display to render the decoded image data.
Pet security device for vehicles, comprising a harness provided with straps, wherein the harness comprises: - two first straps , each of them including at one end a fastening element ; - a second strap that crosses the first straps ; and - a third strap , whose ends are attached to the ends of the second strap , the second strap has a U-shape, the central portion of the U-shape being attached to the first straps , and the third strap is attached to the ends of the first straps opposite to the fastening elements , characterized in that it also comprises a fourth strap that is detachably attached to the second strap on one end and that includes at other end a fastening element . - two first straps , each of them including at one end a fastening element ; - a second strap that crosses the first straps ; and - a third strap , whose ends are attached to the ends of the second strap , the second strap has a U-shape, the central portion of the U-shape being attached to the first straps , and the third strap is attached to the ends of the first straps opposite to the fastening elements , characterized in that it also comprises a fourth strap that is detachably attached to the second strap on one end and that includes at other end a fastening element . the second strap has a U-shape, the central portion of the U-shape being attached to the first straps , and the third strap is attached to the ends of the first straps opposite to the fastening elements , characterized in that it also comprises a fourth strap that is detachably attached to the second strap on one end and that includes at other end a fastening element .
A preparation method of a 2-substituted-2H-1,2,3-triazole derivative having the following structure: wherein the method comprises the following steps: dissolving the compound shown in the following formula III in a mass to volume ratio of 1:2∼20 of diethyl ether, tetrahydrofuran or 1,4-dioxane or methyltetrahydrofuran, cooling to -78∼0°C, adding isopropylmagnesium chloride or isopropylmagnesium chloride-lithium chloride composite, stirring for 0.5∼2 hours, inleting chlorine or adding N-chlorosuccinimide, or 1,3-dichloro-5,5-dimethylhydantoin, or adding iodine, stirring for 5∼30 minutes, heating up to room temperature, extracting by using organic solvent after quenching by using saturated ammonium chloride aqueous solution, drying via anhydrous sodium sulfate or anhydrous magnesium sulfate, concentrating to dry under reduced pressure, recrystallizing the obtained concentrate to obtain the 2-substituted-2H-1,2,3-triazole derivative; wherein R represents alkyl, aryl, aralkyl, cycloalkyl, cycloalkyl alkyl, heteroaryl, heteroaryl alkyl, or heterocyclic alkyl, and X represents chlorine or iodine.
An image forming apparatus , comprising: a print engine to be used to perform an image forming job; a motor to drive a fuser ; a driving circuit to supply a power to the motor and to include a sensor to sense a size of current of the power supplied to the motor during an operation to perform the image forming job; and a processor to detect an occurrence of jam based on a size of current sensed by the sensor in a first time interval corresponding to a time point when a printing medium moves toward the fuser and a size of current sensed by the sensor in a second time interval corresponding to after a time point when a printing medium starts passing through the fuser. a print engine to be used to perform an image forming job; a motor to drive a fuser ; a driving circuit to supply a power to the motor and to include a sensor to sense a size of current of the power supplied to the motor during an operation to perform the image forming job; and a processor to detect an occurrence of jam based on a size of current sensed by the sensor in a first time interval corresponding to a time point when a printing medium moves toward the fuser and a size of current sensed by the sensor in a second time interval corresponding to after a time point when a printing medium starts passing through the fuser.
A flux-cored wire for gas-shielded arc welding, which has a steel outer sheath filled with a flux, the flux-cored wire comprising, relative to a total mass of the wire: C: 0.01 mass% or more and 0.20 mass% or less; Mn: 0.5 mass% or more and 5.0 mass% or less; TiO 2 : 2.0 mass% or more and 10.0 mass% or less; and wherein: P: 0.050 mass% or less, S: 0.050 mass% or less, the flux comprises, relative to the total mass of the wire, Ni: 0.10 mass% or more and 5.00 mass% or less, the flux-cored wire optionally comprising: at least one of Si and an Si oxide: 0.05 mass% or more and 1.00 mass% or less in total in terms of Si; at least one of Cr: 0.50 mass% or less, Cu: 0.50 mass% or less, and Mo: 0.50 mass% or less; metal Mg and an Mg alloy: 0.10 mass% or more and 1.20 mass% or less in total in terms of Mg; metal Ti and a Ti alloy: 0.80 mass% or less in total in terms of Ti; B and a B compound: 0.0010 mass% or more and 0.0200 mass% or less in total in terms of B; an F compound: 0.01 mass% or more and 0.50 mass% or less in total in terms of F, and a sum of a total in terms of Na of an Na compound and a total in terms of K of a K compound: 0.01 mass% or more and 1.00 mass% or less; at least one of Nb: 0.10 mass% or less and V: 0.10 mass% or less; ZrO 2 : 0.50 mass% or less and Al 2 O 3 : 0.05 mass% or more and 1.00 mass% or less, wherein the remainder is Fe and unavoidable impurities, and with respect to the Ni, a value of a ratio α1/α2 is 0.50 or more and 1.00 or less, wherein α1 (mass%) is a content of a particle having a particle size of 106 μm or less relative to the total mass of the wire, and α2 (mass%) is a content of a particle having a particle size of more than 106 μm relative to the total mass of the wire, wherein the particle size of Ni is determined in accordance with the measurement method described in the description under the heading (Method for measuring particle size of Ni). C: 0.01 mass% or more and 0.20 mass% or less; Mn: 0.5 mass% or more and 5.0 mass% or less; TiO 2 : 2.0 mass% or more and 10.0 mass% or less; and P: 0.050 mass% or less, S: 0.050 mass% or less, the flux comprises, relative to the total mass of the wire, Ni: 0.10 mass% or more and 5.00 mass% or less, at least one of Si and an Si oxide: 0.05 mass% or more and 1.00 mass% or less in total in terms of Si; at least one of Cr: 0.50 mass% or less, Cu: 0.50 mass% or less, and Mo: 0.50 mass% or less; metal Mg and an Mg alloy: 0.10 mass% or more and 1.20 mass% or less in total in terms of Mg; metal Ti and a Ti alloy: 0.80 mass% or less in total in terms of Ti; B and a B compound: 0.0010 mass% or more and 0.0200 mass% or less in total in terms of B; an F compound: 0.01 mass% or more and 0.50 mass% or less in total in terms of F, and a sum of a total in terms of Na of an Na compound and a total in terms of K of a K compound: 0.01 mass% or more and 1.00 mass% or less; at least one of Nb: 0.10 mass% or less and V: 0.10 mass% or less; ZrO 2 : 0.50 mass% or less and Al 2 O 3 : 0.05 mass% or more and 1.00 mass% or less,
A method of wireless communication performed by an apparatus of a user equipment, UE , comprising: determining association information that indicates mappings between multiple transmit receive points, TRPs , and uplink channels, wherein the uplink channels are associated with corresponding uplink transmissions to the multiple TRPs ; multiplexing or dropping one or more first overlapping uplink channels of the uplink channels, wherein the one or more first overlapping uplink channels are mapped to a same TRP of the multiple TRPs; dropping one or more second overlapping uplink channels, of the uplink channels, that overlap across different TRPs of the multiple TRPs, wherein at least one of the dropping of the one or more first overlapping uplink channels or the dropping of the one or more second overlapping uplink channels is based at least in part on a set of priority rules related to the uplink channels, wherein the set of priority rules is based at least in part on corresponding priorities for payload types of the uplink channels; and transmitting , to the multiple TRPs, non-overlapping uplink transmissions associated with one or more non-overlapping uplink channels, remaining from the uplink channels after the multiplexing or the dropping of the one or more first overlapping uplink channels and after the dropping of the one or more second overlapping uplink channels. determining association information that indicates mappings between multiple transmit receive points, TRPs , and uplink channels, wherein the uplink channels are associated with corresponding uplink transmissions to the multiple TRPs ; multiplexing or dropping one or more first overlapping uplink channels of the uplink channels, wherein the one or more first overlapping uplink channels are mapped to a same TRP of the multiple TRPs; dropping one or more second overlapping uplink channels, of the uplink channels, that overlap across different TRPs of the multiple TRPs, wherein at least one of the dropping of the one or more first overlapping uplink channels or the dropping of the one or more second overlapping uplink channels is based at least in part on a set of priority rules related to the uplink channels, wherein the set of priority rules is based at least in part on corresponding priorities for payload types of the uplink channels; and transmitting , to the multiple TRPs, non-overlapping uplink transmissions associated with one or more non-overlapping uplink channels, remaining from the uplink channels after the multiplexing or the dropping of the one or more first overlapping uplink channels and after the dropping of the one or more second overlapping uplink channels.
A non-metallic flexible pipe, sequentially comprising, from the inside to the outside, an inner liner , a pressure-bearing layer , an isolation layer , a tensile layer , a functional layer , and a protective layer , with flexible bonding being between two adjacent layers, wherein the material of the inner liner is a thermoplastic polymer, the material of the pressure-bearing layer is a fiber-reinforced resin-based composite, the material of the isolation layer is a thermoplastic polymer, the material of the tensile layer is a resin-reinforced fiber, at least one of an optical fiber, a cable, a tracing ribbon, a pipe for conveying a heat transfer medium, a pressure sensor, and a temperature sensor is provided in the functional layer , and the material of the protective layer is a thermoplastic polymer.
An apparatus comprising: a security component configured to generate authentication data based on message data, wherein said message data includes an authentication mechanism identifier, and wherein said security component is further configured to generate said authentication data using an authentication mechanism associated with said authentication mechanism identifier; a message generation component configured to generate a Constrained Application Protocol, CoAP, message including said authentication data and said message data, and wherein said message generation component is further configured to include said authentication data as at least a portion of a payload of said CoAP message; and a communication interface configured to communicate said CoAP message. a security component configured to generate authentication data based on message data, wherein said message data includes an authentication mechanism identifier, and wherein said security component is further configured to generate said authentication data using an authentication mechanism associated with said authentication mechanism identifier; a message generation component configured to generate a Constrained Application Protocol, CoAP, message including said authentication data and said message data, and wherein said message generation component is further configured to include said authentication data as at least a portion of a payload of said CoAP message; and a communication interface configured to communicate said CoAP message.
An image transfer sheet comprising an image layer in part of an area between a transfer film as an upper layer and a glue layer as a lower layer, the image transfer sheet defined by the glue layer , and a release paper releasably glued to the lower surface of the glue layer , wherein the transfer film is releasable from the image layer and easily adhesive to the glue layer , wherein a lower surface of the transfer film is in contact with the image layer where there is the image layer , and is in contact with the glue layer where there is no image layer , characterized in that the lower surface of the glue layer is provided with many individually independent fine protrusions in the entire lower surface, wherein the shape of the protrusions is either dot-like or line-like, a height of the protrusions is 5-20 μm, and when the protrusions are dot-like, a diameter and an interval between adjacent dot-like protrusions are 0.2 mm-1.0 mm, and when the protrusions are line-like, a line width and an interval between adjacent line-like protrusions are also at least 0.2-1.0 mm.
A breath sampling assembly comprising: - a housing having: - an input end for receiving the breath of a user; - an inlet choke point , wherein sides of the housing taper inward from the input end to define the inlet choke point; - a middle portion having a gas sensor and one or more baffles arranged to divert the user's breath to the gas sensor and a remainder of the breath is isolated from and bypasses the gas sensor ; - an exhaust choke point ; and - an output end for expelling the user's breath once it has passed the middle portion, wherein sides of the housing taper outward from the exhaust choke point to the output end ; wherein the inlet choke point and the exhaust choke point are configured to generate in combination with the breath bypass, a pressure drop to pull the portion of the user's breath into and through the gas sensor. - a housing having: - an input end for receiving the breath of a user; - an inlet choke point , wherein sides of the housing taper inward from the input end to define the inlet choke point; - a middle portion having a gas sensor and one or more baffles arranged to divert the user's breath to the gas sensor and a remainder of the breath is isolated from and bypasses the gas sensor ; - an exhaust choke point ; and - an output end for expelling the user's breath once it has passed the middle portion, wherein sides of the housing taper outward from the exhaust choke point to the output end ; wherein the inlet choke point and the exhaust choke point are configured to generate in combination with the breath bypass, a pressure drop to pull the portion of the user's breath into and through the gas sensor.