mhurhangee/patent-ind-claim-en huggingface dataset:
Plant for producing methane, characterised in that it comprises: - an electric energy source ; - a water electrolyser supplied with electrical energy from the electric energy source, suitable for producing hydrogen in gas form; - an atmospheric carbon dioxide capture device suitable for producing carbon dioxide and water; - a methanation reactor fitted with an inlet for hydrogen from the electrolyser, fitted with an inlet for water and carbon dioxide from the atmospheric carbon dioxide capture device, and suitable for producing methane; and - solar collectors and a means for heat transfer from the solar collectors to the carbon dioxide capture device . - an electric energy source ; - a water electrolyser supplied with electrical energy from the electric energy source, suitable for producing hydrogen in gas form; - an atmospheric carbon dioxide capture device suitable for producing carbon dioxide and water; - a methanation reactor fitted with an inlet for hydrogen from the electrolyser, fitted with an inlet for water and carbon dioxide from the atmospheric carbon dioxide capture device, and suitable for producing methane; and - solar collectors and a means for heat transfer from the solar collectors to the carbon dioxide capture device .
A perforated non-woven fabric, the perforated non-woven fabric being formed by overlapping three-dimensional funnel-shaped openings (C, D) of first and second perforated non-woven fabric layers ; the first perforated non-woven fabric layer having a protruding portion (B) and a recessed portion (A); an upper side of the second perforated non-woven fabric layer being bonded to a lower side of the recessed portion (A) of the first perforated non-woven layer ; the overlapped three-dimensional funnel-shaped openings (C, D) passing through the first perforated non-woven fabric layer and the second perforated non-woven fabric layer ; wherein the protruding portion (B) has an internal space (E) between the first perforated non-woven fabric layer and the second perforated non-woven fabric layer ; wherein the overlapped three-dimensional funnel-shaped openings (C, D) extend from the recessed portion (A) of the first perforated non-woven fabric layer toward a lower side of the second perforated non-woven fabric layer ; wherein the perforated non-woven fabric is produced by a production method adopting hot bonding, in which, after the first perforated non-woven fabric layer is embossed and punched on a pair of concave and convex rollers (M, N), the first perforated non-woven fabric layer being closely attached to the convex roller (N) by means of the temperature of the convex roller (N) and a piercing process of a needle tip (d) on the convex roller (N) and then bonded to the second perforated non-woven fabric layer by means of punching and hot rolling of a third concave roller (O), such that the bonding of the recessed portion (A) is a thermal bonding region. wherein the protruding portion (B) has an internal space (E) between the first perforated non-woven fabric layer and the second perforated non-woven fabric layer ; wherein the overlapped three-dimensional funnel-shaped openings (C, D) extend from the recessed portion (A) of the first perforated non-woven fabric layer toward a lower side of the second perforated non-woven fabric layer ; wherein the perforated non-woven fabric is produced by a production method adopting hot bonding, in which, after the first perforated non-woven fabric layer is embossed and punched on a pair of concave and convex rollers (M, N), the first perforated non-woven fabric layer being closely attached to the convex roller (N) by means of the temperature of the convex roller (N) and a piercing process of a needle tip (d) on the convex roller (N) and then bonded to the second perforated non-woven fabric layer by means of punching and hot rolling of a third concave roller (O), such that the bonding of the recessed portion (A) is a thermal bonding region.
A trough of a feedwell apparatus, the trough comprising a curved shape that turns in one direction, the trough comprising - a first end for receiving material comprising liquids carrying suspended particles, such as slurry containing minerals, - a second end opposite to the first end, - plurality of through-openings in the wall(s) of the trough, characterized in that - the through-openings are arranged in unequal pattern such that area of the through-openings in proportion to the corresponding area of the wall(s) has its minimum value in portion of the trough close to the first end thereof, and said relation being arranged to grow with the distance from the first end . - a first end for receiving material comprising liquids carrying suspended particles, such as slurry containing minerals, - a second end opposite to the first end, - plurality of through-openings in the wall(s) of the trough, characterized in that - the through-openings are arranged in unequal pattern such that area of the through-openings in proportion to the corresponding area of the wall(s) has its minimum value in portion of the trough close to the first end thereof, and
A capacitive fingerprint sensing device comprising: a substrate comprising readout circuitry; a sensing chip arranged on said substrate, said sensing chip comprising a plurality of sensing structures each having a sensing element , wherein a surface of said sensing elements defines a sensing plane, each sensing element being configured to provide a signal indicative of an electromagnetic coupling between said sensing element and a finger placed on an exterior surface of the fingerprint sensing device; a bond wire arranged between a first bond pad located on said sensing chip and a second bond pad located on said substrate to electrically connect said sensing chip to said readout circuitry, wherein said first bond pad is located in said sensing plane and wherein a portion of said bond wire protrudes above said sensing plane; an adhesive arranged on said sensing chip to cover substantially the entire area of said sensing chip such that a portion of said bond wire protruding above said sensing plane is embedded in said adhesive; a protective plate attached to said sensing chip by means of said adhesive, said protective plate forming an exterior surface of the fingerprint sensing device, characterized in that said adhesive is an adhesive film comprising: a first adhesive layer arranged in contact with said sensing elements; an intermediate carrier layer ; and a second adhesive layer arranged in contact with said protective plate, and wherein said first adhesive layer has a thickness at least equal to a height of said portion of said bond wire protruding above said sensing plane. a substrate comprising readout circuitry; a sensing chip arranged on said substrate, said sensing chip comprising a plurality of sensing structures each having a sensing element , wherein a surface of said sensing elements defines a sensing plane, each sensing element being configured to provide a signal indicative of an electromagnetic coupling between said sensing element and a finger placed on an exterior surface of the fingerprint sensing device; a bond wire arranged between a first bond pad located on said sensing chip and a second bond pad located on said substrate to electrically connect said sensing chip to said readout circuitry, wherein said first bond pad is located in said sensing plane and wherein a portion of said bond wire protrudes above said sensing plane; an adhesive arranged on said sensing chip to cover substantially the entire area of said sensing chip such that a portion of said bond wire protruding above said sensing plane is embedded in said adhesive; a protective plate attached to said sensing chip by means of said adhesive, said protective plate forming an exterior surface of the fingerprint sensing device, characterized in that said adhesive is an adhesive film comprising: a first adhesive layer arranged in contact with said sensing elements; an intermediate carrier layer ; and a second adhesive layer arranged in contact with said protective plate, and wherein said first adhesive layer has a thickness at least equal to a height of said portion of said bond wire protruding above said sensing plane.
A lithium battery comprising: - an anode comprising an active anode material - a cathode comprising an active cathode material comprising lithium nickel manganese cobalt oxide (LiNi x Co y Mn 1-x-y O 2 ) (NCM) with each of x and y not including zero and x + y being smaller than 1 - a separator separating anode and cathode, and an electrolyte wherein the electrolyte comprises a solvent or solvent mixture and lithium hexafluorophosphate, characterized in that the electrolyte further comprises an urea-based electrolyte additive, wherein the urea-based electrolyte additive is (1H-imidazol-1-yl) (morpholino)methanone (MUI) of formula 2 - an anode comprising an active anode material - a cathode comprising an active cathode material comprising lithium nickel manganese cobalt oxide (LiNi x Co y Mn 1-x-y O 2 ) (NCM) with each of x and y not including zero and x + y being smaller than 1 - a separator separating anode and cathode, and an electrolyte wherein the electrolyte comprises a solvent or solvent mixture and lithium hexafluorophosphate, characterized in that
A composition comprising, based on the total weight of the composition: (a) from 5.0 wt.% to 55.0 wt.% of at least one poly(carbonate-siloxane-arylate ester) copolymer; (b) from 10.0 wt.% to 45.0 wt.% of at least one brominated polycarbonate; (c) from 12.0 wt.% to 20.0 wt.% of glass fiber; and (d) at least one polycarbonate polymer (PC1) selected from the group consisting of: i. a poly(carbonate-siloxane) copolymer, wherein if selected, is present in an amount from 10.0 wt.% to 50.0 wt.%; ii. a polycarbonate homopolymer, wherein if selected, is present in an amount from 5.0 wt.% to 20.0 wt.%; and iii. a combination of i) and ii); wherein the at least one poly(carbonate-siloxane) copolymer is free of repeat units derived from arylate ester; and wherein the polycarbonate homopolymer is free of bromine. (a) from 5.0 wt.% to 55.0 wt.% of at least one poly(carbonate-siloxane-arylate ester) copolymer; (b) from 10.0 wt.% to 45.0 wt.% of at least one brominated polycarbonate; (c) from 12.0 wt.% to 20.0 wt.% of glass fiber; and (d) at least one polycarbonate polymer (PC1) selected from the group consisting of: i. a poly(carbonate-siloxane) copolymer, wherein if selected, is present in an amount from 10.0 wt.% to 50.0 wt.%; ii. a polycarbonate homopolymer, wherein if selected, is present in an amount from 5.0 wt.% to 20.0 wt.%; and iii. a combination of i) and ii); i. a poly(carbonate-siloxane) copolymer, wherein if selected, is present in an amount from 10.0 wt.% to 50.0 wt.%; ii. a polycarbonate homopolymer, wherein if selected, is present in an amount from 5.0 wt.% to 20.0 wt.%; and iii. a combination of i) and ii);
Silicon nanoparticles for negative electrode active material in lithium ion secondary batteries, wherein the silicon nanoparticles have a length in the major axis direction of 70 to 300 nm and a thickness of 15 to 70 nm or less.
A transducer , comprising: a dielectric layer ; a first electrode sheet which is disposed on a first surface side of the dielectric layer ; a first main fusion layer which is formed of a fusion material, and the transducer being characterized by a first fusion restriction layer which is partially disposed between the first electrode sheet and the first main fusion layer , restricts the first main fusion layer from being fused to the first electrode sheet , and disposes at least a part of the first electrode sheet outside the first main fusion layer , wherein the first electrode sheet comprises a plurality of first through holes, the first main fusion layer is disposed as at least a part on the first surface side within the dielectric layer or joined as a separate member to the first surface of the dielectric layer, and joins the dielectric layer and the first electrode sheet by fusion of the fusion material, the transducer further comprising a first leading wire , which is electrically connected to a part, said part being disposed outside the first main fusion layer by the first fusion restriction layer within the first electrode sheet . a dielectric layer ; a first electrode sheet which is disposed on a first surface side of the dielectric layer ; a first main fusion layer which is formed of a fusion material, and the transducer being characterized by a first fusion restriction layer which is partially disposed between the first electrode sheet and the first main fusion layer , restricts the first main fusion layer from being fused to the first electrode sheet , and disposes at least a part of the first electrode sheet outside the first main fusion layer , wherein the first electrode sheet comprises a plurality of first through holes, the first main fusion layer is disposed as at least a part on the first surface side within the dielectric layer or joined as a separate member to the first surface of the dielectric layer, and joins the dielectric layer and the first electrode sheet by fusion of the fusion material, the transducer further comprising a first leading wire , which is electrically connected to a part, said part being disposed outside the first main fusion layer by the first fusion restriction layer within the first electrode sheet .
An audio processing method comprising: for each given input digital audio signal of a set of two or more input digital audio signals, deriving a loudness signal for a sequence of windows of each input digital audio signal, the windows containing portions of that input digital audio signal and detecting a correlation between respective loudness signals derived from the given input digital audio signal and others of the input digital audio signals; generating a gain adjustment for application to the given input digital audio signal in dependence upon the detected correlation; applying the gain adjustment to the given input digital audio signal to generate a respective gain-adjusted input digital audio signal; and combining the set of gain-adjusted input digital audio signals to generate an output digital audio signal. for each given input digital audio signal of a set of two or more input digital audio signals, deriving a loudness signal for a sequence of windows of each input digital audio signal, the windows containing portions of that input digital audio signal and detecting a correlation between respective loudness signals derived from the given input digital audio signal and others of the input digital audio signals; generating a gain adjustment for application to the given input digital audio signal in dependence upon the detected correlation; applying the gain adjustment to the given input digital audio signal to generate a respective gain-adjusted input digital audio signal; and combining the set of gain-adjusted input digital audio signals to generate an output digital audio signal.
Cutting device (1; 1'; 1") configured to cut a cap intended to close a container, said cutting device (1; 1'; 1") comprising: - support means to support at least one horizontal blade configured to perform at least one circumferential cut on the cap rolling on said cutting device (1; 1'; 1") along an advancement direction (T); characterized by comprising: - at least one modular insert supported by said support means to perform at least one vertical or oblique cut on the cap; said at least one modular insert including at least one cutting element provided at an end thereof with a cutting edge , and at least one abutting block which is interchangeable, and which is couplable with said cutting element to fix a dimension (D) of said at least one modular insert , said dimension (D) being a length between said cutting edge and an abutting face of said at least one abutting block ; said support means comprising a support body which comprises, on a peripheral edge thereof and for each modular insert , a housing cavity , said modular insert being insertable in, and removable from, said housing cavity which is shaped for receiving said modular insert so that said cutting edge protrudes from said peripheral edge , said abutting face being configured to abut a back wall of said housing cavity so that a rear end of said cutting element opposed to said cutting edge is spaced from said back wall . - support means to support at least one horizontal blade configured to perform at least one circumferential cut on the cap rolling on said cutting device (1; 1'; 1") along an advancement direction (T); - at least one modular insert supported by said support means to perform at least one vertical or oblique cut on the cap; said at least one modular insert including at least one cutting element provided at an end thereof with a cutting edge , and at least one abutting block which is interchangeable, and which is couplable with said cutting element to fix a dimension (D) of said at least one modular insert , said dimension (D) being a length between said cutting edge and an abutting face of said at least one abutting block ;
A remote controller comprising: a casing including a communication surface for near field radio communication on a front panel of the casing ; a storage component stored in the casing and including a shielding part having a property of shielding a magnetic flux; and an antenna for near field radio communication disposed behind the communication surface with a space between the antenna and the communication surface , the antenna including a coil pattern inside which a magnetic flux passing region for passing a magnetic flux in a front-rear direction is formed, wherein a part (41a2) of the coil pattern of the antenna overlaps the storage component in the front-rear direction. a casing including a communication surface for near field radio communication on a front panel of the casing ; a storage component stored in the casing and including a shielding part having a property of shielding a magnetic flux; and an antenna for near field radio communication disposed behind the communication surface with a space between the antenna and the communication surface , the antenna including a coil pattern inside which a magnetic flux passing region for passing a magnetic flux in a front-rear direction is formed, wherein a part (41a2) of the coil pattern of the antenna overlaps the storage component in the front-rear direction.
A method for monitoring an object in a geographical area , comprising: obtaining, from a cloud computing device, service provisioning data for a pre-determined service of the object ; receiving, from a first plurality of network nodes disposed about a first segment of the geographical area , a plurality of monitored data items, wherein the plurality of monitored data items are generated based on an Internet-of-things signal received by the first plurality of network nodes from a tag sensor disposed on the object ; and processing, based on the service provisioning data, the plurality of monitored data items to provide the pre-determined service of the object across the first segment of the geographical area , wherein the Internet-of-things signal comprises a repeating pattern of superframes, each superframe comprising a plurality of frames, wherein the repeating pattern of superframes defines rules for data exchange in the form of frequency bands and time slots for wireless data communication between one of the first plurality of network nodes and the tag sensor . obtaining, from a cloud computing device, service provisioning data for a pre-determined service of the object ; receiving, from a first plurality of network nodes disposed about a first segment of the geographical area , a plurality of monitored data items, wherein the plurality of monitored data items are generated based on an Internet-of-things signal received by the first plurality of network nodes from a tag sensor disposed on the object ; and processing, based on the service provisioning data, the plurality of monitored data items to provide the pre-determined service of the object across the first segment of the geographical area , wherein the Internet-of-things signal comprises a repeating pattern of superframes, each superframe comprising a plurality of frames, wherein the repeating pattern of superframes defines rules for data exchange in the form of frequency bands and time slots for wireless data communication between one of the first plurality of network nodes and the tag sensor .
A method for wireless communication by a user equipment, UE, comprising: receiving , via a control channel, an order message instructing the UE to perform a random access channel, RACH, procedure; selecting to perform a first RACH procedure or a second RACH procedure; characterized in that the step of selecting to perform a first RACH procedure or a second RACH procedure is based at least in part on: a preamble preparation time gap between the order message and a first occasion for transmitting a RACH preamble, or a payload preparation time gap between the order message and an occasion for transmitting a RACH payload, or both. receiving , via a control channel, an order message instructing the UE to perform a random access channel, RACH, procedure; selecting to perform a first RACH procedure or a second RACH procedure; a preamble preparation time gap between the order message and a first occasion for transmitting a RACH preamble, or a payload preparation time gap between the order message and an occasion for transmitting a RACH payload, or both.
A pharmaceutical composition containing Ginkgolide B, wherein the pharmaceutical composition comprises Ginkgolide B and a factor Xa inhibitor xaban type drug, wherein the xaban type drug is Rivaroxaban, Edoxaban or Razaxaban, characterized in that : Ginkgolide B is in an amount of 1-20 parts by weight, and Rivaroxaban is in an amount of 5-40 parts by weight; or Ginkgolide B is in an amount of 1-20 parts by weight, and Edoxaban is in an amount of 8-50 parts by weight; or Ginkgolide B is in an amount of 1-20 parts by weight, and Razaxaban is in an amount of 1-20 parts by weight. Ginkgolide B is in an amount of 1-20 parts by weight, and Rivaroxaban is in an amount of 5-40 parts by weight; or Ginkgolide B is in an amount of 1-20 parts by weight, and Edoxaban is in an amount of 8-50 parts by weight; or Ginkgolide B is in an amount of 1-20 parts by weight, and Razaxaban is in an amount of 1-20 parts by weight.
A video and lighting control apparatus comprising: a video display including a plurality of multi-color lighting devices, including a viewed portion that displays light based on a viewed portion source, and an unviewed portion that displays ambient light based on at least one video or image; and a video control circuit that controls the viewed and unviewed portions based on a controlled lighting sequence comprising an ambient light profile, wherein the unviewed portion emits light according to the ambient light profile to create ambient light in a scene that emulates the at least one video or image; and a video capture device that records a first image of the scene, wherein the viewed portion of the display is in a field of vision of the video capture device and the unviewed portion is not in the field of vision of the video capture device. a video display including a plurality of multi-color lighting devices, including a viewed portion that displays light based on a viewed portion source, and an unviewed portion that displays ambient light based on at least one video or image; and a video control circuit that controls the viewed and unviewed portions based on a controlled lighting sequence comprising an ambient light profile, wherein the unviewed portion emits light according to the ambient light profile to create ambient light in a scene that emulates the at least one video or image; and a video capture device that records a first image of the scene, wherein the viewed portion of the display is in a field of vision of the video capture device and the unviewed portion is not in the field of vision of the video capture device.