mhurhangee/ep-ind-claims huggingface dataset:
Method for oxidizing ferrous iron to ferric iron, comprising the steps of: - providing a liquid comprising said ferrous iron and a gas comprising an oxidizing agent, such as oxygen and/or chlorine; - providing two separate mixes, a first mix and a second mix, both mixes comprising said gas and said liquid; - bringing said separate mixes together in a turbulent manner, thereby obtaining a collided mix; and - keeping said collided mix at a temperature between 60% and 105% of a boiling temperature of said mix, expressed in degrees centigrade, and at a pressure higher than 60% of atmospheric pressure and lower than 30 bar, thereby obtaining the ferric iron. - providing a liquid comprising said ferrous iron and a gas comprising an oxidizing agent, such as oxygen and/or chlorine; - providing two separate mixes, a first mix and a second mix, both mixes comprising said gas and said liquid; - bringing said separate mixes together in a turbulent manner, thereby obtaining a collided mix; and - keeping said collided mix at a temperature between 60% and 105% of a boiling temperature of said mix, expressed in degrees centigrade, and at a pressure higher than 60% of atmospheric pressure and lower than 30 bar, thereby obtaining the ferric iron.
A method for swapping a low-state-of-charge first battery of a battery-to-be-swapped vehicle by a new second battery from a mobile battery swapping van, wherein the method comprises: moving the mobile battery swapping van to a battery swap position near the battery-to-be-swapped vehicle; connecting a positioning line of the mobile battery swapping van to a predetermined reference point of the battery-to-be-swapped vehicle; obtaining a distance between a coordinate origin of a hoister of the mobile battery swapping van and the reference point of the battery-to-be-swapped vehicle, and angles of the positioning line with respect to a travel direction (x), a longitudinal direction (y), and a vertical direction (z), respectively, of the battery-to-be-swapped vehicle; determining, based on the obtained distance and angles, a moving track of an end effector of the hoister, which is adapted to clamp the first battery and the second battery; correcting the moving track of the end effector of the hoister based on an image of a mounting location, wherein the image of the mounting location is an image of a location of the second battery with respect to the battery-to-be-swapped vehicle and is obtained by an imaging device; and moving the end effector of the hoister along the moving track for replacing the first battery of the battery-to-be-swapped vehicle with the second battery. moving the mobile battery swapping van to a battery swap position near the battery-to-be-swapped vehicle; connecting a positioning line of the mobile battery swapping van to a predetermined reference point of the battery-to-be-swapped vehicle; obtaining a distance between a coordinate origin of a hoister of the mobile battery swapping van and the reference point of the battery-to-be-swapped vehicle, and angles of the positioning line with respect to a travel direction (x), a longitudinal direction (y), and a vertical direction (z), respectively, of the battery-to-be-swapped vehicle; determining, based on the obtained distance and angles, a moving track of an end effector of the hoister, which is adapted to clamp the first battery and the second battery; correcting the moving track of the end effector of the hoister based on an image of a mounting location, wherein the image of the mounting location is an image of a location of the second battery with respect to the battery-to-be-swapped vehicle and is obtained by an imaging device; and moving the end effector of the hoister along the moving track for replacing the first battery of the battery-to-be-swapped vehicle with the second battery.
A system comprising: a measuring instrument for measuring chosen characteristics of a fluid medium contained in a pipe or container, the measuring instrument comprising: an elongated member; a first surface being in contact with said fluid medium when measuring the chosen characteristics of said fluid medium; said first surface being positioned on one end defining a probe head of said elongated member, wherein said elongated member is adapter to extend through a wall of said pipe or container into said fluid medium; another end of said elongated member opposite the end defining the probe head being adapted to be positioned outside said wall; the system comprising a cleaning system for removing deposits from the measuring instrument comprising an acoustical transducer positioned on said other end of said elongated member, wherein said acoustic transducer is acoustically coupled to the elongated member so as to be able to couple acoustic energy thereto, the acoustic energy propagating in said member to said first surface, wherein the probe head is provided with a gauge located in operational contact behind the first surface through which the characteristics can be measured, wherein the gauge is arranged to be acoustically insulated from the first surface, wherein a signal transmitter for transmitting measurement signals from the gauge out of the system for further processing is arranged coaxially inside the elongated member and at least partially acoustically insulated from said elongated member. an elongated member; a first surface being in contact with said fluid medium when measuring the chosen characteristics of said fluid medium; said first surface being positioned on one end defining a probe head of said elongated member, wherein said elongated member is adapter to extend through a wall of said pipe or container into said fluid medium; another end of said elongated member opposite the end defining the probe head being adapted to be positioned outside said wall; the system comprising a cleaning system for removing deposits from the measuring instrument comprising an acoustical transducer positioned on said other end of said elongated member, wherein said acoustic transducer is acoustically coupled to the elongated member so as to be able to couple acoustic energy thereto, the acoustic energy propagating in said member to said first surface, wherein the probe head is provided with a gauge located in operational contact behind the first surface through which the characteristics can be measured, wherein the gauge is arranged to be acoustically insulated from the first surface, wherein a signal transmitter for transmitting measurement signals from the gauge out of the system for further processing is arranged coaxially inside the elongated member and at least partially acoustically insulated from said elongated member.
A powder bed additive manufacturing machine comprising a body; a table which is located on the body and allows powders to be laid thereon by means of a laying apparatus; a layer which is created by sintering or fusing the powders laid on the table; a part which is produced by depositing the layers on top of each other using additive manufacturing method; and at least one heat source which is located on the body and applies heat treatment to the powders laid on the table, characterized by a floor on which the body is located; at least one motor located between the floor and the table and enabling movement of the table; a coating located on the table such that the coating is between the motor and the table, wherein said coating made of an insulating material to prevent transfer of heat of the table to the surroundings of the table, wherein said coating surrounds a surface of the table facing the floor; and a paste which is located between the motor and the coating and allows the motor to adhere to the table.
A non-volatile storage system, comprising: a monolithic three dimensional memory array of memory cells arranged in blocks (18; 19), the memory array includes gaps between blocks (18; 19); a plurality of word lines connected to the memory cells; a plurality of vertically oriented bit lines connected to the memory cells; a plurality of global bit lines; a plurality of select devices above and not in a substrate that are connected to the vertically oriented bit lines and the global bit lines and adapted to selectively put the vertically oriented bit lines in communication with the global bit lines; and a plurality of row select lines (SG 1; SG 2; SG 3; SG 4) connected to and for controlling the select devices; characterised by: the plurality of select devices being vertically oriented; and further comprising row select line drivers that are connected to and adapted to drive the row select lines, each row select line driver includes multiple components (1102; 1104; 1106) that are distributed in regions of the substrate underneath different gaps between blocks (18; 19). a monolithic three dimensional memory array of memory cells arranged in blocks (18; 19), the memory array includes gaps between blocks (18; 19); a plurality of word lines connected to the memory cells; a plurality of vertically oriented bit lines connected to the memory cells; a plurality of global bit lines; a plurality of select devices above and not in a substrate that are connected to the vertically oriented bit lines and the global bit lines and adapted to selectively put the vertically oriented bit lines in communication with the global bit lines; and a plurality of row select lines (SG 1; SG 2; SG 3; SG 4) connected to and for controlling the select devices; characterised by: the plurality of select devices being vertically oriented; and further comprising row select line drivers that are connected to and adapted to drive the row select lines, each row select line driver includes multiple components (1102; 1104; 1106) that are distributed in regions of the substrate underneath different gaps between blocks (18; 19). the plurality of select devices being vertically oriented; and further comprising row select line drivers that are connected to and adapted to drive the row select lines, each row select line driver includes multiple components (1102; 1104; 1106) that are distributed in regions of the substrate underneath different gaps between blocks (18; 19).
A liquid chromatography column assembly comprising: a column tube having a first opening and a second opening at substantially opposite ends; a snap fit end cap that encloses the first opening and snap fits onto the corresponding column tube end; and an adaptor shaft inserted into the column from the first opening wherein the snap fit end cap has an internal thread and the adaptor shaft has a complementary thread, whereby the adaptor shaft is screwed into the snap fit end cap. a column tube having a first opening and a second opening at substantially opposite ends; a snap fit end cap that encloses the first opening and snap fits onto the corresponding column tube end; and an adaptor shaft inserted into the column from the first opening wherein the snap fit end cap has an internal thread and the adaptor shaft has a complementary thread, whereby the adaptor shaft is screwed into the snap fit end cap.
Expanded particles comprising a polycarbonate-based resin having an aromatic skeleton as a base resin, wherein when an average cell diameter of said expanded particles is divided by a bulk ratio of said expanded particles, said expanded particles have a value within a range of 3.0 to 10.0 μm/times, and said expanded particles have a bulk ratio of 2 to 20 times, an average cell diameter of 20 to 200 μm, and an open cell rate of 0 to 10%, wherein the average cell diameter, the bulk ratio and the open cell rate are determined as indicated in the description. wherein when an average cell diameter of said expanded particles is divided by a bulk ratio of said expanded particles, said expanded particles have a value within a range of 3.0 to 10.0 μm/times, and said expanded particles have a bulk ratio of 2 to 20 times, an average cell diameter of 20 to 200 μm, and an open cell rate of 0 to 10%, wherein the average cell diameter, the bulk ratio and the open cell rate are determined as indicated in the description.
Structure for a motor vehicle, comprising a front bulkhead (1, 21) and a bodyshell floor fitted with a tunnel, the bulkhead (1, 21) comprising a lower edge, an upper edge and two lateral sides (6a, 6b) having solid portions incorporating the shape of wheel arches (10a, 10b), the lower and upper edges being continuous and substantially parallel, characterized in that the tunnel of the bodyshell floor is placed in contact with, but not passing through and with no cutout in, the bulkhead (1, 21) and defines therewith a junction zone, forming part of an inclined second surface of the bulkhead (1, 21), and arranged to the rear of a substantially vertical first surface of the bulkhead, when the bulkhead (1, 21) is mounted in the vehicle, the second surface in its central part having a recess forming a closed hollow body, designed to house the front end of the tunnel, the bulkhead being produced as a pressing using deep-drawing of a metal sheet.
A containment system for a substance in liquid or particulate form, said system comprising juxtaposed collection containers (R1, R2, R3) and at least one connection bracket having locking elements (E1, E2), wherein each container has a polygonal plan and comprises: - a support base confined by edges; - side walls; and - a grill, present on the opposite side to the support base and resting on the walls; characterized in that the bracket comprises a flattened base; and locking means comprising at least two locking elements (E1, E2), protruding from two respective ends of the base, in which said support base presents on its outer surface at least one groove that comes out on at least one edge of the support base, said groove having at least one indented housing having a plan shape equal to that of the locking elements (E1, E2), in which said housing is in proximity to one of said edges and in which said bracket has said first locking element inserted into the housing of a first container and said second locking element inserted into the housing of a second container. - a support base confined by edges; - side walls; and - a grill, present on the opposite side to the support base and resting on the walls; characterized in that the bracket comprises a flattened base; and locking means comprising at least two locking elements (E1, E2), protruding from two respective ends of the base, in which said support base presents on its outer surface at least one groove that comes out on at least one edge of the support base, said groove having at least one indented housing having a plan shape equal to that of the locking elements (E1, E2), in which said housing is in proximity to one of said edges and in which said bracket has said first locking element inserted into the housing of a first container and said second locking element inserted into the housing of a second container.
A process for removing sulfur and moisture from a synthesis gas stream, comprising the steps of: (a) providing at least two reactors that operate in parallel, wherein each reactor comprises a self-contained, fluidized bed of an initial sorbent capable of removing sulfur and moisture; (b) contacting a wet sulfur-laden input gas stream with the self-contained, fluidized bed of the initial sorbent of step (a) in one of said reactors, thereby producing a dried sulfur-depleted product gas stream and a wet sulfur-laden sorbent; (c) discontinuing the flow of said input gas stream into said one of the reactors, then contacting the self-contained, fluidized bed of the wet sulfur-laden sorbent with an inert purge gas, thereby removing at least a portion of the moisture from the wet sulfur-laden sorbent and producing a dried sulfur-laden sorbent; and (d) contacting the self-contained, fluidized bed of the resultant dried sulfur-laden sorbent with an oxygen-containing regeneration gas stream, thereby producing a regenerated sorbent and an off-gas stream. (a) providing at least two reactors that operate in parallel, wherein each reactor comprises a self-contained, fluidized bed of an initial sorbent capable of removing sulfur and moisture; (b) contacting a wet sulfur-laden input gas stream with the self-contained, fluidized bed of the initial sorbent of step (a) in one of said reactors, thereby producing a dried sulfur-depleted product gas stream and a wet sulfur-laden sorbent; (c) discontinuing the flow of said input gas stream into said one of the reactors, then contacting the self-contained, fluidized bed of the wet sulfur-laden sorbent with an inert purge gas, thereby removing at least a portion of the moisture from the wet sulfur-laden sorbent and producing a dried sulfur-laden sorbent; and (d) contacting the self-contained, fluidized bed of the resultant dried sulfur-laden sorbent with an oxygen-containing regeneration gas stream, thereby producing a regenerated sorbent and an off-gas stream.
Structural concrete wall with thermal insulation comprising: - A first concrete layer of thickness between 80 mm and 200 mm depending on the required resistance, with a density between 2.4 tons/m3 and 1.2 tons/m 3, with a mechanical resistance in compression on standard EN normed cubes after 28 days > 20 MPa, (ranging from 20 to 60 MPa) and with thermal conductivity located between 2.2 and 0.2 W/m*k - A second self placing concrete layer, of thickness between 100 mm and 600 mm, depending on the required thermal insulation value of the whole wall, with a mechanical resistance from 0.1MPa to 10MPa, with a slump flow between 400 mm - 800 mm, with a thermal conductivity between 0.07 W/m*k and 0.2 W/m*k, with a density between 0.3 tons/m 3 and 1 ton/m 3, and with air content between 30% to 60%, and - a non-woven fabric located between the first concrete layer and the second concrete layer comprising fibers made of polyamide or natural fibers with a phenolic resin as a binder of the lattice, having the non-woven fabric a density between 40 and 200 Kg/m3 and a thickness above 3 mm, more likely between 3mm and 30 mm which remains impermeable to both concretes layers, first and second, so that the core of the non-woven fabric remains free from any of the two concrete layers, preferably, the minimum section of the non-woven fabric free from concrete layers is around 1 mm to 2 mm, so that the first concrete layer provides structural properties and the second concrete layer provides thermal properties giving an insulation value of the wall located between 0.2 to 0.5 W/m2K - A first concrete layer of thickness between 80 mm and 200 mm depending on the required resistance, with a density between 2.4 tons/m3 and 1.2 tons/m 3, with a mechanical resistance in compression on standard EN normed cubes after 28 days > 20 MPa, (ranging from 20 to 60 MPa) and with thermal conductivity located between 2.2 and 0.2 W/m*k - A second self placing concrete layer, of thickness between 100 mm and 600 mm, depending on the required thermal insulation value of the whole wall, with a mechanical resistance from 0.1MPa to 10MPa, with a slump flow between 400 mm - 800 mm, with a thermal conductivity between 0.07 W/m*k and 0.2 W/m*k, with a density between 0.3 tons/m 3 and 1 ton/m 3, and with air content between 30% to 60%, and - a non-woven fabric located between the first concrete layer and the second concrete layer comprising fibers made of polyamide or natural fibers with a phenolic resin as a binder of the lattice, having the non-woven fabric a density between 40 and 200 Kg/m3 and a thickness above 3 mm, more likely between 3mm and 30 mm which remains impermeable to both concretes layers, first and second, so that the core of the non-woven fabric remains free from any of the two concrete layers, preferably, the minimum section of the non-woven fabric free from concrete layers is around 1 mm to 2 mm,
A method for configuration of a secondary cellular network node for a secondary serving cell associated with a primary serving cell in a carrier aggregation enabled communications network (11a, 11b), the method being performed by the secondary cellular network node and comprising the steps of: receiving an indication from a primary cellular network node associated with the primary serving cell to start scanning an unlicensed frequency band for deployment of the secondary serving cell; scanning at least one unlicensed frequency band to determine whether or not interference from transmitting interferers is present in the at least one unlicensed frequency band; determining, based on said scanning and based on at least one of adjacent channel leakage ratio, ACLR, requirements, adjacent channel selectivity, ACS, requirements, bandwidth requirements, and throughput requirements for the secondary serving cell, at least one frequency interval of said at least one unlicensed frequency band free from said transmitting interferers; transmitting first configuration information of said determined at least one frequency interval to said primary cellular network node; and deploying the secondary serving cell by configuring the secondary cellular network node for transmission in one of said determined at least one frequency interval according to second configuration information being based on said first configuration information. receiving an indication from a primary cellular network node associated with the primary serving cell to start scanning an unlicensed frequency band for deployment of the secondary serving cell; scanning at least one unlicensed frequency band to determine whether or not interference from transmitting interferers is present in the at least one unlicensed frequency band; determining, based on said scanning and based on at least one of adjacent channel leakage ratio, ACLR, requirements, adjacent channel selectivity, ACS, requirements, bandwidth requirements, and throughput requirements for the secondary serving cell, at least one frequency interval of said at least one unlicensed frequency band free from said transmitting interferers; transmitting first configuration information of said determined at least one frequency interval to said primary cellular network node; and deploying the secondary serving cell by configuring the secondary cellular network node for transmission in one of said determined at least one frequency interval according to second configuration information being based on said first configuration information.
A device management scheduling method in a terminal comprising: scheduling a device management by setting a device management command and a condition to execute the device management command; monitoring whether the condition is satisfied together with an on/off state of power; and executing the scheduled device management command according to the result of the monitoring, wherein in the step of scheduling, a certain time interval to execute the device management command is set as the condition, characterized by in the step of executing, when it is monitored that the power-off command has been received from the user even before the certain time interval, the scheduled device management command is executed. scheduling a device management by setting a device management command and a condition to execute the device management command; monitoring whether the condition is satisfied together with an on/off state of power; and executing the scheduled device management command according to the result of the monitoring, wherein in the step of scheduling, a certain time interval to execute the device management command is set as the condition, characterized by in the step of executing, when it is monitored that the power-off command has been received from the user even before the certain time interval, the scheduled device management command is executed.