mhurhangee/patent-ind-claim-en huggingface dataset:
An apparel item comprising a trim piece , wherein: the apparel item comprises a base layer comprising an inner-facing surface, an outer-facing surface , and a first edge ; the trim piece comprises a first surface , an opposite second surface , a first edge and a second edge opposite the first edge ; the second surface of the trim piece is attached to the outer-facing surface , the first edge , and at least a portion of the inner-facing surface of the base layer; characterized in that the first edge of the trim piece is positioned on the inner-facing surface of the apparel item ; the second edge of the trim piece is positioned on the outer-facing surface of the apparel item ; and at least two-thirds of the trim piece is positioned on the outer-facing surface of the apparel item . the apparel item comprises a base layer comprising an inner-facing surface, an outer-facing surface , and a first edge ; the trim piece comprises a first surface , an opposite second surface , a first edge and a second edge opposite the first edge ; the second surface of the trim piece is attached to the outer-facing surface , the first edge , and at least a portion of the inner-facing surface of the base layer; characterized in that the first edge of the trim piece is positioned on the inner-facing surface of the apparel item ; the second edge of the trim piece is positioned on the outer-facing surface of the apparel item ; and at least two-thirds of the trim piece is positioned on the outer-facing surface of the apparel item .
A method of guiding ions, comprising: providing an ion guide comprising a plurality of electrodes; transmitting ions through said ion guide; confining ions radially within said ion guide by applying one or more voltages to said plurality of electrodes; applying an orthogonal DC field along at least a portion of said ion guide in order to control the temperature of ions as they travel through said ion guide; and applying an electrostatic driving potential to said plurality of electrodes to urge ions along the axial length of the ion guide and control the amount of heating experienced by ions as they travel through the ion guide; characterised in that the method further comprises varying the properties of the electrostatic driving potential to vary the amount of heating for selected ions as they travel through said ion guide. providing an ion guide comprising a plurality of electrodes; transmitting ions through said ion guide; confining ions radially within said ion guide by applying one or more voltages to said plurality of electrodes; applying an orthogonal DC field along at least a portion of said ion guide in order to control the temperature of ions as they travel through said ion guide; and applying an electrostatic driving potential to said plurality of electrodes to urge ions along the axial length of the ion guide and control the amount of heating experienced by ions as they travel through the ion guide; characterised in that the method further comprises varying the properties of the electrostatic driving potential to vary the amount of heating for selected ions as they travel through said ion guide.
A method comprising : - receiving in parallel, by a first data communication circuit , first electric power delivery configuration data and second data , the first circuit forming part of a device comprising a second data communication circuit , and a wireless transmission/reception circuit ; - supplying in series, by the first circuit , the first and second data; and - wirelessly transmitting, by the wireless transmission/reception circuit , the first and second data in series; - wirelessly receiving, by the wireless transmission/reception circuit , third electric power delivery configuration data and fourth data in series; and - supplying in parallel the third and fourth data by the second circuit . - receiving in parallel, by a first data communication circuit , first electric power delivery configuration data and second data , the first circuit forming part of a device comprising a second data communication circuit , and a wireless transmission/reception circuit ; - supplying in series, by the first circuit , the first and second data; and - wirelessly transmitting, by the wireless transmission/reception circuit , the first and second data in series; - wirelessly receiving, by the wireless transmission/reception circuit , third electric power delivery configuration data and fourth data in series; and - supplying in parallel the third and fourth data by the second circuit .
A gas turbine engine configured for use in an aircraft, the gas turbine engine comprising: a turbine ; a combustor for directing air towards the turbine of the engine; and a particle decelerator ; characterized in that the particle decelerator is located between the combustor and the turbine such that air travelling towards the turbine from the combustor must travel through the particle decelerator and in that an area of the particle decelerator is greater than an area of an inlet and an outlet of the particle decelerator , the particle decelerator being configured to retain at least one of particles and objects travelling in use in the particle decelerator . a turbine ; a combustor for directing air towards the turbine of the engine; and a particle decelerator ; characterized in that the particle decelerator is located between the combustor and the turbine such that air travelling towards the turbine from the combustor must travel through the particle decelerator and in that an area of the particle decelerator is greater than an area of an inlet and an outlet of the particle decelerator , the particle decelerator being configured to retain at least one of particles and objects travelling in use in the particle decelerator .
An electrode assembly comprising: an electrode stack comprising a plurality of radical units comprising an electrode and a separator and having a structure in which the plurality of radical units are sequentially stacked, wherein the circumference of the electrode stack is surrounded by a winding separator , a curved surface (C) having a curvature radius is formed on a top or bottom surface of the electrode stack , and the winding separator surrounding the circumference of the electrode stack surrounds the curved surface (C) formed on the electrode stack to maintain a relative distance between the radical units adjacent to each other; wherein the entire circumference of the electrode stack is surrounded by a winding separator ; wherein the curvature radius ranges of 70 mm to 95 mm. an electrode stack comprising a plurality of radical units comprising an electrode and a separator and having a structure in which the plurality of radical units are sequentially stacked, wherein the circumference of the electrode stack is surrounded by a winding separator , a curved surface (C) having a curvature radius is formed on a top or bottom surface of the electrode stack , and the winding separator surrounding the circumference of the electrode stack surrounds the curved surface (C) formed on the electrode stack to maintain a relative distance between the radical units adjacent to each other; wherein the entire circumference of the electrode stack is surrounded by a winding separator ; wherein the curvature radius ranges of 70 mm to 95 mm.
An agent capable of inhibiting IL-36 activation via proteolytic processing by inhibiting IL-36 activation by binding to the IL-36 protease cleavage sites required for activation of IL-36; or by preventing and/or inhibiting the activity of IL-36 activating proteases selected from cathepsin G, elastase or cathepsin K, cathepsin C(DPPI) or proteinase-3 for use in the treatment and/or prevention of inflammatory skin disorders; wherein the agent is a peptide selected from one or more of the following: (i) Lys-Ala-Leu (KAL); (ii) Ala-Leu-Ala (ALA); (iii) Met-Ala-Leu-Ala (MALA); (iv) Asp-Pro-Gln-Arg (NPQR); (v) Pro-Gln-Arg (PQR); (vi) Gln-Arg-Glu-Ala (QREA); (vii) Arg-Ala-Val (RAV); (viii) Arg-AlaGly-Arg-Ala-Val (GRAV); (ix) Ala-Val-Tyr-Gln (AVYQ); (x) Lys-Ala-Leu-CMK (KAL-CMK); (xi) Ala-Leu-Ala-CMK (ALA-CMK); (xii) Met-Ala-Leu-Ala-CMK (MALA-CMK); (xiii) Asp-Pro-Gln-Arg-CMK (NPQR-CMK); (xiv) Pro-Gln-Arg-CMK (PQR-CMK); (xv) Gln-Arg-Glu-Ala-CMK (QREA-CMK); (xvi) Arg-Ala-Val-CMK (RAV-CMK); (xvii) Gly-Arg-Ala-Val-CMK (GRAV-CMK); (xviii) Ala-Val-Tyr-Gln-CMK (AVYQ-CMK); (xix) Phe-Leu-Phe (FLF); (xx) Glu-Pro-Phe (EPF); (xxi) Ala-Phe-Leu-Phe (AFLF); (xxii) Lys-Ala-Leu (KAL); (xxiii) Phe-Leu-Phe-CMK (FLF-CMK); (xxiv) Glu-Pro-Phe-CMK (EPF-CMK); (xxv) Ala-Phe-Leu-Phe-CMK (AFLF-CMK); (xxvi) Lys-Ala-Leu-CMK (KAL-CMK); (xxvii) Arg-Ala-Val (RAV); (xxviii) Ala-Pro-Leu (APL); (xxix) Pro-Gln-Arg (PQR); (xxx) Arg-Pro-Leu (RPL); (xxxi) Arg-Ala-Val-CMK (RAV-CMK); (xxxii) Ala-Pro-Leu-CMK (APL-CMK); (xxxiii) Pro-Gln-Arg-CMK (PQR-CMK); and (xxxiv) Arg-Pro-Leu-CMK (RPL-CMK); or derivatives, peptidomimetic or combinations thereof.. (i) Lys-Ala-Leu (KAL); (ii) Ala-Leu-Ala (ALA); (iii) Met-Ala-Leu-Ala (MALA); (iv) Asp-Pro-Gln-Arg (NPQR); (v) Pro-Gln-Arg (PQR); (vi) Gln-Arg-Glu-Ala (QREA); (vii) Arg-Ala-Val (RAV); (viii) Arg-AlaGly-Arg-Ala-Val (GRAV); (ix) Ala-Val-Tyr-Gln (AVYQ); (x) Lys-Ala-Leu-CMK (KAL-CMK); (xi) Ala-Leu-Ala-CMK (ALA-CMK); (xii) Met-Ala-Leu-Ala-CMK (MALA-CMK); (xiii) Asp-Pro-Gln-Arg-CMK (NPQR-CMK); (xiv) Pro-Gln-Arg-CMK (PQR-CMK); (xv) Gln-Arg-Glu-Ala-CMK (QREA-CMK); (xvi) Arg-Ala-Val-CMK (RAV-CMK); (xvii) Gly-Arg-Ala-Val-CMK (GRAV-CMK); (xviii) Ala-Val-Tyr-Gln-CMK (AVYQ-CMK); (xix) Phe-Leu-Phe (FLF); (xx) Glu-Pro-Phe (EPF); (xxi) Ala-Phe-Leu-Phe (AFLF); (xxii) Lys-Ala-Leu (KAL); (xxiii) Phe-Leu-Phe-CMK (FLF-CMK); (xxiv) Glu-Pro-Phe-CMK (EPF-CMK); (xxv) Ala-Phe-Leu-Phe-CMK (AFLF-CMK); (xxvi) Lys-Ala-Leu-CMK (KAL-CMK); (xxvii) Arg-Ala-Val (RAV); (xxviii) Ala-Pro-Leu (APL); (xxix) Pro-Gln-Arg (PQR); (xxx) Arg-Pro-Leu (RPL); (xxxi) Arg-Ala-Val-CMK (RAV-CMK); (xxxii) Ala-Pro-Leu-CMK (APL-CMK); (xxxiii) Pro-Gln-Arg-CMK (PQR-CMK); and (xxxiv) Arg-Pro-Leu-CMK (RPL-CMK);
A tire cord fabric including: a plurality of tire cords which are arranged in parallel to each other; a weft yarn which weaves the tire cords to conduct a weaving operation; and a conductive fiber characterized in that said conductive fiber comes into contact with the surface of the tire cord and extends in a longitudinal direction of the tire cord , wherein the conductive fiber is a fiber having metal plated on the surface thereof. a plurality of tire cords which are arranged in parallel to each other; a weft yarn which weaves the tire cords to conduct a weaving operation; and a conductive fiber characterized in that said conductive fiber comes into contact with the surface of the tire cord and extends in a longitudinal direction of the tire cord , wherein the conductive fiber is a fiber having metal plated on the surface thereof.
A switching method, comprising: configuring(S201), by a base station, a switching message for a narrow-bandwidth receiving mode, the switching message comprising time when a terminal is indicated to enter the narrow-bandwidth receiving mode and a position of a narrow bandwidth on a frequency band when the narrow-bandwidth receiving mode is entered; and sending(S202)the switching message to the terminal to indicate the terminal to switch to the narrow bandwidth specified in the switching message for information reception, the narrow bandwidth being smaller than a system bandwidth; characterized in that the method further comprises: pre-configuring a duration of narrow-band signal detection of the terminal in the narrow-bandwidth receiving mode and an interval period of the narrow-band signal detection, and sending the duration of the narrow-band signal detection and the interval period of the narrow-band signal detection to the terminal; or, sending time information of stopping narrow-band signal detection and restarting narrow-band signal detection to the terminal. configuring(S201), by a base station, a switching message for a narrow-bandwidth receiving mode, the switching message comprising time when a terminal is indicated to enter the narrow-bandwidth receiving mode and a position of a narrow bandwidth on a frequency band when the narrow-bandwidth receiving mode is entered; and sending(S202)the switching message to the terminal to indicate the terminal to switch to the narrow bandwidth specified in the switching message for information reception, the narrow bandwidth being smaller than a system bandwidth; characterized in that the method further comprises: pre-configuring a duration of narrow-band signal detection of the terminal in the narrow-bandwidth receiving mode and an interval period of the narrow-band signal detection, and sending the duration of the narrow-band signal detection and the interval period of the narrow-band signal detection to the terminal; or, sending time information of stopping narrow-band signal detection and restarting narrow-band signal detection to the terminal. pre-configuring a duration of narrow-band signal detection of the terminal in the narrow-bandwidth receiving mode and an interval period of the narrow-band signal detection, and sending the duration of the narrow-band signal detection and the interval period of the narrow-band signal detection to the terminal; or, sending time information of stopping narrow-band signal detection and restarting narrow-band signal detection to the terminal.
A self-sealing end fitting comprising: a valve defining a longitudinal axis and including a first end portion , a second end portion , a flange disposed between the first end portion and the second end portion , and an axially disposed central bore ; an adaptor having a first end portion surrounding at least the second end portion of the valve ; and a connector surrounding at least the first end portion of the valve , wherein a portion of the valve , a portion of the connector , and a portion of the first end portion of the adaptor define a pocket ; the valve is configured to move axially relative to the adaptor ; a sealing surface of the flange contacts a corresponding sealing surface of the first end portion of the adaptor to form a first seal within the pocket ; and the first seal comprises a metal-to-metal seal; characterized in that : the sealing surface of the valve and the corresponding sealing surface of the adaptor are angled in mating fashion relative to the longitudinal axis . a valve defining a longitudinal axis and including a first end portion , a second end portion , a flange disposed between the first end portion and the second end portion , and an axially disposed central bore ; an adaptor having a first end portion surrounding at least the second end portion of the valve ; and a connector surrounding at least the first end portion of the valve , wherein a portion of the valve , a portion of the connector , and a portion of the first end portion of the adaptor define a pocket ; the valve is configured to move axially relative to the adaptor ; a sealing surface of the flange contacts a corresponding sealing surface of the first end portion of the adaptor to form a first seal within the pocket ; and the first seal comprises a metal-to-metal seal; characterized in that : the sealing surface of the valve and the corresponding sealing surface of the adaptor are angled in mating fashion relative to the longitudinal axis .
A computer-implemented method for quantum-safe quantum streaming of data items from a first endpoint device to a second endpoint device via a server (104a-104n) of a quantum cloud platform , the method, performed at the first endpoint device, comprising: splitting a data item into a plurality of data shards that allow reconstruction of the data item; encrypting each of the data shards separately using a first cryptographic key ,wherein the first cryptographic key is shared between the first endpoint device and the second endpoint device; establishing a first plurality of secure channels with a server of a quantum cloud platform using a second cryptographic key, wherein the second cryptographic key is shared between the first endpoint device and the server; and transmitting the plurality of encrypted data shards towards the second endpoint device via the server over the first plurality of secure channels. splitting a data item into a plurality of data shards that allow reconstruction of the data item; encrypting each of the data shards separately using a first cryptographic key ,wherein the first cryptographic key is shared between the first endpoint device and the second endpoint device; establishing a first plurality of secure channels with a server of a quantum cloud platform using a second cryptographic key, wherein the second cryptographic key is shared between the first endpoint device and the server; and transmitting the plurality of encrypted data shards towards the second endpoint device via the server over the first plurality of secure channels.
A prodrug compound of the formula I-A or pharmaceutically acceptable salts thereof wherein ring A is the stereochemistry of an asymmetric carbon represented by * shows R- or S- configuration, or a mixture thereof, m is 0, 1, 2, or 3, and wherein R is a fatty acid residue, wherein the fatty acid is selected from caprylic acid, capric acid, lauric acid, myristic acid, palmitic acid, stearic acid, arachidic acid, behenic acid, myristoleic acid, palmitoleic acid, sapienic acid, oleic acid, elaidic acid, vaccenic acid, linoleic acid, linoelaidic acid, α-linolenic acid, arachidonic acid, eicosapentaenoic acid, erucic acid, and docosahexaenoic acid. or pharmaceutically acceptable salts thereof wherein ring A is the stereochemistry of an asymmetric carbon represented by * shows R- or S- configuration, or a mixture thereof, m is 0, 1, 2, or 3, and wherein R is a fatty acid residue, wherein the fatty acid is selected from caprylic acid, capric acid, lauric acid, myristic acid, palmitic acid, stearic acid, arachidic acid, behenic acid, myristoleic acid, palmitoleic acid, sapienic acid, oleic acid, elaidic acid, vaccenic acid, linoleic acid, linoelaidic acid, α-linolenic acid, arachidonic acid, eicosapentaenoic acid, erucic acid, and docosahexaenoic acid. the stereochemistry of an asymmetric carbon represented by * shows R- or S- configuration, or a mixture thereof, m is 0, 1, 2, or 3, and wherein R is a fatty acid residue, wherein the fatty acid is selected from caprylic acid, capric acid, lauric acid, myristic acid, palmitic acid, stearic acid, arachidic acid, behenic acid, myristoleic acid, palmitoleic acid, sapienic acid, oleic acid, elaidic acid, vaccenic acid, linoleic acid, linoelaidic acid, α-linolenic acid, arachidonic acid, eicosapentaenoic acid, erucic acid, and docosahexaenoic acid.
A conductive filler obtainable by the method of claim 10, comprising a copper alloy powder comprising at least one transition metal belonging to group 8 to group 10 of the periodic table, and a carbon allotrope covering a surface of the copper alloy powder, wherein the carbon allotrope is a carbon nanofiber, wherein a content of the transition metal in the copper alloy powder is 0.1 to 6.0% by weight based on 100% by weight of the copper alloy powder, wherein one ends of a large number of carbon nanofibers are bonded to the copper alloy powder surface.
A drag reducing composition comprising: (a) a plurality of first particles comprising a polyalphaolefin drag reducing polymer; and (b) a plurality of second particles comprising a non-polyalphaolefin drag reducing polymer, wherein at least a portion of said second particles are formed via emulsion polymerization; wherein said composition has a cumulative concentration of said polyalphaolefin drag reducing polymer and said non-polyalphaolefin drag reducing polymer of at least 35 weight percent. (a) a plurality of first particles comprising a polyalphaolefin drag reducing polymer; and (b) a plurality of second particles comprising a non-polyalphaolefin drag reducing polymer, wherein at least a portion of said second particles are formed via emulsion polymerization;
Hot air device particularly for heating glasses frames for the purpose of shaping said frames, consisting of - a blowing device with a fan impeller that can be driven by an electric motor ; - an electric heating device ; and - an air output device , said electric motor being a variable-speed motor, characterised in that an unobstructed distance (AHF) is selected between the blowing device and the heating device such that a uniform air flow generated by the fan impeller is adjusted at at least one inlet of the heating device , and in that the heating device is held in an air duct , which extends conically from an area with the smallest diameter both in the direction of the air output device and in the direction of the blowing device . - a blowing device with a fan impeller that can be driven by an electric motor ; - an electric heating device ; and - an air output device ,
A pharmaceutical formulation, comprising a methanesulfonic acid salt of the compound of Formula 1 : and one or more pharmaceutically acceptable excipients in an amount of 10% to 98% of the pharmaceutical formulation by weight, wherein the methanesulfonic acid salt comprises the compound of formula 1 and methanesulfonic acid (MeSO 3 H) in 1:0.8 to 1:1.2 mole ratio.
A hydrostatic advanced low leakage seal configured to be disposed between relatively rotatable components, the seal comprising: a base ; a shoe extending circumferentially; a radially outer beam operatively coupling the shoe to the base ; and a radially inner beam operatively coupling the shoe to the base , wherein one of the radially inner beam and the radially outer beam is oriented to be angled relative to the other of the radially inner and outer beam, characterized in that the radially outer beam and the radially inner beam are joined to each other by an end segment . a base ; a shoe extending circumferentially; a radially outer beam operatively coupling the shoe to the base ; and a radially inner beam operatively coupling the shoe to the base , wherein one of the radially inner beam and the radially outer beam is oriented to be angled relative to the other of the radially inner and outer beam, characterized in that the radially outer beam and the radially inner beam are joined to each other by an end segment .