mhurhangee/ep-ind-claims huggingface dataset:
Pulper used in the paper industry that processes pulp which pulper comprises a pulper container, a punched plate screen installed to the mentioned container, a mass removal aggregate for removing the mass that has penetrated the punched plate screen out of the lower part of the container, a dilution arrangement of the pulp that streams towards the punched plate screen and a rotating mixing rotor located in the container the purpose of which mixing rotor is to defibrate paper and mix the mass in the container wherein the rotating mixing rotor comprises - disintegration wings which rotate in a pulping space of the container, - a cylinder part attached to a round plate located underneath the disintegration wings and directed downwards towards the punched plate screen, which cylinder part is located between the disintegration wings and the punched plate screen, said cylinder part rotating along with the mentioned mixing rotor, and - cleaning wings that clean the punched plate screen and that are attached to the cylinder part, characterized in that in the dilution arrangement, dilution water is brought along a pipework inside the cylinder part and is directed from holes of the cylinder part to be mixed with the pulp stream before the mentioned stream has faced the cleaning wings and the punched plate screen so that the consistency of the mass is adjusted to be thinner than in the pulping space during the mixing, and in that rotating control wings are also attached to the round plate located underneath the disintegration wings and are directed in such a way that when the mixing rotor rotates, they push the mass from the pulping space to an annular space formed outside of the cylinder part. - disintegration wings which rotate in a pulping space of the container, - a cylinder part attached to a round plate located underneath the disintegration wings and directed downwards towards the punched plate screen, which cylinder part is located between the disintegration wings and the punched plate screen, said cylinder part rotating along with the mentioned mixing rotor, and - cleaning wings that clean the punched plate screen and that are attached to the cylinder part, characterized in that in the dilution arrangement, dilution water is brought along a pipework inside the cylinder part and is directed from holes of the cylinder part to be mixed with the pulp stream before the mentioned stream has faced the cleaning wings and the punched plate screen so that the consistency of the mass is adjusted to be thinner than in the pulping space during the mixing, and in that rotating control wings are also attached to the round plate located underneath the disintegration wings and are directed in such a way that when the mixing rotor rotates, they push the mass from the pulping space to an annular space formed outside of the cylinder part.
An electromagnetic wave detection apparatus comprising: an irradiator configured to emit electromagnetic waves; a first detector comprising a plurality of detection elements configured to detect, by irradiation position, reflected waves of the electromagnetic waves irradiated on an object (ob); a memory configured to store first related information and second related information; a controller configured to update the first related information; and a travel direction modifier configured to change a travel direction, in accordance with a drive signal, of the electromagnetic waves emitted by the irradiator so as to irradiate the electromagnetic waves on the object (ob) while changing the irradiation position; wherein the memory is configured to store the first related information associating a plurality of combinations of the drive signal and the emission direction of the electromagnetic waves whose travel direction was changed; wherein the memory is configured to store the second related information associating a plurality of combinations of the emission direction and the position of the detection element; and characterized in that the controller is configured to update the first related information based on the outputted drive signal and the emission direction, the emission direction being calculated from the position of the element that detects the reflected waves of the electromagnetic waves and the second related information. an irradiator configured to emit electromagnetic waves; a first detector comprising a plurality of detection elements configured to detect, by irradiation position, reflected waves of the electromagnetic waves irradiated on an object (ob); a memory configured to store first related information and second related information; a controller configured to update the first related information; and a travel direction modifier configured to change a travel direction, in accordance with a drive signal, of the electromagnetic waves emitted by the irradiator so as to irradiate the electromagnetic waves on the object (ob) while changing the irradiation position; wherein the memory is configured to store the first related information associating a plurality of combinations of the drive signal and the emission direction of the electromagnetic waves whose travel direction was changed; wherein the memory is configured to store the second related information associating a plurality of combinations of the emission direction and the position of the detection element; and characterized in that the controller is configured to update the first related information based on the outputted drive signal and the emission direction, the emission direction being calculated from the position of the element that detects the reflected waves of the electromagnetic waves and the second related information.
A method for testing radio equipment comprising generating an interfering signal comprising the steps of: - determining a respective frequency bandwidth, B Ch, of a plurality of receive channels of the radio equipment, - generating, for each respective receive channel, interfering radio signals and controlling the interfering radio signals to stepwise sweep in frequency outside of each respective receive channel, where the stepwise sweeping of the interfering frequency is performed with a respective frequency step size and - detecting any spurious response in the respective receive channel, characterized in that the method further comprises: - selecting a proportionality constant for the frequency step size for each respective receive channel, and - performing the stepwise sweeping of the interfering frequency with the respective frequency step size that is a product of the respective bandwidth and the selected proportionality constant. - determining a respective frequency bandwidth, B Ch, of a plurality of receive channels of the radio equipment, - generating, for each respective receive channel, interfering radio signals and controlling the interfering radio signals to stepwise sweep in frequency outside of each respective receive channel, where the stepwise sweeping of the interfering frequency is performed with a respective frequency step size and - detecting any spurious response in the respective receive channel, characterized in that the method further comprises: - selecting a proportionality constant for the frequency step size for each respective receive channel, and - performing the stepwise sweeping of the interfering frequency with the respective frequency step size that is a product of the respective bandwidth and the selected proportionality constant. - selecting a proportionality constant for the frequency step size for each respective receive channel, and - performing the stepwise sweeping of the interfering frequency with the respective frequency step size that is a product of the respective bandwidth and the selected proportionality constant.
A method for manufacturing a particle source, wherein the particle source comprises a base having a gently-shaped top, and a tip formed as a tiny protrusion on the top of the base, wherein a ratio between the curvature radiuses of the base and the tip is greater than 3:1, wherein the method comprises: placing a metal wire in vacuum, introducing active gas, adjusting a temperature of the metal wire, and applying a positive high voltage V to the metal wire to generate at a side of the head of the metal wire an etching zone in which field induced chemical etching, FICE, is performed, the method being characterized by the further steps of: increasing by the FICE a surface electric field at the top of the metal wire head to be greater than a field evaporation electric field of material for the metal wire, so that metal atoms at the top of the metal wire are evaporated off; after the field evaporation is activated by the FICE, applying a constant positive high voltage causing mutual adjustment between the FICE and the field evaporation, until the head of the metal wire has a shape of combination of a base and a tip on the base; and stopping the FICE and the field evaporation when the head of the metal wire takes a predetermine shape. placing a metal wire in vacuum, introducing active gas, adjusting a temperature of the metal wire, and applying a positive high voltage V to the metal wire to generate at a side of the head of the metal wire an etching zone in which field induced chemical etching, FICE, is performed, increasing by the FICE a surface electric field at the top of the metal wire head to be greater than a field evaporation electric field of material for the metal wire, so that metal atoms at the top of the metal wire are evaporated off; after the field evaporation is activated by the FICE, applying a constant positive high voltage causing mutual adjustment between the FICE and the field evaporation, until the head of the metal wire has a shape of combination of a base and a tip on the base; and stopping the FICE and the field evaporation when the head of the metal wire takes a predetermine shape.
A locking system for a housing, the housing containing a plurality of inner slide members slidably coupled to the housing, the locking system including: a restricting element (123, 405) movable to prevent at least more than one of the inner slide members from sliding at least partially out of the housing when in a locked position and allowing at least one of the inner slide members to slide out of the housing in an unlocked position; an electrically powered driving unit coupled to the restricting element (123, 405), and drivable to shift a position of the restricting element (123, 405) from the locked position to the unlocked position, the electrically powered driving unit including a casing having an opening at a front surface, a spindle, a cam at an end of the spindle extending through the opening of the casing, and a motor drivable to rotate the cam within the casing by way of the spindle, such that the cam is positional to urge against the restricting element (123, 405) to move the restricting element (123, 405) out from the locked position; and a sensor electrically coupled to control circuitry for operating the electrically powered driving unit, and configured for detecting when the restricting element (123, 405) is in a predetermined position. a restricting element (123, 405) movable to prevent at least more than one of the inner slide members from sliding at least partially out of the housing when in a locked position and allowing at least one of the inner slide members to slide out of the housing in an unlocked position; an electrically powered driving unit coupled to the restricting element (123, 405), and drivable to shift a position of the restricting element (123, 405) from the locked position to the unlocked position, the electrically powered driving unit including a casing having an opening at a front surface, a spindle, a cam at an end of the spindle extending through the opening of the casing, and a motor drivable to rotate the cam within the casing by way of the spindle, such that the cam is positional to urge against the restricting element (123, 405) to move the restricting element (123, 405) out from the locked position; and a sensor electrically coupled to control circuitry for operating the electrically powered driving unit, and configured for detecting when the restricting element (123, 405) is in a predetermined position.
An apparatus, comprising: an anchor device disposable at least partially on a ventricle side of a native valve annulus of a heart and having a spring-shape when deployed within the heart, wherein the spring-shaped anchor device comprises at least two coils with shape-memory characteristics such that the spring-shaped anchor device has a flexibility; a prosthetic heart valve including a stent body having an atrial end and an opposite, ventricle end, wherein the stent body is a tubular stent having a collapsed condition and an expanded condition; wherein the heart valve is configured to be implanted within the native valve annulus with the stent body configured for attachment to the anchor device to secure a position of the stent body within the native valve annulus by the at least two coils of the spring-shaped anchor device that is configured to provide support to hold the stent body within the native valve annulus by encircling chordae tendineae of the heart such that the flexibility of the spring-shaped anchor device provides the prosthetic heart valve, upon deployment within a patient's heart, with added stability within the native valve annulus; and a set of valve leaflets disposed within a lumen defined by the stent body and configured to permit blood flow through the stent body from the atrial end to the ventricle end of the stent body and to inhibit blood flow from the ventricle end to the atrial end of the stent body when the prosthetic heart valve is disposed within the native valve annulus. an anchor device disposable at least partially on a ventricle side of a native valve annulus of a heart and having a spring-shape when deployed within the heart, wherein the spring-shaped anchor device comprises at least two coils with shape-memory characteristics such that the spring-shaped anchor device has a flexibility; a prosthetic heart valve including a stent body having an atrial end and an opposite, ventricle end, wherein the stent body is a tubular stent having a collapsed condition and an expanded condition; wherein the heart valve is configured to be implanted within the native valve annulus with the stent body configured for attachment to the anchor device to secure a position of the stent body within the native valve annulus by the at least two coils of the spring-shaped anchor device that is configured to provide support to hold the stent body within the native valve annulus by encircling chordae tendineae of the heart such that the flexibility of the spring-shaped anchor device provides the prosthetic heart valve, upon deployment within a patient's heart, with added stability within the native valve annulus; and a set of valve leaflets disposed within a lumen defined by the stent body and configured to permit blood flow through the stent body from the atrial end to the ventricle end of the stent body and to inhibit blood flow from the ventricle end to the atrial end of the stent body when the prosthetic heart valve is disposed within the native valve annulus.
A battery module, comprising: two or more battery cells, each comprising an electrode terminal; a connecting member, wherein the electrode terminals of adjacent battery cells are connected by the connecting member; and a clamping-sampling member, comprising a wire connection portion for fixing a wire harness and a clamping portion, wherein one end of the clamping portion is connected with the wire connection portion and the other end of the clamping portion clamps the connecting member, the clamping portion comprises a first clamping part and a second clamping part, one end of the first clamping part is fixedly connected with one end of the second clamping part, while the other end of the first clamping part and the other end of the second clamping part form an opening of the clamping portion, and the one ends of the first clamping part and the second clamping part fixedly connected to each other are connected with the wire connection portion, characterized in that, the first clamping part and the second clamping part form a guide opening which flares outwards at an end of the opening. two or more battery cells, each comprising an electrode terminal; a connecting member, wherein the electrode terminals of adjacent battery cells are connected by the connecting member; and a clamping-sampling member, comprising a wire connection portion for fixing a wire harness and a clamping portion, wherein one end of the clamping portion is connected with the wire connection portion and the other end of the clamping portion clamps the connecting member, the clamping portion comprises a first clamping part and a second clamping part, one end of the first clamping part is fixedly connected with one end of the second clamping part, while the other end of the first clamping part and the other end of the second clamping part form an opening of the clamping portion, and the one ends of the first clamping part and the second clamping part fixedly connected to each other are connected with the wire connection portion, characterized in that, the first clamping part and the second clamping part form a guide opening which flares outwards at an end of the opening.
Aeraulic device for treating the air contained in a peripheral space, the device being suitable for an air stream to pass therethrough and comprising: a. a tubular inlet manifold intended to rest on a flat surface, comprising a suction mouth at which the airflow lines (6, 7) of the peripheral space are intended to close; b. an extractor to generate circulation of the air stream within the device; c. a plenum suitable for the air stream generated in the inlet manifold to pass therethrough, the plenum comprising a radiation source which is capable of sterilizing the air in the stream, the plenum being configured to allow the air in the air stream to remain therein for a treatment time which is selected according to the power of the source; d. a diffuser mounted on the plenum and the aeraulic device being characterize in that the diffuser is configured to diffuse the air stream in the peripheral space along flow lines comprising at least one reattachment flow descending along an outer surface of the plenum towards the suction mouth, the diffuser having a circular slot which is configured to form, by means of the Coanda effect, the reattachment flow, so that non-turbulent airflow lines (6, 7) of the peripheral space close in on the air stream, allowing the air to circulate continuously on itself within the peripheral space, thereby limiting exchanges with the outside of this space and avoiding air mixing within this space. a. a tubular inlet manifold intended to rest on a flat surface, comprising a suction mouth at which the airflow lines (6, 7) of the peripheral space are intended to close; b. an extractor to generate circulation of the air stream within the device; c. a plenum suitable for the air stream generated in the inlet manifold to pass therethrough, the plenum comprising a radiation source which is capable of sterilizing the air in the stream, the plenum being configured to allow the air in the air stream to remain therein for a treatment time which is selected according to the power of the source; d. a diffuser mounted on the plenum and the aeraulic device being characterize in that the diffuser is configured to diffuse the air stream in the peripheral space along flow lines comprising at least one reattachment flow descending along an outer surface of the plenum towards the suction mouth, the diffuser having a circular slot which is configured to form, by means of the Coanda effect, the reattachment flow, so that non-turbulent airflow lines (6, 7) of the peripheral space close in on the air stream, allowing the air to circulate continuously on itself within the peripheral space, thereby limiting exchanges with the outside of this space and avoiding air mixing within this space.
A hydraulic energy store comprising a first and a second fluid reservoir whose fluid levels (4, 12) are at different heights, which are connected to one another via a turbine pump arrangement wherein during the operation of the hydraulic pump arrangement, a fluid is movable to and fro between the first fluid reservoir and the second fluid reservoir to convert energy, characterized in that the second fluid reservoir is configured as a container which is arranged in the fluid within the first fluid reservoir, such that during operation, the fluid level in the second fluid reservoir can be changed in such a way that the immersion depth (ht) of the second fluid reservoir in the first fluid reservoir can be changed due to buoyant force.
A system for beverage preparation comprising: - a beverage preparation machine said machine comprising:. a communication interface for communication with a remote resource, and. a location system configured for automatic geolocation of the machine, and configured to transmit to the remote resource, via the communication interface, location information determined by said location system. and - a remote resource to which said machine is configured to send location information, wherein the remote resource hosts a database comprising a human entered location of the machine, characterized in that said system is configured for comparing the location of the machine from the database and a location determined by the location system. - a beverage preparation machine said machine comprising:. a communication interface for communication with a remote resource, and. a location system configured for automatic geolocation of the machine, and configured to transmit to the remote resource, via the communication interface, location information determined by said location system. and. a communication interface for communication with a remote resource, and. a location system configured for automatic geolocation of the machine, and configured to transmit to the remote resource, via the communication interface, location information determined by said location system. and - a remote resource to which said machine is configured to send location information, wherein the remote resource hosts a database comprising a human entered location of the machine,
A method for the preparation of lithium carbonate from a lithium chloride containing brine solution, the method comprising the steps of: electrolyzing sodium chloride in an electrochemical cell to produce a sodium hydroxide solution, said electrochemical cell comprising an anode, a cathode, and a semi-permeable membrane separating an anode chamber and a cathode chamber; contacting said sodium hydroxide solution with a lithium chloride containing solution in a reaction vessel to produce a solution comprising lithium hydroxide; contacting the solution comprising lithium hydroxide with carbon dioxide gas in a reaction vessel to produce a solution that includes lithium carbonate; and separating a product stream from the reaction vessel to provide a lithium carbonate product and a stream comprising sodium chloride. electrolyzing sodium chloride in an electrochemical cell to produce a sodium hydroxide solution, said electrochemical cell comprising an anode, a cathode, and a semi-permeable membrane separating an anode chamber and a cathode chamber; contacting said sodium hydroxide solution with a lithium chloride containing solution in a reaction vessel to produce a solution comprising lithium hydroxide; contacting the solution comprising lithium hydroxide with carbon dioxide gas in a reaction vessel to produce a solution that includes lithium carbonate; and separating a product stream from the reaction vessel to provide a lithium carbonate product and a stream comprising sodium chloride.
A compound, which is represented by the following general formula: where X 1 and X 2 each independently represent an acrylic group or a methacrylic group, R 1 to R 8 each independently represent a hydrogen atom or a hydrocarbon group having 1 to 6 carbon atoms, and "n" represents an integer of from 1 to 10.