mhurhangee/ep-ind-claims huggingface dataset:
A vertical reactor for the production of urea by direct synthesis from ammonia and carbon dioxide in a gas-liquid biphasic mixture, comprising: a) a hollow structure delimited by an outer wall having a substantially cylindrical form, closed at the ends by substantially hemispherical caps (8, 9), comprising openings for the inlet and outlet of the process fluids so as to have gas and liquid phases flowing co-currently within the reactor; a lower cap having inlets (2, 3) of carbon dioxide and a stream comprising liquid ammonia and ammonium carbamate respectively; a reacted mixture comprising urea formed in the reactor being collected in an upper cap and sent to a line leaving the reactor either from the upper cap or at an intermediate height via a duct arranged vertically inside the apparatus and connected to an overflow situated in the upper cap; b) a plurality of superimposed perforated plates, extending horizontally inside the structure as far as the internal surface of the cylindrical wall and suitably spaced along the vertical axis, so that between each pair of adjacent plates there is a sector in fluid communication with the sector respectively positioned above and/or below the same; characterized in that at least one sector comprises one single substantially planar dividing septum situated between two adjacent plates and perpendicular to these and fixed on the surface of each of the plates and on the internal surface of the lining of the outer wall, so as to divide the respective sector into two sections whose volumes are in a ratio between each other of 1/3 to 3/1, preferably from 0.95 to 1.05, more preferably equal to 1. a) a hollow structure delimited by an outer wall having a substantially cylindrical form, closed at the ends by substantially hemispherical caps (8, 9), comprising openings for the inlet and outlet of the process fluids so as to have gas and liquid phases flowing co-currently within the reactor; a lower cap having inlets (2, 3) of carbon dioxide and a stream comprising liquid ammonia and ammonium carbamate respectively; a reacted mixture comprising urea formed in the reactor being collected in an upper cap and sent to a line leaving the reactor either from the upper cap or at an intermediate height via a duct arranged vertically inside the apparatus and connected to an overflow situated in the upper cap; b) a plurality of superimposed perforated plates, extending horizontally inside the structure as far as the internal surface of the cylindrical wall and suitably spaced along the vertical axis, so that between each pair of adjacent plates there is a sector in fluid communication with the sector respectively positioned above and/or below the same;
A method of paging a terminal (104, 212, 508), by a base station (101, 201, 504) and via a relay node, wherein the terminal is configured to communicate with the base station via the relay node, characterised in that the method comprising: notifying the relay node of a paging identifier for identifying the terminal at least in paging messages wherein the paging identifier is one of i) a previously allocated identifier associated with a suspended connection with the base station for resuming a radio resource control connection and ii) a temporary identifier that differs from a permanent identifier for the terminal and that is associated with the same paging time as the permanent identifier; and the base station transmitting a paging message for the terminal; wherein: the paging message comprises the paging identifier; and the paging message is transmitted at a paging time for a destination identifier; and the method further comprises the relay node monitoring the paging time for the destination identifier for paging messages comprising the paging identifier. notifying the relay node of a paging identifier for identifying the terminal at least in paging messages wherein the paging identifier is one of i) a previously allocated identifier associated with a suspended connection with the base station for resuming a radio resource control connection and ii) a temporary identifier that differs from a permanent identifier for the terminal and that is associated with the same paging time as the permanent identifier; and the base station transmitting a paging message for the terminal; wherein: the paging message comprises the paging identifier; and the paging message is transmitted at a paging time for a destination identifier; and the method further comprises the relay node monitoring the paging time for the destination identifier for paging messages comprising the paging identifier. the paging message comprises the paging identifier; and the paging message is transmitted at a paging time for a destination identifier; and the method further comprises the relay node monitoring the paging time for the destination identifier for paging messages comprising the paging identifier.
Hydraulic block for a hydraulic unit for controlling the brake pressure of a vehicle brake system with traction control, having sockets for pressure generators, valves and/or pressure sensors and having fluid connections through which the sockets are connected to at least two fluid circuits hydraulically separated from one another, wherein at least one socket for a pressure sensor is assigned to each fluid circuit, characterized in that for the hydraulic contact of the sockets of at least two pressure sensors of different fluid circuits a common duct is provided, situated in which is a shut-off element (40b,, which separates the fluid connection that otherwise exists between the two fluid circuits.
1. A method comprising: identifying, by a client, a plurality of objects placed on a surface of the client, each object of the plurality of objects containing one or more user settings; configuring a user interface according to the one or more user settings, wherein the configuring of the user interface is performed using the user settings that are common to the plurality of said objects; and outputting the user interface using at least a portion of the surface; identifying, by a client, a plurality of objects placed on a surface of the client, each object of the plurality of objects containing one or more user settings; configuring a user interface according to the one or more user settings, wherein the configuring of the user interface is performed using the user settings that are common to the plurality of said objects; and outputting the user interface using at least a portion of the surface;
A remote control device comprising: a first housing; a first transmission circuit, configured to emit infrared light in a direction towards a first face of the first housing; a second transmission circuit, configured to emit infrared light in a direction towards a second face of the first housing; a first infrared window configured to cover at least part of the first transmission circuit and to transmit the infrared light emitted by the first transmission circuit therethrough; a window button coupled to the second face of the first housing, comprising a second infrared window, wherein the window button is configured to cover at least part of the second transmission circuit and to transmit the infrared light emitted by the second transmission circuit through the second infrared window; and a second housing, wherein the second housing is configured to be coupled with the first housing and the second housing includes a hole to be coupled with or to be separated from the window button, and wherein the second housing is configured: to expose the window button and cover a part of the first housing when the window button is coupled with the hole, and to uncover the part of the first housing so that part of the first housing is exposed outside the second housing when the window button is separated from the hole; wherein the window button is configured to be separated from the hole in response to being pressed by an external force. a first housing; a first transmission circuit, configured to emit infrared light in a direction towards a first face of the first housing; a second transmission circuit, configured to emit infrared light in a direction towards a second face of the first housing; a first infrared window configured to cover at least part of the first transmission circuit and to transmit the infrared light emitted by the first transmission circuit therethrough; a window button coupled to the second face of the first housing, comprising a second infrared window, wherein the window button is configured to cover at least part of the second transmission circuit and to transmit the infrared light emitted by the second transmission circuit through the second infrared window; and a second housing, wherein the second housing is configured to be coupled with the first housing and the second housing includes a hole to be coupled with or to be separated from the window button, and wherein the second housing is configured: to expose the window button and cover a part of the first housing when the window button is coupled with the hole, and to uncover the part of the first housing so that part of the first housing is exposed outside the second housing when the window button is separated from the hole; to expose the window button and cover a part of the first housing when the window button is coupled with the hole, and to uncover the part of the first housing so that part of the first housing is exposed outside the second housing when the window button is separated from the hole; wherein the window button is configured to be separated from the hole in response to being pressed by an external force.
A method for information feedback, comprising: receiving, by a terminal, downlink control information, DCI, scheduling preset information from a network device; receiving, by the terminal, the preset information from the network device according to the DCI, the preset information comprising one or more pieces of point-to-multipoint, PTM, transmission information and one or more pieces of unicast transmission information; and feeding back, by the terminal, hybrid automatic repeat request, HARQ, response information of the one or more pieces of PTM transmission information and HARQ response information of the one or more pieces of unicast transmission information to the network device by using a same uplink, UL, time-frequency resource, when the same UL time-frequency resource is used for the HARQ response information of the one or more pieces of PTM transmission information and the HARQ response information of the one or more pieces of unicast transmission information. receiving, by a terminal, downlink control information, DCI, scheduling preset information from a network device; receiving, by the terminal, the preset information from the network device according to the DCI, the preset information comprising one or more pieces of point-to-multipoint, PTM, transmission information and one or more pieces of unicast transmission information; and feeding back, by the terminal, hybrid automatic repeat request, HARQ, response information of the one or more pieces of PTM transmission information and HARQ response information of the one or more pieces of unicast transmission information to the network device by using a same uplink, UL, time-frequency resource, when the same UL time-frequency resource is used for the HARQ response information of the one or more pieces of PTM transmission information and the HARQ response information of the one or more pieces of unicast transmission information.
An electrochemical micro-battery comprising biocompatible cell components including: a cylindrical anode extending along a first vector; a planar cathode extending along a second vector, wherein said second vector is parallel to said first vector, said cathode being disposed from said anode by a predetermined space; a flexible conducting cathode collector in electrical contact with said cathode and extending along said second vector, wherein the cathode is a coating on the cathode collector; an electrolyte positioned surrounding said anode and said cathode and within said predetermined space to provide ionic conductivity between said anode and said cathode; and flexible packaging (140, 150) surrounding said anode, said cathode, said cathode collector and said electrolyte, wherein said anode extends through said packaging along said first vector, and said cathode collector extends through said packaging along said second vector. a cylindrical anode extending along a first vector; a planar cathode extending along a second vector, wherein said second vector is parallel to said first vector, said cathode being disposed from said anode by a predetermined space; a flexible conducting cathode collector in electrical contact with said cathode and extending along said second vector, wherein the cathode is a coating on the cathode collector; an electrolyte positioned surrounding said anode and said cathode and within said predetermined space to provide ionic conductivity between said anode and said cathode; and flexible packaging (140, 150) surrounding said anode, said cathode, said cathode collector and said electrolyte, wherein said anode extends through said packaging along said first vector, and said cathode collector extends through said packaging along said second vector.
A catheter comprising a catheter shaft having a proximal end and a distal end and at least one lumen extending at least partially therebetween, and further having a distal tip located at the distal end of said catheter, said distal tip having a curved shape when no external forces are applied, said catheter further having a device contained by a constraining sheath located near the distal tip, said constraining sheath being releasable by a pull line wherein said pull line is oriented to be substantially aligned with an inner meridian of the curved shape of the distal tip.
A liquid-stabilizing inliner for use in a tank container, comprising an inliner having an inliner wall made of a film material, wherein the inliner wall - is configured as a bag to define an interior space for storing a liquid; - has an opening for the entrance of the liquid into the interior space; - has an inner surface facing the interior space and an outer surface facing an exterior environment; characterized in that an inflatable unit is connected to the inliner, the inflatable unit comprising a film material that is configured as a bag to define an interior space for containing a gas. - is configured as a bag to define an interior space for storing a liquid; - has an opening for the entrance of the liquid into the interior space; - has an inner surface facing the interior space and an outer surface facing an exterior environment;
A negative electrode active material for an electrical device, comprising a Si-containing alloy having a composition to be represented by the following Chemical Formula: [Chemical Formula 1] Si x Sn y M z Al w A a wherein in Chemical Formula above, M is one or two or more transition metal elements selected from the group consisting of Ti, Zr, Ni, Cu, Mo, Nb, Sc, Co, Cr and Fe, A is an unavoidable impurity, and x, y, z, w, and a represent values of percentage by mass, wherein y, z, and w are 2 ≤ y ≤ 10, 25 ≤ z ≤ 35, and 0.3 ≤ w ≤ 3, respectively, and x + y + z + w + a = 100. M is one or two or more transition metal elements selected from the group consisting of Ti, Zr, Ni, Cu, Mo, Nb, Sc, Co, Cr and Fe, A is an unavoidable impurity, and x, y, z, w, and a represent values of percentage by mass, wherein y, z, and w are 2 ≤ y ≤ 10, 25 ≤ z ≤ 35, and 0.3 ≤ w ≤ 3, respectively, and x + y + z + w + a = 100.
A method of manufacture of a helical water-cooled Radio Frequency coil for a multi-driver RF based ion source, the method comprising the steps of: a) manufacturing a coiled tube using stainless steel grade as a substrate material to form a coil; b) coating the coiled tube consisting of a steel tube with a thin layer of copper having a thickness of 150 - 200 microns; and c) joining a plurality of coiled tubes produced by step (a) and step (b) by orbital TIG welding process. a) manufacturing a coiled tube using stainless steel grade as a substrate material to form a coil; b) coating the coiled tube consisting of a steel tube with a thin layer of copper having a thickness of 150 - 200 microns; and c) joining a plurality of coiled tubes produced by step (a) and step (b) by orbital TIG welding process.
A zinc-air secondary battery comprising: an air electrode serving as a positive electrode; a negative electrode comprising zinc, a zinc alloy, and/or a zinc compound; an aqueous electrolytic solution, the negative electrode being immersed in the aqueous electrolytic solution; a container having an opening and accommodating the negative electrode and the electrolytic solution; and a separator disposed to cover the opening and having hydroxide ion conductivity, water impermeability, and gas impermeability, the separator being in contact with the electrolytic solution and defining a hermetic space with the container such that the air electrode is separated from the electrolytic solution by the separator through which hydroxide ions pass, wherein the hermetic space has an extra space having a volume that meets a variation in amount of water in association with reaction at the negative electrode during charge and discharge of the battery, the separator is vertically disposed so that the air electrode, the separator, the electrolytic solution and the negative electrode are arranged horizontally, the hermetic space has the extra space in its upper portion, the zinc-air secondary battery further comprises a third electrode in the container, wherein the third electrode is disposed to be in contact with the electrolytic solution, but not in contact with the negative electrode, and the third electrode is connected to the air electrode via an external circuit, and the third electrode is disposed in the extra space. an air electrode serving as a positive electrode; a negative electrode comprising zinc, a zinc alloy, and/or a zinc compound; an aqueous electrolytic solution, the negative electrode being immersed in the aqueous electrolytic solution; a container having an opening and accommodating the negative electrode and the electrolytic solution; and a separator disposed to cover the opening and having hydroxide ion conductivity, water impermeability, and gas impermeability, the separator being in contact with the electrolytic solution and defining a hermetic space with the container such that the air electrode is separated from the electrolytic solution by the separator through which hydroxide ions pass, wherein the hermetic space has an extra space having a volume that meets a variation in amount of water in association with reaction at the negative electrode during charge and discharge of the battery, the separator is vertically disposed so that the air electrode, the separator, the electrolytic solution and the negative electrode are arranged horizontally, the hermetic space has the extra space in its upper portion, the zinc-air secondary battery further comprises a third electrode in the container, wherein the third electrode is disposed to be in contact with the electrolytic solution, but not in contact with the negative electrode, and the third electrode is connected to the air electrode via an external circuit, and the third electrode is disposed in the extra space.
A mechanical vibrator for vibrating screens or other equipment, comprising: a bearing housing to be affixed to a side wall of the equipment and carrying, internally and symmetrically to a center line, a pair of bearings; a shaft supported by the pair of bearings and having an inner end portion and an outer end portion projecting outwardly from the bearing housing, wherein the inner end portion and the outer end portion of the shaft respectively affix a first counterweight and a second counterweight having respective first and second eccentric masses (M1, M2) of different values and presenting respective first and second radial extensions (R1, R2) and first and second distances (L1, L2) to the center line of the bearing housing, which are dimensioned so that said first and second counterweights (70, 80) generate equal loads on the bearings and balance of bending moments on the side wall of the equipment, characterized in that said second counterweight selectively and removably attaching a third counterweight presenting a third eccentric mass, which is maintained aligned with the center line of the bearing housing to provide a respective variation of the total eccentric mass of the vibrator, without changing the balance of the distribution of loads on the bearings.
Device for producing three-dimensional objects by selectively solidifying a construction material applied in layers by means of a beam acting on the construction material, having at least one process chamber, which has at least one construction platform arranged in an XY-plane, on which construction platform the three-dimensional object is generated, having a radiation source for generating the beam and at least one beam guiding element for guiding and deflecting the beam onto the construction material to be solidified and having a process support device, which is displaceable above the construction platform at least in the direction of the XY-plane, characterised in that the process support device has a first and second module (25, 26) having a beam guiding section arranged to be lying in between for the beam directed onto the construction platform, and each module (25, 26) has at least one application device for releasing construction material and a monitoring device having at least one sensor element, wherein the monitoring device is arranged for detecting the applied and solidified layer of the construction material.
Electrical device, in particular converter, having a housing part and a switching unit, wherein a rotary knob for actuating a switching unit is connected to a connecting part for conjoint rotation, wherein the connecting part is connected to the switching unit for conjoint rotation, wherein the rotary knob is rotatably mounted on a housing part, wherein the connecting part has a disc-like portion which presses a sealing ring against the housing part, characterized in that the connecting part is connected to the rotary knob in a latched manner by means of a latching lug, wherein the connecting part is connected for conjoint rotation in a receiving recess of the switching unit, in particular for actuating the switching unit, wherein, for the purpose of connection to the switching unit for conjoint rotation, the connecting part has a polygonal portion, cross-shaped portion or eccentrically shaped portion which is at least partially inserted into the receiving recess of the switching unit, wherein the sealing ring is arranged axially between the latching lug and the disc-like portion, wherein a radial extent of the disc-like portion has a maximum as a function of the circumferential angle, which in particular is used as an assembly indicator aid. wherein a rotary knob for actuating a switching unit is connected to a connecting part for conjoint rotation, wherein the connecting part is connected to the switching unit for conjoint rotation, wherein the rotary knob is rotatably mounted on a housing part, wherein the connecting part has a disc-like portion which presses a sealing ring against the housing part, characterized in that the connecting part is connected to the rotary knob in a latched manner by means of a latching lug, wherein the connecting part is connected for conjoint rotation in a receiving recess of the switching unit, in particular for actuating the switching unit, wherein, for the purpose of connection to the switching unit for conjoint rotation, the connecting part has a polygonal portion, cross-shaped portion or eccentrically shaped portion which is at least partially inserted into the receiving recess of the switching unit, wherein the sealing ring is arranged axially between the latching lug and the disc-like portion, wherein a radial extent of the disc-like portion has a maximum as a function of the circumferential angle, which in particular is used as an assembly indicator aid.