mhurhangee/patent-ind-claim-en huggingface dataset:
A muscle treatment device , comprising: a compression garment; a stretchable garment substrate comprising a compression fabric comprising at least one of spandex and lycra; and one or more biocompatible electrodes , wherein the biocompatible electrodes comprise a first array comprising a first pattern of microcells formed from a first conductive material, and a second array comprising a second pattern of microcells formed from a second conductive material, wherein the first array and the second array spontaneously generate a low level electric field (LLEF), wherein the first array and the second array spontaneously generate a low level electric current (LLEC) when contacted with an electrolytic solution, and wherein the compression garment is configured to exert a pressure of between 20 mmHg and 70 mmHg, wherein the compression garment is configured to apply greater pressure on the quadriceps than on a subject's lower leg. a compression garment; a stretchable garment substrate comprising a compression fabric comprising at least one of spandex and lycra; and one or more biocompatible electrodes , wherein the biocompatible electrodes comprise a first array comprising a first pattern of microcells formed from a first conductive material, and a second array comprising a second pattern of microcells formed from a second conductive material, wherein the first array and the second array spontaneously generate a low level electric field (LLEF), wherein the first array and the second array spontaneously generate a low level electric current (LLEC) when contacted with an electrolytic solution, and wherein the compression garment is configured to exert a pressure of between 20 mmHg and 70 mmHg, a stretchable garment substrate comprising a compression fabric comprising at least one of spandex and lycra; and one or more biocompatible electrodes , wherein the biocompatible electrodes comprise a first array comprising a first pattern of microcells formed from a first conductive material, and a second array comprising a second pattern of microcells formed from a second conductive material, wherein the first array and the second array spontaneously generate a low level electric field (LLEF), wherein the first array and the second array spontaneously generate a low level electric current (LLEC) when contacted with an electrolytic solution, and wherein the compression garment is configured to exert a pressure of between 20 mmHg and 70 mmHg, wherein the compression garment is configured to apply greater pressure on the quadriceps than on a subject's lower leg.
A method for forming a mixed fiber tow suitable for use in a filter element for a smoking article, the method comprising: combining a first plurality of cellulose acetate fibers with a second plurality of regenerated cellulose fibers to form a mixed fiber blend, wherein the first plurality of cellulose acetate fibers and the second plurality of regenerated cellulose fibers are undrawn or partially drawn; drawing the mixed fiber blend to reduce the denier per filament of the fibers of the mixed fiber blend and form a drawn fiber blend; and crimping the drawn fiber blend to form a mixed fiber tow, wherein the mixed fiber tow has a total denier in the range of from about 20,000 denier to about 80,000 denier. combining a first plurality of cellulose acetate fibers with a second plurality of regenerated cellulose fibers to form a mixed fiber blend, wherein the first plurality of cellulose acetate fibers and the second plurality of regenerated cellulose fibers are undrawn or partially drawn; drawing the mixed fiber blend to reduce the denier per filament of the fibers of the mixed fiber blend and form a drawn fiber blend; and crimping the drawn fiber blend to form a mixed fiber tow, wherein the mixed fiber tow has a total denier in the range of from about 20,000 denier to about 80,000 denier.
An inkjet head comprising a nozzle plate having at least a substrate , wherein the nozzle plate has a liquid-repellent layer on an outermost surface of the substrate on an ink ejection surface side and is provided with a nozzle formed on the substrate for ejecting an ink, the nozzle including a flow passage of the ink; a liquid-repellent layer base film is provided between the substrate and the liquid-repellent layer , the liquid-repellent layer base film being formed on a surface of the substrate in the flow passage; and the liquid-repellent layer base film contains at least silicon (Si) and carbon (C), and having a maximum peak P of a binding energy of a Si2p orbital of a surface portion measured by X-ray photoelectron spectroscopy is in the range represented by the following Formula , 99.6 eV ≤ P ≤ 101.9 eV , wherein the atomic% range of silicon (Si) is 15.3%-28.3%, the atomic% range of carbon (C) is 38.9%-65.2%, and the atomic% range of oxygen (O) is 19.5%-32.8%.
A wireless communication method, comprising: transmitting a protection duration by a first wireless device to a second station in an omni-beam duration of a transmit opportunity; transmitting/receiving data by the first wireless device using a sectorized beam in a packet exchange with the second device during a sectorized beam duration of the transmit opportunity; wherein the protection duration covers the sectorized beam duration; characterized in that when the transmit opportunity is announced, detecting by a third wireless device a spatial orthogonal condition, wherein the third wireless device has an overlapping signal range with the first wireless device or the second wireless device, and setting by the third wireless device a network allocation vector to zero if the spatial orthogonal condition is detected. transmitting a protection duration by a first wireless device to a second station in an omni-beam duration of a transmit opportunity; transmitting/receiving data by the first wireless device using a sectorized beam in a packet exchange with the second device during a sectorized beam duration of the transmit opportunity; wherein the protection duration covers the sectorized beam duration; characterized in that when the transmit opportunity is announced, detecting by a third wireless device a spatial orthogonal condition, wherein the third wireless device has an overlapping signal range with the first wireless device or the second wireless device, and setting by the third wireless device a network allocation vector to zero if the spatial orthogonal condition is detected.
Method for fabricating a pressure sensor, wherein at least the following method steps are provided for fabrication: - producing a patterned stabilizing element having at least two openings in the surface region of a semiconductor carrier , wherein • a second patterned epitaxial layer is applied on the semiconductor carrier, the patterning of said epitaxial layer being produced depending on an exposure and an etching process or a trench process, wherein the stabilizing element is produced by the patterned second epitaxial layer in a second region in the surface region of the semiconductor carrier and the openings allow access to a first region in the semiconductor carrier, said first region having a first doping, and - selectively stripping out at least one portion of the semiconductor material provided with the first doping via the openings in order to produce a porous first region of the semiconductor carrier by means of anodizing or electropolishing, and - producing a membrane above the porous first region by applying a first monocrystalline epitaxial layer to the stabilizing element, wherein the first epitaxial layer, proceeding from at least one portion of the stabilizing element, closes off the at least two openings above the porous first region in a lateral and/or vertical direction, and - producing a cavity below the stabilizing element from at least one portion of the porous first region, wherein the stabilizing element has at least one monocrystalline web above the cavity, and wherein the web has a lateral extent that is smaller than half the depth of the cavity. - producing a patterned stabilizing element having at least two openings in the surface region of a semiconductor carrier , • a second patterned epitaxial layer is applied on the semiconductor carrier, the patterning of said epitaxial layer being produced depending on an exposure and an etching process or a trench process, wherein the stabilizing element is produced by the patterned second epitaxial layer in a second region in the surface region of the semiconductor carrier and the openings allow access to a first region in the semiconductor carrier, said first region having a first doping, and - selectively stripping out at least one portion of the semiconductor material provided with the first doping via the openings in order to produce a porous first region of the semiconductor carrier by means of anodizing or electropolishing, and - producing a membrane above the porous first region by applying a first monocrystalline epitaxial layer to the stabilizing element, wherein the first epitaxial layer, proceeding from at least one portion of the stabilizing element, closes off the at least two openings above the porous first region in a lateral and/or vertical direction, and - producing a cavity below the stabilizing element from at least one portion of the porous first region,
A window assembly for a vehicle , said window assembly comprising: an exterior substrate having an inner surface and an outer surface ; an interior substrate disposed adjacent said exterior substrate and having an inner surface and an outer surface with said interior and exterior substrates defining a first peripheral boundary ; a transparent layer disposed between said inner surfaces of said exterior and interior substrates and defining an area covering said window assembly with said area defining a second peripheral boundary , wherein said transparent layer comprises a metal compound such that said transparent layer is electrically conductive; an outer region defined on said window assembly between said first and second peripheral boundaries and being electrically non-conductive, the window assembly being characterised in that : said outer region surrounds said second peripheral boundary to completely separate said transparent layer from a window frame of the vehicle ; wherein the window assembly further comprises: a slot defined within said area and opening into said outer region with said slot being devoid of said transparent layer and electrically non-conductive; a wire antenna element disposed within said slot ; and a feeding element coupled to said wire antenna element for energizing said wire antenna element ; wherein said wire antenna element is electrically disconnected from said transparent layer . an exterior substrate having an inner surface and an outer surface ; an interior substrate disposed adjacent said exterior substrate and having an inner surface and an outer surface with said interior and exterior substrates defining a first peripheral boundary ; a transparent layer disposed between said inner surfaces of said exterior and interior substrates and defining an area covering said window assembly with said area defining a second peripheral boundary , wherein said transparent layer comprises a metal compound such that said transparent layer is electrically conductive; an outer region defined on said window assembly between said first and second peripheral boundaries and being electrically non-conductive, the window assembly being characterised in that : said outer region surrounds said second peripheral boundary to completely separate said transparent layer from a window frame of the vehicle ; wherein the window assembly further comprises: a slot defined within said area and opening into said outer region with said slot being devoid of said transparent layer and electrically non-conductive; a wire antenna element disposed within said slot ; and a feeding element coupled to said wire antenna element for energizing said wire antenna element ; a slot defined within said area and opening into said outer region with said slot being devoid of said transparent layer and electrically non-conductive; a wire antenna element disposed within said slot ; and a feeding element coupled to said wire antenna element for energizing said wire antenna element ; wherein said wire antenna element is electrically disconnected from said transparent layer .
A method of wireless communication performed by a user equipment, UE, wherein said UE is configured for coordinated multi-point, CoMP, and camps on a first base station of a first cell, the method comprising: receiving, directly from a second base station of a second cell, a reference signal configuration that includes information for determining a resource of a first reference signal for communication in the first cell; determining the resource for transmitting the first reference signal for communication in the first cell to be in time and frequency alignment with a second reference signal for communication in the second cell; and transmitting to, or receiving from , the first base station, first data in a slot comprising the first reference signal in the first cell, such that the first reference signal is aligned in time and frequency with the second reference signal in the slot for communicating second data in the second cell, wherein the first reference signal comprises a first sequence, and the second reference signal comprises a second sequence that is different from the first sequence. receiving, directly from a second base station of a second cell, a reference signal configuration that includes information for determining a resource of a first reference signal for communication in the first cell; determining the resource for transmitting the first reference signal for communication in the first cell to be in time and frequency alignment with a second reference signal for communication in the second cell; and transmitting to, or receiving from , the first base station, first data in a slot comprising the first reference signal in the first cell, such that the first reference signal is aligned in time and frequency with the second reference signal in the slot for communicating second data in the second cell, wherein the first reference signal comprises a first sequence, and the second reference signal comprises a second sequence that is different from the first sequence.
A method operable at a non-orthogonal multiple access, NOMA, user equipment, UE, for transmitting a signal, the method comprising: demultiplexing a stream of bits into a plurality of layers; encoding each layer of demultiplexed bits with a different coding rate; modulating each layer of encoded bits with a different modulation scheme to generate modulated symbols; permuting the plurality of layers having modulated symbols into a plurality of interleaved layers; scaling and phase rotating each interleaved layer of modulated symbols with a different scaling factor and a corresponding different phase rotating factor; summing the scaled and phase rotated symbols of the plurality of interleaved layers; and mapping the summed symbols onto a set of resources allocated to the NOMA UE. demultiplexing a stream of bits into a plurality of layers; encoding each layer of demultiplexed bits with a different coding rate; modulating each layer of encoded bits with a different modulation scheme to generate modulated symbols; permuting the plurality of layers having modulated symbols into a plurality of interleaved layers; scaling and phase rotating each interleaved layer of modulated symbols with a different scaling factor and a corresponding different phase rotating factor; summing the scaled and phase rotated symbols of the plurality of interleaved layers; and mapping the summed symbols onto a set of resources allocated to the NOMA UE.
A coating composition, comprising: 40 to 80 weight percent (wt.%) of a non-functionalized propylene base polymer that has a crystalline melting point of 100 °C to 230 °C as measured using Differential Scanning Calorimetry; 5 to 15 wt.% of a polymeric coupling agent having an acid number less than 100 that has a melt viscosity of less than 80 Pa-s (80,000 centipoise) at 150 °C; 10 to 30 wt.% of a polymeric stabilizing agent having an acid number equal to or greater than 100; 0 to 35 wt.% of a polymeric performance improving agent that has a melt index value of less than 100 g/10 min, defined as the amount of polymer melt passing through a heated syringe at 190 °C with a plunger load of 2.16 kg load for polyethylene based polymer and at 230 °C and 2.16 kg for polypropylene based polymer; a neutralizing agent that partially or fully neutralizes the polymeric stabilizing agent; and a fluid medium, where the percent values are based on the total weight of the non-functionalized propylene base polymer, the polymeric coupling agent, the polymeric stabilizing agent and, when present, the polymeric performance improving agent of the coating composition and sum to a value of 100 wt.%. 40 to 80 weight percent (wt.%) of a non-functionalized propylene base polymer that has a crystalline melting point of 100 °C to 230 °C as measured using Differential Scanning Calorimetry; 5 to 15 wt.% of a polymeric coupling agent having an acid number less than 100 that has a melt viscosity of less than 80 Pa-s (80,000 centipoise) at 150 °C; 10 to 30 wt.% of a polymeric stabilizing agent having an acid number equal to or greater than 100; 0 to 35 wt.% of a polymeric performance improving agent that has a melt index value of less than 100 g/10 min, defined as the amount of polymer melt passing through a heated syringe at 190 °C with a plunger load of 2.16 kg load for polyethylene based polymer and at 230 °C and 2.16 kg for polypropylene based polymer; a neutralizing agent that partially or fully neutralizes the polymeric stabilizing agent; and a fluid medium,
A lighting device, comprising: a printed circuit board ; one or more light emitting units disposed on the printed circuit board ; a resin layer which is disposed on the printed circuit board , in which the light emitting units are embedded; an indirect radiation unit which is disposed on both side of the resin layer and adapted to reflect light irradiated from the light emitting unit ; a diffusion plate disposed on an upper side of the resin layer ; whereby the indirect radiation unit comprises a light reflection unit disposed to be spaced from the resin layer ; and an indirect radiation air gap is disposed between the both side of the resin layer and the light reflection unit , wherein a bottom surface of the light reflection unit is positioned at a lower level than a bottom surface of the resin layer , and wherein the light reflection unit and the indirect radiation air gap are formed on both side of the printed circuit board . a printed circuit board ; one or more light emitting units disposed on the printed circuit board ; a resin layer which is disposed on the printed circuit board , in which the light emitting units are embedded; an indirect radiation unit which is disposed on both side of the resin layer and adapted to reflect light irradiated from the light emitting unit ; a diffusion plate disposed on an upper side of the resin layer ; whereby the indirect radiation unit comprises a light reflection unit disposed to be spaced from the resin layer ; and an indirect radiation air gap is disposed between the both side of the resin layer and the light reflection unit , wherein a bottom surface of the light reflection unit is positioned at a lower level than a bottom surface of the resin layer , and wherein the light reflection unit and the indirect radiation air gap are formed on both side of the printed circuit board .
Method for controlling instant electrical power supplied by an external electrical source to a railway vehicle (300; 400), said method comprising at least one iteration of a phase , referred to as a control phase, comprising the following steps: - receiving , at said railway vehicle (300; 400), a request, referred to as an erasure request, to modify the instant power supplied by said external source to said vehicle (300; 400); - switching at least some of the power supply of at least one electrical auxiliary of said railway vehicle (300; 400), previously powered by said external source , to an on-board electrical source in said railway vehicle (300; 400), while said external source powers the electric traction motor of said railway vehicle (300; 400); and - powering said at least one electrical auxiliary by means of said on-board electrical source . - receiving , at said railway vehicle (300; 400), a request, referred to as an erasure request, to modify the instant power supplied by said external source to said vehicle (300; 400); - switching at least some of the power supply of at least one electrical auxiliary of said railway vehicle (300; 400), previously powered by said external source , to an on-board electrical source in said railway vehicle (300; 400), while said external source powers the electric traction motor of said railway vehicle (300; 400); and - powering said at least one electrical auxiliary by means of said on-board electrical source .
A laundry product comprising two sheets including water-soluble polymer and having different dissolution rates in water, a first sheet and a second sheet having different dissolution rates, wherein the first sheet comprises a detergent component for washing and a first water-soluble polymer; and the second sheet comprises a softening component for washing and a second water-soluble polymer, wherein the second sheet dissolves in water more slowly than the first sheet, wherein the softening component for washing and the detergent component for washing are prevented from forming a complex, and wherein a dissolution rate difference between the first sheet and the second sheet is from 3 to 10 minutes when 0.5g is dissolved in 300ml of water. a first sheet and a second sheet having different dissolution rates, wherein the first sheet comprises a detergent component for washing and a first water-soluble polymer; and the second sheet comprises a softening component for washing and a second water-soluble polymer, wherein the second sheet dissolves in water more slowly than the first sheet, wherein the softening component for washing and the detergent component for washing are prevented from forming a complex, and wherein a dissolution rate difference between the first sheet and the second sheet is from 3 to 10 minutes when 0.5g is dissolved in 300ml of water.
Spraying device for mixtures obtained from the reaction of polymer materials, comprising: - a casing which encloses at least one mixing chamber and which is provided at one of its ends with a nozzle ; - a mixer which extends at least partially inside the mixing chamber along a longitudinal axis (X) of said mixing chamber and which is designed to rotate about said longitudinal axis (X); the mixer being intended to mix together at least two reactive polymer components introduced inside the mixing chamber so as to obtain a polymer mixture; said polymer mixture being suitable for being sprayed through the nozzle in the form of a spray cone (Z), characterized in that the mixer is provided with an appendix which protrudes, at least partially, from the casing through the nozzle ; said appendix being provided with a deviation surface , on the outside of the nozzle , which is inclined at an angle of deviation (α) relative to the longitudinal axis (X) and which is intended to intercept and to deviate at least a first portion (K) of the spray cone (Z) sprayed through the nozzle . - a casing which encloses at least one mixing chamber and which is provided at one of its ends with a nozzle ; - a mixer which extends at least partially inside the mixing chamber along a longitudinal axis (X) of said mixing chamber and which is designed to rotate about said longitudinal axis (X); the mixer being intended to mix together at least two reactive polymer components introduced inside the mixing chamber so as to obtain a polymer mixture; said polymer mixture being suitable for being sprayed through the nozzle in the form of a spray cone (Z),