mhurhangee/ep-ind-claims huggingface dataset:
A preassembled transformer substation comprising - a plurality of strip-shaped assembling modules, - a plurality of wall corner modules, - connectors located between adjacent strip-shaped assembling modules and between the wall corner modules and adjacent strip-shaped assembling modules, - a wall body which is made from the plurality of strip-shaped assembling modules, - a roof, which is made of other strip-shaped assembling modules, characterized by - a door comprising a door body fixed at the wall body with hinges, wherein the door body is made of strip-shaped assembling modules, - a ridge, being located at a middle of the roof, wherein the roof of the preassembled transformer substation is formed by the other strip-shaped assembling modules together with the ridge and the connectors, wherein the other strip-shaped assembling modules are disposed on both sides of the ridge and have a first end connected with the ridge and a second end which is parallel to the first end and is inclined downward toward the wall body so as to form the roof which has an high portion close to the ridge and two lower portions close to second end portions of the assembling modules, wherein the roof and the wall body are connected by a ridge support metal part installed below the ridge, a top rail and a roof wall body metal connector, wherein the roof wall body metal connector connects, the ridge support metal part and the top rail, wherein the wall body, the door body, the top rail, the roof, the plurality of wall corner modules, the connectors and the ridge are made by pultrusion profiles of insulating material, wherein the insulating material is plastic or glasfiber reinforced Polyester, wherein the wall body, the roof, and the door body are made in double layer insulating material with approximately 40 millimeter air distance between each layer, and wherein the hinges of the door have fixation flanges being arranged in parallel and inside a space between an edge of the door body and an edge of the wall body. - a plurality of strip-shaped assembling modules, - a plurality of wall corner modules, - connectors located between adjacent strip-shaped assembling modules and between the wall corner modules and adjacent strip-shaped assembling modules, - a wall body which is made from the plurality of strip-shaped assembling modules, - a roof, which is made of other strip-shaped assembling modules, - a door comprising a door body fixed at the wall body with hinges, wherein the door body is made of strip-shaped assembling modules, - a ridge, being located at a middle of the roof, wherein the roof of the preassembled transformer substation is formed by the other strip-shaped assembling modules together with the ridge and the connectors, wherein the other strip-shaped assembling modules are disposed on both sides of the ridge and have a first end connected with the ridge and a second end which is parallel to the first end and is inclined downward toward the wall body so as to form the roof which has an high portion close to the ridge and two lower portions close to second end portions of the assembling modules,
A method for monitoring clearance of different articulations present on a vehicle axle system, characterized by the following steps, taken in combination: - the vehicle is positioned such that it no longer rests on its wheels and the effect of the suspension springs or torsion bars of the suspensions is cancelled, - then, for each of the articulations, - a comparator is placed on the articulation which is to be measured or on an element linked rigidly to the articulation, so as to measure the clearance of the latter, - a tool is put in position, catching in grippers a portion of the piece of the axle system on which the articulation is integrally mounted, and comprising an end portion forming a connection interface suited to receive a tool for application of a mechanical torque sufficient to measure the value of the clearance of said articulation, - a torque wrench is housed in the end portion of the tool, - with the aid of the torque wrench a mechanical torque of predetermined value is applied on said portion of piece of the axle system, - the value ("j") is read of the clearance of the articulation on the comparator, and - this value ("j") is compared to a predefined conformity threshold value ("J"), the articulation being declared in conformity if said value of the clearance ("j") is less than said threshold value ("J"). - the vehicle is positioned such that it no longer rests on its wheels and the effect of the suspension springs or torsion bars of the suspensions is cancelled, - then, for each of the articulations, - a comparator is placed on the articulation which is to be measured or on an element linked rigidly to the articulation, so as to measure the clearance of the latter, - a tool is put in position, catching in grippers a portion of the piece of the axle system on which the articulation is integrally mounted, and comprising an end portion forming a connection interface suited to receive a tool for application of a mechanical torque sufficient to measure the value of the clearance of said articulation, - a torque wrench is housed in the end portion of the tool, - with the aid of the torque wrench a mechanical torque of predetermined value is applied on said portion of piece of the axle system, - the value ("j") is read of the clearance of the articulation on the comparator, and - this value ("j") is compared to a predefined conformity threshold value ("J"), the articulation being declared in conformity if said value of the clearance ("j") is less than said threshold value ("J").
A method for monitoring the subsoil of the earth under a target zone, characterized in that the target zone is a railroad track or a road or another civil engineering structure, or a building, and in that the method comprises the following steps: recording seismic waves coming from an identified and mobile source of seismic noise, using at least one pair (220, 221) of sensors, which are arranged on both sides of said target zone, the source moving outside the segment formed by the arrangement of said at least one pair of sensors (220, 221); selecting periods of time corresponding to the alignments of said at least one pair (220, 221) of sensors with said noise source; reconstructing a seismogram of the target zone by interferometry based on said recorded seismic waves and the selected periods of time; and generating an image of the subsoil under the target zone using said seismogram. recording seismic waves coming from an identified and mobile source of seismic noise, using at least one pair (220, 221) of sensors, which are arranged on both sides of said target zone, the source moving outside the segment formed by the arrangement of said at least one pair of sensors (220, 221); selecting periods of time corresponding to the alignments of said at least one pair (220, 221) of sensors with said noise source; reconstructing a seismogram of the target zone by interferometry based on said recorded seismic waves and the selected periods of time; and generating an image of the subsoil under the target zone using said seismogram.
A cup holder arrangement comprising: a storage compartment for storage of items; and a holder member comprising a frame configured to receive and support a cup in an opening of said frame, said holder member being rotatably attached to said storage compartment, characterised in that the holding member is attached so as to be rotatable between an upright position where a cup may be received in said opening and a sideway position where said opening is facing sideways, and when said holder member is in the sideway position, said storage compartment is divided by said holder member into two storage sub-compartments (202, 204). a storage compartment for storage of items; and a holder member comprising a frame configured to receive and support a cup in an opening of said frame, said holder member being rotatably attached to said storage compartment, characterised in that the holding member is attached so as to be rotatable between an upright position where a cup may be received in said opening and a sideway position where said opening is facing sideways, and when said holder member is in the sideway position, said storage compartment is divided by said holder member into two storage sub-compartments (202, 204).
Folded box for pulverulent substances with a bottom part and a lid, characterized in that the lower part has a strut in its upper region and that the strut is formed as a scraping edge, wherefore the bottom part has two tabs (18, 19), which are bonded by an adhesive point.
A thermo-analytical instrument, comprising: a first thermal substrate adapted to provide a substantially uniform temperature across a surface of the first thermal substrate;; a temperature control module in thermal communication with the first thermal substrate to control a temperature thereof; and a plurality of second thermal substrates in thermal communication with the surface of the first thermal substrate,, each of the second thermal substrates adapted to provide a substantially uniform temperature across a surface of the second thermal substrate, each of the second thermal substrates configured to receive a reference cell and a sample cell. a first thermal substrate adapted to provide a substantially uniform temperature across a surface of the first thermal substrate;; a temperature control module in thermal communication with the first thermal substrate to control a temperature thereof; and a plurality of second thermal substrates in thermal communication with the surface of the first thermal substrate,, each of the second thermal substrates adapted to provide a substantially uniform temperature across a surface of the second thermal substrate, each of the second thermal substrates configured to receive a reference cell and a sample cell.
Optical arrangement, suitable for generating a light sheet or light beam, comprising: a first lens group which comprises, arranged in a beam direction along an optical axis: a first meso-optical element, a phase-shifting element and a second meso-optical element, wherein the first and second meso-optical elements (101, 103) are selected from a Powell lens, an axicon and a diffractive element, and wherein the first and second meso-optical elements (101, 103) are positioned along the optical axis in such a way that non-Gaussian beams generated by these elements overlap in such a way that the undesired secondary maxima disappear as a result of interference and only the main maxima remain. a first lens group which comprises, arranged in a beam direction along an optical axis: a first meso-optical element, a phase-shifting element and a second meso-optical element, a first meso-optical element, a phase-shifting element and a second meso-optical element, wherein the first and second meso-optical elements (101, 103) are selected from a Powell lens, an axicon and a diffractive element, and wherein the first and second meso-optical elements (101, 103) are positioned along the optical axis in such a way that non-Gaussian beams generated by these elements overlap in such a way that the undesired secondary maxima disappear as a result of interference and only the main maxima remain.
A polyolefin reactor system (10, 20) comprising: two loop slurry reactors disposed in series (50A, 50B), a diluent separator, and a diluent feed stream (104, 58B), wherein the first reactor is configured to produce a first reactor discharge comprising a diluent and a first polyolefin; the diluent separator is configured to receive at least a portion of the first reactor discharge and to form a diluent recycle stream comprising diluent and a separator product stream comprising diluent and the first polyolefin, and wherein the diluent separator is a hydrocyclone; the second reactor is configured to receive the diluent separator product stream and to produce a second reactor discharge comprising a second polyolefin; and the diluent feed stream (104, 58B) is configured to introduce fresh diluent to at least one of the diluent separator, the diluent separator product stream, or the second reactor, such that the second reactor, in use, has a lower hydrogen content than the first reactor. two loop slurry reactors disposed in series (50A, 50B), a diluent separator, and a diluent feed stream (104, 58B), wherein the first reactor is configured to produce a first reactor discharge comprising a diluent and a first polyolefin; the diluent separator is configured to receive at least a portion of the first reactor discharge and to form a diluent recycle stream comprising diluent and a separator product stream comprising diluent and the first polyolefin, and wherein the diluent separator is a hydrocyclone; the second reactor is configured to receive the diluent separator product stream and to produce a second reactor discharge comprising a second polyolefin; and the diluent feed stream (104, 58B) is configured to introduce fresh diluent to at least one of the diluent separator, the diluent separator product stream, or the second reactor, such that the second reactor, in use, has a lower hydrogen content than the first reactor.
A lithium battery comprising: a cathode; an anode; and an electrolyte between the cathode and the anode, wherein the cathode includes a cathode active material represented by Formula 1, and the electrolyte includes a lithium salt, a non-aqueous solvent, and a diallyl compound represented by Formula 2: <Formula 1> Li x Ni y M 1-y O 2-z A z wherein 0.9≤x≤1.2, 0.7≤y≤0.98, and 0≤z<0.2 are satisfied, M is at least one element selected from Al, Mg, Mn, Co, Fe, Cr, V, Ti, Cu, B, Ca, Zn, Zr, Nb, Mo, Sr, Sb, W, and Bi, and A is an element having an oxidation number of -1, -2, or -3; and wherein L 1 and L 2 are each independently selected from a single bond, a C 1- C 20 alkylene group, and a substituted or unsubstituted C 2 -C 20 alkenylene group, A 1 is -NH- or -Si(R 1)(R 2)-, and R 1 and R 2 are each independently selected from a hydrogen atom, a substituted or unsubstituted linear or branched C 1 -C 30 alkyl group, a substituted or unsubstituted C 2 -C 20 alkenyl group, and a substituted or unsubstituted C 6 -C 60 aryl group. a cathode; an anode; and an electrolyte between the cathode and the anode, wherein the cathode includes a cathode active material represented by Formula 1, and the electrolyte includes a lithium salt, a non-aqueous solvent, and a diallyl compound represented by Formula 2: <Formula 1> Li x Ni y M 1-y O 2-z A z wherein 0.9≤x≤1.2, 0.7≤y≤0.98, and 0≤z<0.2 are satisfied, M is at least one element selected from Al, Mg, Mn, Co, Fe, Cr, V, Ti, Cu, B, Ca, Zn, Zr, Nb, Mo, Sr, Sb, W, and Bi, and A is an element having an oxidation number of -1, -2, or -3; and wherein L 1 and L 2 are each independently selected from a single bond, a C 1- C 20 alkylene group, and a substituted or unsubstituted C 2 -C 20 alkenylene group, A 1 is -NH- or -Si(R 1)(R 2)-, and R 1 and R 2 are each independently selected from a hydrogen atom, a substituted or unsubstituted linear or branched C 1 -C 30 alkyl group, a substituted or unsubstituted C 2 -C 20 alkenyl group, and a substituted or unsubstituted C 6 -C 60 aryl group.
A piezoelectric inertia actuator, comprising: at least one actuator body; at least one coupling body defining a receiver; at least one lock body configured to be positioned within the receiver formed in the coupling body; at least one piezo body coupled to the coupling body; at least one flexible frame coupled to and extending from the piezo body; at least one engaging body in communication with the piezo body via the flexible frame; and at least one spring blade extending from the actuator body, the spring blade configured to selectively apply a preload biasing force to at least one of the flexible frame and the engaging body. at least one actuator body; at least one coupling body defining a receiver; at least one lock body configured to be positioned within the receiver formed in the coupling body; at least one piezo body coupled to the coupling body; at least one flexible frame coupled to and extending from the piezo body; at least one engaging body in communication with the piezo body via the flexible frame; and at least one spring blade extending from the actuator body, the spring blade configured to selectively apply a preload biasing force to at least one of the flexible frame and the engaging body.
A water filtering device equipped with a water level adjustment unit, comprising an external air inlet through which dust-containing air flows in, a dust separation portion communicating with the external air inlet and separating dust in the inflow air, exhaust outlets communicating with the dust separation portion and discharging the air from which the dust has been separated, a dust container portion communicating with the dust separation portion and being filled with water, and the water level adjustment unit installed in the dust container portion to adjust the level of the water in the dust container portion, wherein the water level adjustment unit includes: a supercharged water drainage tube installed on a bottom of the dust container portion; and a manual opening/closing means for selectively adjusting the level of the water through the supercharged water drainage tube, characterized in that the supercharged water drainage tube is a tube which is penetrated on both ends, and is provided with one end projecting from the bottom surface of the inner side of the dust container portion with an appropriate height. a supercharged water drainage tube installed on a bottom of the dust container portion; and a manual opening/closing means for selectively adjusting the level of the water through the supercharged water drainage tube, characterized in that the supercharged water drainage tube is a tube which is penetrated on both ends, and is provided with one end projecting from the bottom surface of the inner side of the dust container portion with an appropriate height.
A system for laying pipe (104, 106, 108), comprising: a conveyor configured to receive a plurality of pipes (104, 106, 108); and a plurality of friction stir welding, FSW, machines (110, 112, 114) configured to connect the one or more pipes (104, 106, 108) to a pipeline deployed toward a sea floor, wherein at least one of the plurality of FSW machines is configured to connect together two of the plurality of pipes, and wherein at least one of the FSW machines is configured to connect one of the plurality of pipes to the pipeline, and wherein the FSW machines (110, 112, 114) are all configured to move between a common starting point and a common end point along a circuit. a conveyor configured to receive a plurality of pipes (104, 106, 108); and a plurality of friction stir welding, FSW, machines (110, 112, 114) configured to connect the one or more pipes (104, 106, 108) to a pipeline deployed toward a sea floor, wherein at least one of the plurality of FSW machines is configured to connect together two of the plurality of pipes, and wherein at least one of the FSW machines is configured to connect one of the plurality of pipes to the pipeline, and wherein the FSW machines (110, 112, 114) are all configured to move between a common starting point and a common end point along a circuit.
An optical probe comprising: an optical fiber configured to carry light for scanning a target, the light entering from a light source; a lens configured to focus the light entered into the optical fiber; and a wavefront modulator having a pattern formed therein, the pattern configured to modulate a wavefront of the light entered into the optical fiber, characterised in that the pattern formed in the wavefront modulator comprises a plurality of annular regions, the plurality of annular regions include: a first annular region; a second annular region radially separated from the first annular region; and a third annular region arranged between the first annular region and the second annular region; and wherein the optical fiber, the lens, and the midpoint of the first annular region are arranged along a common axis, the probe being configured such that the light having passed through the wavefront modulator can form a focus on the common axis, and a resolution or a focal depth of the light is adjustable according to a design of the pattern formed in the wavefront modulator. an optical fiber configured to carry light for scanning a target, the light entering from a light source; a lens configured to focus the light entered into the optical fiber; and a wavefront modulator having a pattern formed therein, the pattern configured to modulate a wavefront of the light entered into the optical fiber, characterised in that the pattern formed in the wavefront modulator comprises a plurality of annular regions, the plurality of annular regions include: a first annular region; a second annular region radially separated from the first annular region; and a third annular region arranged between the first annular region and the second annular region; and wherein the optical fiber, the lens, and the midpoint of the first annular region are arranged along a common axis, the probe being configured such that the light having passed through the wavefront modulator can form a focus on the common axis, and a resolution or a focal depth of the light is adjustable according to a design of the pattern formed in the wavefront modulator.
A passive mode locked optical comb frequency source comprising: an optical cavity (9,9a) having an optical driver and an optical output to provide an optical comb; an absorbing element coupled to said optical cavity for producing said optical comb; and characterised by: an optically or electrically controllable element in said optical cavity; and wherein said optically or electrically controllable element has an optically or electrically controllable refractive index such that said refractive index is variable to vary one or both of a mode spacing and a carrier envelope offset frequency of said optical comb. an optical cavity (9,9a) having an optical driver and an optical output to provide an optical comb; an absorbing element coupled to said optical cavity for producing said optical comb; and characterised by: an optically or electrically controllable element in said optical cavity; and wherein said optically or electrically controllable element has an optically or electrically controllable refractive index such that said refractive index is variable to vary one or both of a mode spacing and a carrier envelope offset frequency of said optical comb. an optically or electrically controllable element in said optical cavity; and wherein said optically or electrically controllable element has an optically or electrically controllable refractive index such that said refractive index is variable to vary one or both of a mode spacing and a carrier envelope offset frequency of said optical comb.