mhurhangee/ep-ind-claims huggingface dataset:
A one-piece stent implanter, comprising a front handle and a rear handle, wherein the front end of the front handle is provided with an outer pipe whose top is flexibly connected with a cautery tip, the outer pipe is internally provided with a middle pipe for receiving a stent; the rear handle comprises a stainless steel pipe for supporting an inner pipe positioned in the stainless steel pipe, the top of the inner pipe being fixedly connected to the cautery tip; wherein one end of the middle pipe is adapted to touch and connect with one end of the stent, while the other end of the middle pipe is mutually connected with the stainless steel pipe; allowing one end of the stent to be positioned close to the cautery tip, with a certain gap; such that when the front handle is retreated along the stainless steel pipe, the outer pipe simultaneously retreats and separates from the cautery tip, the positions of the middle pipe and the rear handle remaining unchanged, whereby the stent is automatically released, wherein the rear end of the front handle is provided with a lock nut for locking the stainless steel pipe and the front handle.
Thermoelectric device comprising a plurality of thermoelectric modules each comprising at least one thermoelectric element (3, 3p, 3n) of annular form, capable of generating an electric current under the action of a temperature gradient exerted between two of its faces, one, called first face, being defined by an outer periphery surface and the other, called second face, being defined by an inner periphery surface, said device being configured to establish a heat exchange between said first face and a first fluid and to establish a heat exchange between said second face and a second fluid so that said first fluid and said second fluid circulate transversely relative to one another, at least two of said modules forming a rank of modules in which said modules are spaced apart from one another in a first direction parallel to a direction of circulation of the first fluid in the device and at least two of said modules forming a row of modules in which said modules are spaced apart from one another in a second direction, transversal to the first direction, wherein the device comprises: - at least two ranks and at least two rows of modules, - an inlet manifold box for the second fluid to enter into the device and an outlet manifold box for the second fluid to exit from the device, the device comprising several circuits of passage for the second fluid to pass through the modules between the inlet manifold box and the outlet manifold box, the circuits being independent of one another. - at least two ranks and at least two rows of modules, - an inlet manifold box for the second fluid to enter into the device and an outlet manifold box for the second fluid to exit from the device, the device comprising several circuits of passage for the second fluid to pass through the modules between the inlet manifold box and the outlet manifold box, the circuits being independent of one another.
Device for metering a gaseous fuel to an injector in particular of a gas-powered internal combustion engine, wherein the device has at least one valve and the injector is designed to introduce the gaseous fuel into a combustion chamber of the internal combustion engine, wherein the device is a pressure-regulating unit having a shut-off valve, a pressure-regulating valve and a discharge valve, and that the shut-off valve, the pressure-regulating valve and the discharge valve form a structural unit, characterized in that the structural unit has a common actuator for the shut-off valve, the pressure-regulating valve and the discharge valve and also has a control-valve body, a gas-valve body and a gas-valve-body closure screw, wherein the actuator is fitted on the control-valve body, and a control chamber, which is controlled by the actuator, is separated by a membrane from a gas-control piston inserted in the gas-valve body, wherein a gas-discharge line is formed in the gas-control piston and, in the gas-control piston, forms a valve seat for a valve top of a gas-switching piston, and the gas-control piston together with the gas-switching piston forms the discharge valve, wherein the gas-switching piston together with the gas-valve body forms the shut-off valve and the pressure-regulating valve, or the shut-off valve and the pressure-regulating valve are formed by a gas-inlet valve, and in that the gas-inlet valve interacts with the gas-switching piston.
An agent for removing impurities formed in polymerizations which contains: a) 0.5 to 20%wt of butyrolactone b) 0.1 to 5%wt of 2-ethylhexyl acetate, c) 1.0 to 40%wt of 2-(2-ethoxyethoxy)ethanol d) 40 to 60%wt of dimethyl sulfoxide, and e) 0.1 to 5%wt of additives. a) 0.5 to 20%wt of butyrolactone b) 0.1 to 5%wt of 2-ethylhexyl acetate, c) 1.0 to 40%wt of 2-(2-ethoxyethoxy)ethanol d) 40 to 60%wt of dimethyl sulfoxide, and e) 0.1 to 5%wt of additives.
Hydraulic control device for an automatic transmission, having at least one valve device, the valve device comprising a switching valve, having a switching member, and a check valve, the switching valve being configured in a housing and being hydraulically connected to a first and a second pressure setting device and a switching element for transmitting a torque, the pressure setting devices (HCU, EDS) being supplied with a pressure medium by at least one pump, and it being possible for the switching member to be moved into a first switching position under the action of a switching pressure (p_S) on it which is generated by the second pressure setting device, in which first switching position the first pressure setting device is connected hydraulically to the switching element by way of the switching valve, and the switching member being situated in a second switching position at a switching pressure (p_S) below a defined value, in which second switching position the inflow from the first pressure setting device to the switching element is interrupted, and the check valve being arranged in such a way that, in the second switching position of the switching member, it can be flowed through from the side of the switching element towards a ventilated region of the hydraulic control device, characterized in that the switching valve is configured as a directional seat valve, the check valve being arranged in the switching member of the switching valve.
A photosensitive resin constituent for a flexographic printing plate, comprising at least a support, a photosensitive resin composition layer, and a particle layer, wherein the photosensitive resin constituent comprises the photosensitive resin composition layer and the particle layer successively stacked on the support, the photosensitive resin composition layer contains a photosensitive resin composition containing a binder, a monomer, and a polymerization initiator, the particle layer contains a resin composition containing a binder having a crosslinkable group and a particle having a pore structure, the particle having a pore structure has an average particle size of 1 μm or more and 10 μm or less, and a specific surface area of 350 m 2 /g or more and 1000 m 2 /g or less, and a content of the particle having a pore structure is 10% by mass or more and 50% by mass or less of the particle layer.
A fryer comprising: a fry pot; a heating element; a temperature sensor; and a controller that controls operation of the fryer and is configured to: control a temperature of a cooking medium in the fry pot using a first temperature set-point during a cooking cycle and using readings from the temperature sensor; determine if a filtration cycle is scheduled to follow the cooking cycle; and in response to determining the filtration cycle is scheduled to follow the cooking cycle, control the temperature of the cooking medium in the fry pot during at least a portion of the cooking cycle using a second temperature set-point that is higher than the first temperature set-point, the control of the temperature of the cooking medium being performed using the heating element. a fry pot; a heating element; a temperature sensor; and a controller that controls operation of the fryer and is configured to: control a temperature of a cooking medium in the fry pot using a first temperature set-point during a cooking cycle and using readings from the temperature sensor; determine if a filtration cycle is scheduled to follow the cooking cycle; and in response to determining the filtration cycle is scheduled to follow the cooking cycle, control the temperature of the cooking medium in the fry pot during at least a portion of the cooking cycle using a second temperature set-point that is higher than the first temperature set-point, the control of the temperature of the cooking medium being performed using the heating element. control a temperature of a cooking medium in the fry pot using a first temperature set-point during a cooking cycle and using readings from the temperature sensor; determine if a filtration cycle is scheduled to follow the cooking cycle; and in response to determining the filtration cycle is scheduled to follow the cooking cycle, control the temperature of the cooking medium in the fry pot during at least a portion of the cooking cycle using a second temperature set-point that is higher than the first temperature set-point, the control of the temperature of the cooking medium being performed using the heating element.
Method of transferring a thin layer from a first substrate with a first coefficient of thermal expansion to a second substrate with a second coefficient of thermal expansion different from the first coefficient of thermal expansion, the first substrate comprising a weakened zone delimiting the thin layer and a solid part of the first substrate, the method comprising steps to: - bring the first substrate into contact with the second substrate, - fracture the first substrate at the weakened zone making use of supply of thermal energy at the weakened zone, - provide at least one intermediate layer to the surface of at least one of the first and second substrates before said contact is made, the temperature of the at least one intermediate layer being increased by induction when an electromagnetic field is applied to it, more than the temperature increase in the first and second substrates respectively, - make the contact with the at least one intermediate layer interposed between the first substrate and the second substrate, - generate induction heating located at the intermediate layer by the application of an electromagnetic field to the heterostructure formed by the contact made between the first substrate and the second substrate, said located heating inducing thermal diffusion towards the weakened zone, thus providing said supply of thermal energy at the weakened zone. - bring the first substrate into contact with the second substrate, - fracture the first substrate at the weakened zone making use of supply of thermal energy at the weakened zone, - provide at least one intermediate layer to the surface of at least one of the first and second substrates before said contact is made, the temperature of the at least one intermediate layer being increased by induction when an electromagnetic field is applied to it, more than the temperature increase in the first and second substrates respectively, - make the contact with the at least one intermediate layer interposed between the first substrate and the second substrate, - generate induction heating located at the intermediate layer by the application of an electromagnetic field to the heterostructure formed by the contact made between the first substrate and the second substrate, said located heating inducing thermal diffusion towards the weakened zone, thus providing said supply of thermal energy at the weakened zone.
A direct current offset correction system (200a, 200b), comprising: direct current offset correction circuitry (240a, 240b) comprising an analog direct current offset loop having an adjustable bandwidth and a digital high-pass filter having an adjustable bandwidth; and control logic configured to effect a bandwidth change of the analog direct current offset loop and of the digital high-pass filter of the direct current offset correction circuitry, wherein the bandwidths of the analog direct current offset loop and of the digital high-pass filter can be adjusted individually or in conjunction with each other. direct current offset correction circuitry (240a, 240b) comprising an analog direct current offset loop having an adjustable bandwidth and a digital high-pass filter having an adjustable bandwidth; and control logic configured to effect a bandwidth change of the analog direct current offset loop and of the digital high-pass filter of the direct current offset correction circuitry, wherein the bandwidths of the analog direct current offset loop and of the digital high-pass filter can be adjusted individually or in conjunction with each other.
Method for preparing a rigid, mineral and porous foam, consisting of the following steps: (i) preparing an aqueous suspension comprising or constituted by - 35%-60% water relative to the total weight of the abovementioned suspension, - 5-35% alkali metal silicate, alkali metal aluminate, or mixtures thereof, relative to the total weight of the abovementioned suspension, - 30-60% mineral particles insoluble in the abovementioned suspension relative to the total weight of the abovementioned suspension, - 0-2% mineral or organic fibres relative to the total weight of the abovementioned suspension, - 0.3-10%, in particular 0.3-5%, at least one foaming agent of animal or plant, natural or synthetic origin relative to the total weight of the abovementioned suspension, - optionally at least one texturing agent, and - optionally at least one functional molecule, and - optionally a surfactant different from the foaming agent used in said suspension, (ii) dispersing a gas in the abovementioned suspension to obtain a stable moist foam; (iii) hardening the moist foam obtained at the end of step (ii) to obtain said rigid foam. (i) preparing an aqueous suspension comprising or constituted by - 35%-60% water relative to the total weight of the abovementioned suspension, - 5-35% alkali metal silicate, alkali metal aluminate, or mixtures thereof, relative to the total weight of the abovementioned suspension, - 30-60% mineral particles insoluble in the abovementioned suspension relative to the total weight of the abovementioned suspension, - 0-2% mineral or organic fibres relative to the total weight of the abovementioned suspension, - 0.3-10%, in particular 0.3-5%, at least one foaming agent of animal or plant, natural or synthetic origin relative to the total weight of the abovementioned suspension, - optionally at least one texturing agent, and - optionally at least one functional molecule, and - optionally a surfactant different from the foaming agent used in said suspension, - 35%-60% water relative to the total weight of the abovementioned suspension, - 5-35% alkali metal silicate, alkali metal aluminate, or mixtures thereof, relative to the total weight of the abovementioned suspension, - 30-60% mineral particles insoluble in the abovementioned suspension relative to the total weight of the abovementioned suspension, - 0-2% mineral or organic fibres relative to the total weight of the abovementioned suspension, - 0.3-10%, in particular 0.3-5%, at least one foaming agent of animal or plant, natural or synthetic origin relative to the total weight of the abovementioned suspension, - optionally at least one texturing agent, and - optionally at least one functional molecule, and - optionally a surfactant different from the foaming agent used in said suspension, (ii) dispersing a gas in the abovementioned suspension to obtain a stable moist foam; (iii) hardening the moist foam obtained at the end of step (ii) to obtain said rigid foam.
A method for the control of microorganisms, fungi or oomycetes in agriculture, said method comprising applying to growing plants, an anti-microbial, anti-fungal or anti-oomycetes effective amount of a combination of: (i) an agriculturally acceptable acidifying agent, and (ii) an agriculturally acceptable source of nitrite ions or a nitrate precursor thereof, wherein the agriculturally acceptable acidifying agent is in the form of a buffer solution and wherein the combination of (i) and (ii) has a pH of between 3.0 and 6.5 and acts as a source of nitric oxide. (i) an agriculturally acceptable acidifying agent, and (ii) an agriculturally acceptable source of nitrite ions or a nitrate precursor thereof,
A method for preparing metal nanoparticles using electrolysis, the method comprising the steps of: dissolving an electrolyte and a dispersing agent in pure water in a reactor to prepare an electrolytic solution; placing first and second electrodes apart from each other in the electrolytic solution in the reactor, the electrodes being made of the same material as metal nanoparticles to be obtained; applying alternating current at the first and second electrodes to ionize the metal of the first and second electrodes in the electrolytic solution; and introducing into the electrolytic solution a reducing agent, wherein the amount of reducing agent introduced is set at (integral value of intensity of electric current) x 2 mmol/h to (integral value of intensity of electric current) x 4 mmol/h, based on 1 liter of pure water, thereby obtaining metal nanoparticles. dissolving an electrolyte and a dispersing agent in pure water in a reactor to prepare an electrolytic solution; placing first and second electrodes apart from each other in the electrolytic solution in the reactor, the electrodes being made of the same material as metal nanoparticles to be obtained; applying alternating current at the first and second electrodes to ionize the metal of the first and second electrodes in the electrolytic solution; and introducing into the electrolytic solution a reducing agent, wherein the amount of reducing agent introduced is set at (integral value of intensity of electric current) x 2 mmol/h to (integral value of intensity of electric current) x 4 mmol/h, based on 1 liter of pure water, thereby obtaining metal nanoparticles.
A system for providing access to a database, including support for efficient repurposing of connections, comprising: a computer including a processor, and at least one of an application server or database environment executing thereon; a connection pool that enables software applications to request a connection from the connection pool, and use a provided connection to access a database; and wherein the system enables repurposing of connections in the connection pool, including, in response to receiving a request for a connection having desired attributes, determining if the connection pool includes a particular connection having the desired attributes that is borrowed at the time of the request; if such a connection exists, waiting a time period that is less than a connection wait timeout for the particular connection to become available; and if the particular connection is not made available within the time period, then determining, during a remainder of the connection wait timeout, to one of create a new connection with the desired attributes or repurpose another connection by modifying its attributes. a computer including a processor, and at least one of an application server or database environment executing thereon; a connection pool that enables software applications to request a connection from the connection pool, and use a provided connection to access a database; and wherein the system enables repurposing of connections in the connection pool, including, in response to receiving a request for a connection having desired attributes, determining if the connection pool includes a particular connection having the desired attributes that is borrowed at the time of the request; if such a connection exists, waiting a time period that is less than a connection wait timeout for the particular connection to become available; and if the particular connection is not made available within the time period, then determining, during a remainder of the connection wait timeout, to one of create a new connection with the desired attributes or repurpose another connection by modifying its attributes. determining if the connection pool includes a particular connection having the desired attributes that is borrowed at the time of the request; if such a connection exists, waiting a time period that is less than a connection wait timeout for the particular connection to become available; and if the particular connection is not made available within the time period, then determining, during a remainder of the connection wait timeout, to one of create a new connection with the desired attributes or repurpose another connection by modifying its attributes.
A vertical sheet compiling apparatus comprising: a slot that accumulates a plurality of sheets, the slot including a first baffle and a second baffle, the first baffle and the second baffle defining generally vertical sides of a sheet path of the slot and being separated from each other by a space therebetween; an actuator coupled to at least one of the first and second baffles (12, 14) to move at least one of the baffles toward or away from the other one of the baffles, thereby adjusting a width of the sheet path as the sheets compile in the slot; and a binding mechanism that fastens the plurality of sheets together, wherein the first baffle is a fixed baffle, the second baffle is a movable baffle, and the actuator is coupled to and moves the movable baffle, characterized in that the apparatus further comprises a second actuator disposed at an upper portion of the sheet path, the second actuator moving an upper portion of the movable baffle independently from a lower portion of the movable baffle, thereby adjusting a width of an upper portion of the sheet path to a width different than a width of a lower portion of the sheet path. a slot that accumulates a plurality of sheets, the slot including a first baffle and a second baffle, the first baffle and the second baffle defining generally vertical sides of a sheet path of the slot and being separated from each other by a space therebetween; an actuator coupled to at least one of the first and second baffles (12, 14) to move at least one of the baffles toward or away from the other one of the baffles, thereby adjusting a width of the sheet path as the sheets compile in the slot; and a binding mechanism that fastens the plurality of sheets together, wherein the first baffle is a fixed baffle, the second baffle is a movable baffle, and the actuator is coupled to and moves the movable baffle, characterized in that the apparatus further comprises a second actuator disposed at an upper portion of the sheet path, the second actuator moving an upper portion of the movable baffle independently from a lower portion of the movable baffle, thereby adjusting a width of an upper portion of the sheet path to a width different than a width of a lower portion of the sheet path.