mhurhangee/ep-ind-claims huggingface dataset:
A water purification agent, comprising: a granulated product, wherein the granulated product comprises a mixture of a plant powder and a polymer coagulant, characterized by a bulk specific gravity of the water purification agent of 0.4 g/cm 3 or greater, wherein the water purification agent is produced by a producing method that comprises: grinding a dried plant to obtain the plant powder having a number average particle diameter of 250 μm or less; and mixing the plant powder with the polymer coagulant, adding water to the plant powder and the polymer coagulant, kneading the plant powder and the polymer coagulant, and subjecting a resultant to extrusion granulation to obtain the granulated product. a granulated product, wherein the granulated product comprises a mixture of a plant powder and a polymer coagulant, characterized by a bulk specific gravity of the water purification agent of 0.4 g/cm 3 or greater, wherein the water purification agent is produced by a producing method that comprises: grinding a dried plant to obtain the plant powder having a number average particle diameter of 250 μm or less; and mixing the plant powder with the polymer coagulant, adding water to the plant powder and the polymer coagulant, kneading the plant powder and the polymer coagulant, and subjecting a resultant to extrusion granulation to obtain the granulated product. grinding a dried plant to obtain the plant powder having a number average particle diameter of 250 μm or less; and mixing the plant powder with the polymer coagulant, adding water to the plant powder and the polymer coagulant, kneading the plant powder and the polymer coagulant, and subjecting a resultant to extrusion granulation to obtain the granulated product.
An inductive filtering device comprising: - a magnetic core (12; 60), the material of which possessing electrically conductive properties, - at least one electrical cable wound around the magnetic core (12; 60) while forming at least one turn, the electrical cable being intended to convey an electrical signal possessing at least one undesirable AC component superposed on a fundamental frequency of the electrical signal, and - an electrically conductive screen (20; 42; 50; 52; 66) that is electrically insulated from its environment, the screen (20; 42; 50; 52; 66) being placed between the magnetic core (12; 60) and the electrical cable so as to allow, in the screen (20; 42; 50; 52; 66), via electromagnetic induction, a current to be generated the frequency of which is higher than the fundamental frequency, the screen (20; 42; 50; 52; 66) being configured so as not to allow a current to flow in the screen (20; 42; 50; 52; 66) in a direction parallel to that of the one or more turns formed by the winding of the electrical cable around the magnetic core. - a magnetic core (12; 60), the material of which possessing electrically conductive properties, - at least one electrical cable wound around the magnetic core (12; 60) while forming at least one turn, the electrical cable being intended to convey an electrical signal possessing at least one undesirable AC component superposed on a fundamental frequency of the electrical signal, and - an electrically conductive screen (20; 42; 50; 52; 66) that is electrically insulated from its environment, the screen (20; 42; 50; 52; 66) being placed between the magnetic core (12; 60) and the electrical cable so as to allow, in the screen (20; 42; 50; 52; 66), via electromagnetic induction, a current to be generated the frequency of which is higher than the fundamental frequency, the screen (20; 42; 50; 52; 66) being configured so as not to allow a current to flow in the screen (20; 42; 50; 52; 66) in a direction parallel to that of the one or more turns formed by the winding of the electrical cable around the magnetic core.
A drive train including: a prime mover having an output shaft; a CVT including an input flange associated to the output shaft of the prime mover and an output flange (26, 28); a power mixing assembly having a first input connected to the output shaft of the prime mover; a second input connected to the output flange (26, 28) of the CVT, and an output; and a high-low gear selection assembly having an input and an output defining the output of the drive train; the input of the high-low gear selection assembly being connectable to either the output flange (26, 28) of the CVT or to the output of the power mixing assembly Characterized in that the power mixing assembly -includes a planetary gear train provided with a planet carrier (36, 38, 40, 42) defining the first input connected to the output shaft of the prime mover; a sun gear defining the second input connected to the output flange of the CVT, a ring gear defining the output of the power mixing assembly and planet gears. a prime mover having an output shaft; a CVT including an input flange associated to the output shaft of the prime mover and an output flange (26, 28); a power mixing assembly having a first input connected to the output shaft of the prime mover; a second input connected to the output flange (26, 28) of the CVT, and an output; and a high-low gear selection assembly having an input and an output defining the output of the drive train; the input of the high-low gear selection assembly being connectable to either the output flange (26, 28) of the CVT or to the output of the power mixing assembly Characterized in that the power mixing assembly -includes a planetary gear train provided with a planet carrier (36, 38, 40, 42) defining the first input connected to the output shaft of the prime mover; a sun gear defining the second input connected to the output flange of the CVT, a ring gear defining the output of the power mixing assembly and planet gears.
A three-dimensional information presentation device comprising two light projecting means (P1, P2) for projecting light to a same spatial region, wherein light patterns (a1, b1, c1; a2, b2, c2) projected from the two projecting means (P1, P2) on an object surface are spatially coded so as to present three-dimensional information about the object surface; wherein the light patterns (a1, b1, c1; a2, b2, c2) projected from the two light projecting means (P1, P2) are spatially coded so as to present a distance perpendicular to a reference plane set in a three dimensional space, wherein light projected from the two light projecting means (P1, P2) is visible light and visible light patterns (a1, b1, c1; a2, b2, c2) projected from the two light projecting means (P1, P2) visualize the distance perpendicular to the reference plane, wherein the light patterns (a1, b1, c1; a2, b2, c2) projected from the two light projecting means (P1, P2) are gradation patterns, wherein the gradation patterns each represent light gradation along a direction in which the two light projecting means (P1, P2) are arranged, wherein the gradation patterns are set such that a luminance value of light obtained by adding up light projected from the two light projecting means (P1, P2) is constant on the reference plane, and wherein the gradation patterns change opposite to each other along the direction in which the two light projecting means (P1, P2) are arranged.
A process for the preparation of a compound of formula IA, temozolomide: comprising diazotizing a compound of the formula IIA: in the presence of at least one metal halide, an acid and a source of nitrous acid, wherein the diazotization proceeds by the addition of the compound of formula IIA and the metal halide to a solution containing the source of nitrous acid.
Power semiconductor module, comprising - at least one semiconductor chip composed of silicon as semiconductor material and having a first and a second main electrode, having a first and second electrode metallization, respectively, - a first and second main terminal (91, 92), wherein the semiconductor chip is situated between an electrically conductive baseplate, which forms the second main terminal, and an electrically conductive cover plate, which forms the first main terminal, and the module is closed off by side walls, - a contact lamina in electrical contact with the first main electrode and the first main terminal, wherein - the contact lamina consists of substantially one of the metals Al, Ag, Cu, Au or Mg or an alloy composed of at least two of the metals Al, Ag, Cu, Au or Mg, wherein the metal or the at least two metals serve(s) as an alloying partner and a eutectic is able to be formed between the alloying partner and the semiconductor material, - the contact lamina is coated with an electrically conductive protective layer (31, 32), - an outer contact area of the protective layer (31, 32) substantially consists of a noble metal, substantially consists of an electrically conductive nitride or substantially consists of a graphite, wherein the protective layer has an electrically conductive surface layer, which forms the outer contact area, characterized in that - the protective layer (31, 32) has at least one electrically conductive base layer applied on the contact lamina, wherein the base layer substantially consists of Ni. - at least one semiconductor chip composed of silicon as semiconductor material and having a first and a second main electrode, having a first and second electrode metallization, respectively, - a first and second main terminal (91, 92), wherein the semiconductor chip is situated between an electrically conductive baseplate, which forms the second main terminal, and an electrically conductive cover plate, which forms the first main terminal, and the module is closed off by side walls, - a contact lamina in electrical contact with the first main electrode and the first main terminal, wherein - the contact lamina consists of substantially one of the metals Al, Ag, Cu, Au or Mg or an alloy composed of at least two of the metals Al, Ag, Cu, Au or Mg, wherein the metal or the at least two metals serve(s) as an alloying partner and a eutectic is able to be formed between the alloying partner and the semiconductor material, - the contact lamina is coated with an electrically conductive protective layer (31, 32), - an outer contact area of the protective layer (31, 32) substantially consists of a noble metal, substantially consists of an electrically conductive nitride or substantially consists of a graphite, - the protective layer (31, 32) has at least one electrically conductive base layer applied on the contact lamina, wherein the base layer substantially consists of Ni.
A beam signal tracking method between a transmit end and a receive end performed by the receive end, the method comprising: • obtaining a Doppler frequency shift of a receive-beam signal, and determining a Doppler frequency shift change speed of the receive-beam signal according to the Doppler frequency shift; • determining a scanning speed and a scanning angle step size of a receive-beam of the receive-beam signal according to the Doppler frequency shift change speed; • scanning the receive-beam of the receive-beam signal according to the scanning speed and the scanning angle step size, and determining a beam angle that is formed when the receive-beam of the receive-beam signal is aligned with a transmit-beam of a transmit-beam signal of the transmit end, wherein the beam angle that is formed when the receive-beam is aligned with the transmit-beam is a beam angle corresponding to a maximum power of the receive-beam signal; • determining phase configuration information of a phase shifter according to the beam angle that is formed when the receive-beam is aligned with the transmit-beam; and • configuring the phase shifter according to the phase configuration information of the phase shifter, so that the receive-beam is aligned with the transmit-beam. • obtaining a Doppler frequency shift of a receive-beam signal, and determining a Doppler frequency shift change speed of the receive-beam signal according to the Doppler frequency shift; • determining a scanning speed and a scanning angle step size of a receive-beam of the receive-beam signal according to the Doppler frequency shift change speed; • scanning the receive-beam of the receive-beam signal according to the scanning speed and the scanning angle step size, and determining a beam angle that is formed when the receive-beam of the receive-beam signal is aligned with a transmit-beam of a transmit-beam signal of the transmit end, wherein the beam angle that is formed when the receive-beam is aligned with the transmit-beam is a beam angle corresponding to a maximum power of the receive-beam signal; • determining phase configuration information of a phase shifter according to the beam angle that is formed when the receive-beam is aligned with the transmit-beam; and • configuring the phase shifter according to the phase configuration information of the phase shifter, so that the receive-beam is aligned with the transmit-beam.
A loom on which a weft yarn nozzle, a weft yarn cutter and a selvage portion gripping device are mounted, wherein the selvage portion gripping device exists at a position where a weft yarn is to be cut with the weft yarn cutter, in which the selvage portion gripping device comprises a space where a selvage portion can pass in which the selvage portion formed by weaving additional yarns and weft yarns can pass through in a woven fabric forwarding direction, a tiny space (72A, 72B) where the weft yarn can move in which the weft yarn can pass through, and a means for maintaining a woven condition of the selvage portion even when the weft yarn is cut with a weft yarn cutter of the loom, wherein the selvage portion gripping device is only disposed at a weft yarn nozzle side of the woven fabric or it is disposed both at the weft yarn nozzle side and an opposite side of the weft yarn nozzle, characterised in that, when the selvage portion gripping device is disposed at the weft yarn nozzle side, a weft yarn cutter is provided between the weft yarn nozzle and the selvage portion gripping device, and when the selvage portion gripping device is disposed at the opposite side of the weft yarn nozzle, the selvage portion gripping device is provided between a weft yarn cutter provided at the opposite side of the weft yarn nozzle and the woven fabric.
A curable lightweight potting adhesive composition precursor, comprising a first part comprising (i) at least one first epoxy curing agent; (ii) at least one first curing aid comprising at least one ammonium salt; (iii) at least one second curing aid selected from tertiary amines; (iv) optionally, hollow microspheres; a second part comprising (i) at least one epoxy resin; and (ii) optionally, hollow microspheres. a first part comprising (i) at least one first epoxy curing agent; (ii) at least one first curing aid comprising at least one ammonium salt; (iii) at least one second curing aid selected from tertiary amines; (iv) optionally, hollow microspheres; (i) at least one first epoxy curing agent; (ii) at least one first curing aid comprising at least one ammonium salt; (iii) at least one second curing aid selected from tertiary amines; (iv) optionally, hollow microspheres; a second part comprising (i) at least one epoxy resin; and (ii) optionally, hollow microspheres. (i) at least one epoxy resin; and (ii) optionally, hollow microspheres.
A method for generating forwarding entries for devices (11, 12) in an optical network, wherein the optical network comprises a virtual access node, AN, wherein the virtual AN comprises a first access device, a second access device, and an access port management apparatus, and the method comprises the setps of: acquiring, by the access port management apparatus, a virtual AN forwarding entry sent by an access management device, wherein the virtual AN forwarding entry comprises an ingress port, identifiers of services that need to be processed by the virtual AN, and an egress port; generating, by the access port management apparatus, a first forwarding entry for the first access device according to the virtual AN forwarding entry, wherein the first forwarding entry comprises an ingress port, an egress port, and an identifier of a service that needs to be processed by the first access device, wherein the identifier of a service that needs to be processed by the first access device is used to indicate that the first access device needs to encapsulate a first data flow, which is received from the ingress port in the first forwarding entry, into the service corresponding to the identifier of the service that needs to be processed by the first access device; and generating, by the access port management apparatus, a second forwarding entry for the second access device according to the virtual AN forwarding entry, wherein the second forwarding entry comprises an ingress port and an egress port. acquiring, by the access port management apparatus, a virtual AN forwarding entry sent by an access management device, wherein the virtual AN forwarding entry comprises an ingress port, identifiers of services that need to be processed by the virtual AN, and an egress port; generating, by the access port management apparatus, a first forwarding entry for the first access device according to the virtual AN forwarding entry, wherein the first forwarding entry comprises an ingress port, an egress port, and an identifier of a service that needs to be processed by the first access device, wherein the identifier of a service that needs to be processed by the first access device is used to indicate that the first access device needs to encapsulate a first data flow, which is received from the ingress port in the first forwarding entry, into the service corresponding to the identifier of the service that needs to be processed by the first access device; and generating, by the access port management apparatus, a second forwarding entry for the second access device according to the virtual AN forwarding entry, wherein the second forwarding entry comprises an ingress port and an egress port.
Sealing unit for sealing and forming an open end of a packaging container, comprising a pair of sealing jaws (102,104) arranged on a pair of tongs (106,108) controlled by a first and a second cam arrangement each comprising: a cam track (122,124), a cam follower (126,128) and a rigid power-transfer arrangement, wherein both cam tracks (122,124) are arranged on a single cam wheel and arranged to move the first and second cam followers in opposite directions (126,128), characterized in that a servomotor is arranged to drive the cam wheel intermittently between an open position, for the sealing jaws, and a closed position, for the sealing jaws. a cam track (122,124), a cam follower (126,128) and a rigid power-transfer arrangement, wherein both cam tracks (122,124) are arranged on a single cam wheel and arranged to move the first and second cam followers in opposite directions (126,128), characterized in that a servomotor is arranged to drive the cam wheel intermittently between an open position, for the sealing jaws, and a closed position, for the sealing jaws.
A switching device (1, 100, 200) for breaking an electric current comprising: a main contact carrier (65, 165, 265), a movable main contact (30, 130, 230) and a stationary main contact (20, 120, 220) of a main contact unit, wherein the movable main contact (30, 130, 230) is attached to the main contact carrier (65, 165, 265), an arcing contact carrier (60, 160, 260), a movable arcing contact (50, 150, 250) and a stationary arcing contact (40, 140, 240) of an arcing contact unit, wherein the movable arcing contact (50, 150, 250) is attached to the arcing contact carrier (60, 160, 260) and the stationary arcing contact (40, 140, 240) is arranged in parallel with the stationary main contact (20, 120, 220), and an actuating unit (10, 110, 210) for actuating the main and arcing contact carriers (65, 165, 265; 60, 160, 260) from an open position to close position or vice versa at an actuating distance, wherein there are separation distances between the stationary and movable contacts of the main and arcing contact units respectively when a current is interrupted, characterized in that the switching device further includes a first rack (90, 190, 290) and a first gear (80, 180, 280) for actuating the arcing contact carrier (60, 160, 260) so that, when interrupting the current, a separation distance between the arcing contacts (50, 150, 250; 40, 140, 240) is longer than a separation distance between the main contacts (30, 130, 230; 20, 120, 220). a main contact carrier (65, 165, 265), a movable main contact (30, 130, 230) and a stationary main contact (20, 120, 220) of a main contact unit, wherein the movable main contact (30, 130, 230) is attached to the main contact carrier (65, 165, 265), an arcing contact carrier (60, 160, 260), a movable arcing contact (50, 150, 250) and a stationary arcing contact (40, 140, 240) of an arcing contact unit, wherein the movable arcing contact (50, 150, 250) is attached to the arcing contact carrier (60, 160, 260) and the stationary arcing contact (40, 140, 240) is arranged in parallel with the stationary main contact (20, 120, 220), and an actuating unit (10, 110, 210) for actuating the main and arcing contact carriers (65, 165, 265; 60, 160, 260) from an open position to close position or vice versa at an actuating distance, wherein there are separation distances between the stationary and movable contacts of the main and arcing contact units respectively when a current is interrupted, characterized in that the switching device further includes a first rack (90, 190, 290) and a first gear (80, 180, 280) for actuating the arcing contact carrier (60, 160, 260) so that, when interrupting the current, a separation distance between the arcing contacts (50, 150, 250; 40, 140, 240) is longer than a separation distance between the main contacts (30, 130, 230; 20, 120, 220).
Method for transmitting an audio scene spatialized on the basis of a conference bridge in a conference system comprising a plurality of conference stations, a conference station corresponding to a site where it is located, in which the method comprises the following steps implemented by the conference bridge: - reception of dual-channel audio signals originating from the conference stations; - determination, per conference station of the conference system, of at least one processing function adapted to characteristics of the site of the corresponding conference station; - application of the respective processing functions to the dual-channel signals received from the conference stations, the same processing being applied to each of the signals of a dual-channel audio signal of a conference station; - construction of a hybrid dual-channel signal to be transmitted per conference station by summing some of the dual-channel audio signals thus processed; - transmission to the various conference stations of the conference system of the respective hybrid dual-channel audio signal. - reception of dual-channel audio signals originating from the conference stations; - determination, per conference station of the conference system, of at least one processing function adapted to characteristics of the site of the corresponding conference station; - application of the respective processing functions to the dual-channel signals received from the conference stations, the same processing being applied to each of the signals of a dual-channel audio signal of a conference station; - construction of a hybrid dual-channel signal to be transmitted per conference station by summing some of the dual-channel audio signals thus processed; - transmission to the various conference stations of the conference system of the respective hybrid dual-channel audio signal.