mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing a durable and inspectable tensile member assembly including synthetic fibers as a primary tension-carrying element, the method comprising the steps of: a. providing a core of synthetic fibers, said core having a first end; b. attaching a first fixed termination to said first end of said core; c. providing a first inspection region proximate said first fixed termination ,; d. providing a jacket surrounding said core but not covering said first inspection region; e. wherein said jacket protects said core of synthetic fibers; f. providing a first removable cover configured to selectably cover said first inspection region; and g. said first removable cover providing a seal over said first inspection area; h. removing said first removable cover to permit inspection of said core within said first inspection area wherein the seal provided by the first removable cover is removable to allow said inspection region to selectively provide access to at least one critical tensile member assembly area while the fixed termination remains in place and in that said first removable cover is releasably engageable with the jacket and/or the first fixed termination to prevent the ingress of unwanted factors. a. providing a core of synthetic fibers, said core having a first end; b. attaching a first fixed termination to said first end of said core; c. providing a first inspection region proximate said first fixed termination ,; d. providing a jacket surrounding said core but not covering said first inspection region; e. wherein said jacket protects said core of synthetic fibers; f. providing a first removable cover configured to selectably cover said first inspection region; and g. said first removable cover providing a seal over said first inspection area; h. removing said first removable cover to permit inspection of said core within said first inspection area
A system comprising: an active agent; a pharmaceutically acceptable carrier; a signal generation component for emitting a current, the signal generation component comprising: a circuitry layer on a silicon support layer ; a first metal layer electrically coupled to the circuitry layer; and a second metal layer electrically coupled to the circuitry layer and electrically isolated from the first metal layer ; wherein the first metal layer and the second metal layer are made from different materials selected to provide a voltage potential difference as a result of the materials being in contact with a conducting liquid to power the signal generation component , wherein the circuitry layer and the silicon support layer are positioned between the metal layers; wherein the circuitry layer is configured to produce in the conducting liquid a current between the first metal layer and the second metal layer , an activation component configured to activate the signal generation component to generate the current through the conducting liquid; and a receiver configured to remotely detect the emitted current. a circuitry layer on a silicon support layer ; a first metal layer electrically coupled to the circuitry layer; and a second metal layer electrically coupled to the circuitry layer and electrically isolated from the first metal layer ;
A Printed Circuit Board (PCB) mounting structure, comprising: a chassis on which a plurality of board resting portions are disposed; a PCB resting on the plurality of board resting portions ; a mounting portion disposed on a respective board resting portion of the plurality of board resting portions ; and a mounting member fixed on the PCB , and removably coupleable with the mounting portion by a sliding movement of the PCB , wherein the mounting member includes a support portion supported on the PCB and a pressing portion extending from the support portion , wherein the mounting portion is bonded on the respective board resting portion and electrically connected to the respective board resting portion , wherein the mounting portion comprises a neck connected to the respective board resting portion , and a head connected to the neck and having a cross-sectional area wider than a cross-sectional area of the neck , wherein the pressing portion of the mounting member presses the head of the mounting portion when the PCB is coupled, and characterized in that : the mounting portion comprises a stopper protruding from the head towards the PCB , and the mounting member comprises a stopper accommodating groove formed in the pressing portion. a chassis on which a plurality of board resting portions are disposed; a PCB resting on the plurality of board resting portions ; a mounting portion disposed on a respective board resting portion of the plurality of board resting portions ; and a mounting member fixed on the PCB , and removably coupleable with the mounting portion by a sliding movement of the PCB , wherein the mounting member includes a support portion supported on the PCB and a pressing portion extending from the support portion , wherein the mounting portion is bonded on the respective board resting portion and electrically connected to the respective board resting portion , wherein the mounting portion comprises a neck connected to the respective board resting portion , and a head connected to the neck and having a cross-sectional area wider than a cross-sectional area of the neck , wherein the pressing portion of the mounting member presses the head of the mounting portion when the PCB is coupled, and characterized in that : the mounting portion comprises a stopper protruding from the head towards the PCB , and the mounting member comprises a stopper accommodating groove formed in the pressing portion. the mounting portion comprises a stopper protruding from the head towards the PCB , and the mounting member comprises a stopper accommodating groove formed in the pressing portion.
A caliper and supporting assembly for a disc brake, wherein an axial direction (X-X) is defined, either coinciding with or parallel to the rotation axis of a disc of the disc brake, a radial direction (R-R) orthogonal to the axial direction (X-X), and a tangential (T-T) or circumferential (T-T) direction, orthogonal both to the axial direction (X-X) and to the radial direction (R-R); - said caliper and supporting assembly comprising a brake caliper comprising a caliper body , adapted to straddle an associable disc of the disc brake; - said caliper and supporting assembly comprising a supporting element connected to said caliper body ; wherein - said caliper body comprising a first portion ; - said supporting element comprising a second portion ; - during the braking action the caliper body is elastically deformed according to at least one predetermined direction (T-T), thereby determining the displacement in at least said predetermined direction (T-T) of the first portion of the caliper body with respect to said second portion of the supporting element ; - said caliper and supporting assembly comprises at least one detecting device which detects a distance (d) along at least said predetermined direction (T-T) between said first portion of the caliper body and said second portion of the supporting element . - said caliper and supporting assembly comprising a brake caliper comprising a caliper body , adapted to straddle an associable disc of the disc brake; - said caliper and supporting assembly comprising a supporting element connected to said caliper body ; wherein - said caliper body comprising a first portion ; - said supporting element comprising a second portion ; - during the braking action the caliper body is elastically deformed according to at least one predetermined direction (T-T), thereby determining the displacement in at least said predetermined direction (T-T) of the first portion of the caliper body with respect to said second portion of the supporting element ; - said caliper and supporting assembly comprises at least one detecting device which detects a distance (d) along at least said predetermined direction (T-T) between said first portion of the caliper body and said second portion of the supporting element .
An article comprising: a carrier comprising a carrier bonding surface ; a sheet comprising a sheet bonding surface ; and a surface modification layer disposed on at least one of the carrier bonding surface and the sheet bonding surface , wherein the surface modification layer comprises a plasma polymerized material, wherein the plasma polymerized material planarizes the at least one of the carrier bonding surface and the sheet bonding surface , and wherein the carrier bonding surface and the sheet bonding surface are bonded with the surface modification layer so that the carrier is temporarily bonded to the sheet ; wherein the at least one of the carrier bonding surface and the sheet bonding surface has a surface roughness Rq within a range of 0.8 nm to 5.0 nm; and wherein the at least one of the planarized carrier bonding surface and the planarized sheet bonding surface has a surface roughness Rq less than 0.8 nm. a carrier comprising a carrier bonding surface ; a sheet comprising a sheet bonding surface ; and a surface modification layer disposed on at least one of the carrier bonding surface and the sheet bonding surface , wherein the surface modification layer comprises a plasma polymerized material, wherein the plasma polymerized material planarizes the at least one of the carrier bonding surface and the sheet bonding surface , and wherein the carrier bonding surface and the sheet bonding surface are bonded with the surface modification layer so that the carrier is temporarily bonded to the sheet ; wherein the at least one of the carrier bonding surface and the sheet bonding surface has a surface roughness Rq within a range of 0.8 nm to 5.0 nm; and wherein the at least one of the planarized carrier bonding surface and the planarized sheet bonding surface has a surface roughness Rq less than 0.8 nm.
A fixed dosage reconstituted high density lipoprotein (rHDL) formulation comprising Apo-A1, a lipid and a detergent, for use in prophylactically or therapeutically treating a disease, disorder or condition in a human selected from the group of cardiovascular disease, hypercholesterolaemia or hypocholesterolaemia, acute coronary syndrome (ACS), atherosclerosis, unstable angina pectoris, and myocardial infarction wherein the rHDL formulation is therapeutically effective upon administration to a human of any body weight in the body weight range 60-120 kg, wherein the fixed dosage comprises an amount of Apo-AI in a range selected from: 5-6g and 6-7g of apolipoprotein, and the Apo-AI is purified from plasma, the lipid is phosphatidylcholine, and the detergent is sodium cholate, the ratio between the apolipoprotein and the lipid is from 1:40 to 1:75 (mol:mol), and the sodium cholate is present at a concentration of 0.5 to 0.9 g/L.
A source device comprising: an interface ; and a processor configured to: control the interface to transmit a scene among a plurality of scenes forming HDR, high dynamic range, content to a sink device , which is arranged to reproduce the HDR content, and control the interface to transmit, to the sink device, image quality-related data of a next scene from among the plurality of scenes, wherein the image quality-related data of the next scene includes at least one of information on maximum brightness, average brightness, minimum brightness, colorimetry, cadence, sharpness improvement and noise reduction, a motion characteristic, an original resolution of the images forming the next scene, the image quality-related data being transmitted before the next scene is transmitted, wherein the processor is arranged to: identify a reproducing time of each of the scenes; identify the size of the image quality-related data of each of the scenes, and control the interface to transmit only a part of the image quality-related data that has the most significant effect on the image quality improvement regarding the next scene if the scene has a shorter reproducing time than the time required to transmit all of the image quality-related data for the next scene. an interface ; and a processor configured to: control the interface to transmit a scene among a plurality of scenes forming HDR, high dynamic range, content to a sink device , which is arranged to reproduce the HDR content, and control the interface to transmit, to the sink device, image quality-related data of a next scene from among the plurality of scenes, wherein the image quality-related data of the next scene includes at least one of information on maximum brightness, average brightness, minimum brightness, colorimetry, cadence, sharpness improvement and noise reduction, a motion characteristic, an original resolution of the images forming the next scene, the image quality-related data being transmitted before the next scene is transmitted, wherein the processor is arranged to: identify a reproducing time of each of the scenes; identify the size of the image quality-related data of each of the scenes, and control the interface to transmit only a part of the image quality-related data that has the most significant effect on the image quality improvement regarding the next scene if the scene has a shorter reproducing time than the time required to transmit all of the image quality-related data for the next scene. identify a reproducing time of each of the scenes; identify the size of the image quality-related data of each of the scenes, and control the interface to transmit only a part of the image quality-related data that has the most significant effect on the image quality improvement regarding the next scene if the scene has a shorter reproducing time than the time required to transmit all of the image quality-related data for the next scene.
An anti-theft method for an electric vehicle, characterized in that the anti-theft method comprises: activating an electronic anti-theft function (S10); determining whether the electric vehicle is moving (S20); determining whether the temperature of the motor is greater than a critical value (S30); and when a temperature of the motor of the electric vehicle exceeds the critical value, reversing the motor to generate a reverse resistance (S42). activating an electronic anti-theft function (S10); determining whether the electric vehicle is moving (S20); determining whether the temperature of the motor is greater than a critical value (S30); and when a temperature of the motor of the electric vehicle exceeds the critical value, reversing the motor to generate a reverse resistance (S42).
A method comprising: receiving, by a first cloud node , a service request from a second cloud node for a frequency allocation in a shared portion of a spectrum to be shared between at least a radar and a user equipment; in response to said receiving, synchronizing by the first cloud node first spectrum information collected by a sensor with second spectrum information stored in a centralized shared spectrum database, wherein the second spectrum information stored in the centralized shared spectrum database includes radar information and possible interferer information, wherein the radar information includes at least one of a physical location of a radar, a location of a radar main beam, a frequency of the radar, or a rotation pattern of the radar; in response to said synchronizing, determining by the first cloud node if the shared portion of the spectrum is available; and in response to said determining, sending, by the first cloud node, available frequency information to the second cloud node to cause the second cloud node to use or inhibit use of the shared portion of the spectrum for a user equipment channel allocation. receiving, by a first cloud node , a service request from a second cloud node for a frequency allocation in a shared portion of a spectrum to be shared between at least a radar and a user equipment; in response to said receiving, synchronizing by the first cloud node first spectrum information collected by a sensor with second spectrum information stored in a centralized shared spectrum database, wherein the second spectrum information stored in the centralized shared spectrum database includes radar information and possible interferer information, wherein the radar information includes at least one of a physical location of a radar, a location of a radar main beam, a frequency of the radar, or a rotation pattern of the radar; in response to said synchronizing, determining by the first cloud node if the shared portion of the spectrum is available; and in response to said determining, sending, by the first cloud node, available frequency information to the second cloud node to cause the second cloud node to use or inhibit use of the shared portion of the spectrum for a user equipment channel allocation.
A yarn winding device comprising: a yarn supplying section adapted to support a yarn supplying bobbin on which a yarn is wound; a winding section adapted wind the yarn pulled from the yarn supplying bobbin supported in the yarn supplying section ; a yarn-end blower adapted to blow off a yarn end from the yarn supplying bobbin to the winding section side by blowing an air current; and a yarn catching section (14; 90) adapted to catch the yarn end blown off by the yarn-end blower , wherein the yarn catching section (14; 90) includes a main body (72; 94); and a suction section (74; 96) that is constituted by a cylindrical member on which a suction port (74a; 96a) adapted to suck the yarn is formed, wherein the suction section (74; 96) is arranged so as to be capable of performing a reciprocating linear movement in an axial direction of the cylindrical member in the main body (72; 94), in which a suction force is generated in the suction port (74a; 96a) when the suction section (74; 96) is at a first position that is near a yarn path of the yarn that moves from the yarn supplying section to the winding section , characterized in that the suction force is not generated in the suction port (74a; 96a) when the suction section (74; 96) is at a second position that is retracted from the yarn path, and the yarn catching section includes a shutter adapted to open or close the suction port in accordance with a movement of the suction section . a yarn supplying section adapted to support a yarn supplying bobbin on which a yarn is wound; a winding section adapted wind the yarn pulled from the yarn supplying bobbin supported in the yarn supplying section ; a yarn-end blower adapted to blow off a yarn end from the yarn supplying bobbin to the winding section side by blowing an air current; and a yarn catching section (14; 90) adapted to catch the yarn end blown off by the yarn-end blower , wherein the yarn catching section (14; 90) includes a main body (72; 94); and a suction section (74; 96) that is constituted by a cylindrical member on which a suction port (74a; 96a) adapted to suck the yarn is formed, wherein the suction section (74; 96) is arranged so as to be capable of performing a reciprocating linear movement in an axial direction of the cylindrical member in the main body (72; 94), in which a suction force is generated in the suction port (74a; 96a) when the suction section (74; 96) is at a first position that is near a yarn path of the yarn that moves from the yarn supplying section to the winding section , characterized in that the suction force is not generated in the suction port (74a; 96a) when the suction section (74; 96) is at a second position that is retracted from the yarn path, and the yarn catching section includes a shutter adapted to open or close the suction port in accordance with a movement of the suction section .
Heated toilet seat comprising a resin-based seat body and a resistive circuit made of electrically conducting paint to heat the seat body , wherein said resistive circuit is printed on a paper sheet , and said seat comprises connection means that connect electrically the resistive circuit made of conductive paint to an electrical power supply, wherein the heated toilet seat is obtained by a process comprising the steps of; a) introducing the powdered base resin in a mould; b) pressing the mould at a temperature between 150oC and 190oC to conform the base resin of the seat body ; c) incorporating in the mould the printed resistive circuit made of electrically conducting paint, where said resistive circuit of conducting paint is printed on the paper sheet such that it defines a conducting track susceptible of being arranged in correspondence with the conformed seat body ; and d) pressing the mould again to adhere or integrate by pressing the printed resistive circuit made of conducting paint in the resin base of the seat body . a) introducing the powdered base resin in a mould; b) pressing the mould at a temperature between 150oC and 190oC to conform the base resin of the seat body ; c) incorporating in the mould the printed resistive circuit made of electrically conducting paint, where said resistive circuit of conducting paint is printed on the paper sheet such that it defines a conducting track susceptible of being arranged in correspondence with the conformed seat body ; and d) pressing the mould again to adhere or integrate by pressing the printed resistive circuit made of conducting paint in the resin base of the seat body .
A method for manufacturing a III-V engineered substrate comprising: providing a base substrate (I) comprising an upper layer made of a first III-V compound with a crystal orientation being any of the crystallographic planes , or any of their crystallographic equivalent planes, epitaxially growing an intermediate layer (II) comprising epitaxially growing at least a buffer layer made of a second III-V compound, wherein the intermediate layer (II) is overlying and in contact with the upper layer of the base substrate and, thereafter, epitaxially growing a pseudomorphic passivation layer made of a group IV semiconductor material, wherein the pseudomorphic passivation layer is overlying and in contact with the intermediate layer (II), and has a thickness below a critical thickness such that it is lattice matched with the intermediate layer (II); and depositing a high-k dielectric layer on top of said pseudomorphic passivation layer , suitable as a gate dielectric in a transistor structure, wherein the first semiconductor compound is GaAs or InP wherein the second III-V compound is In x Ga (1-x) As, with 0<x<1, and wherein the group IV semiconductor material is Ge. providing a base substrate (I) comprising an upper layer made of a first III-V compound with a crystal orientation being any of the crystallographic planes , or any of their crystallographic equivalent planes, epitaxially growing an intermediate layer (II) comprising epitaxially growing at least a buffer layer made of a second III-V compound, wherein the intermediate layer (II) is overlying and in contact with the upper layer of the base substrate and, thereafter, epitaxially growing a pseudomorphic passivation layer made of a group IV semiconductor material, wherein the pseudomorphic passivation layer is overlying and in contact with the intermediate layer (II), and has a thickness below a critical thickness such that it is lattice matched with the intermediate layer (II); and depositing a high-k dielectric layer on top of said pseudomorphic passivation layer , suitable as a gate dielectric in a transistor structure, wherein the first semiconductor compound is GaAs or InP wherein the second III-V compound is In x Ga (1-x) As, with 0<x<1, and wherein the group IV semiconductor material is Ge.