mhurhangee/patent-ind-claim-en huggingface dataset:
Method of adjusting a photo finish camera , said photo finish camera including a colour filter and a digital array sensor , said photo finish camera being mounted to rotate about a ball and socket joint possessing three degrees of freedom in rotation (R1, R2, R3) and also possessing one degree of freedom in translation (T) in the direction of the race, said colour filter being formed of a two-dimensional pixel array, each pixel corresponding to a given colour, said pixel array being formed by alternating first columns of coloured pixels and second columns of white pixels (W), characterised in that each first column of coloured pixels includes a basic sequence (A) of pixels repeated over the entire first column of coloured pixels, said basic sequence (A) of pixels including at least three pixels of three different colours, and each said basic sequence (A) of a first said column of coloured pixels being offset in height by one pixel relative to each of said basic sequences (A) of said adjacent first columns of coloured pixels, the filter allowing different patterns to be defined, the method being characterised in that it includes the following steps: - a first step (E1) of selecting a basic pattern including at least three pixels of different colours and having optical properties of sensitivity (S), of colour quality (Q) and of resolution (N) which are predefined according to race parameters, the colour quality (Q) being defined as a value that is inversely proportional to the number of rows of the basic pattern, the resolution (N) being defined as a value equal to the number of columns of the basic pattern; - a second step (E2) of software selection of a set of adjacent columns whose number corresponds to the width of said selected basic pattern; - a third step (E3) of centring said set of adjacent columns on the finish line . - a first step (E1) of selecting a basic pattern including at least three pixels of different colours and having optical properties of sensitivity (S), of colour quality (Q) and of resolution (N) which are predefined according to race parameters, the colour quality (Q) being defined as a value that is inversely proportional to the number of rows of the basic pattern, the resolution (N) being defined as a value equal to the number of columns of the basic pattern; - a second step (E2) of software selection of a set of adjacent columns whose number corresponds to the width of said selected basic pattern; - a third step (E3) of centring said set of adjacent columns on the finish line .
Use of a masking sheet for chemical solution treatment in an anodizing process of a metal member, the masking sheet comprising a substrate having first and second faces, and a pressure-sensitive adhesive layer placed on the first face side of the substrate, with the masking sheet being constituted so that penetration of a chemical solution into the masking sheet is visually detectable when inspected from the outer face side of the masking sheet, as defined in the specification, wherein the masking sheet has a haze value of 90% or lower at least in some areas, wherein the substrate comprises a non-metal substrate, and wherein the pressure-sensitive adhesive layer is formed of a rubber-based pressure-sensitive adhesive, wherein the haze value is expressed by the equation Th (%) = Td/Tt×100, wherein Th is the haze value (%), Td is the diffused light transmittance, and Tt is the total light transmittance, wherein the haze value (%) is measured based on JIS-K7136, wherein the substrate comprises a resin film, wherein the resin film is selected from the group comprising polyester resins, polyolefinic resins, polyamide resins, polyimide resins, polyamide-imide resins, polyether ether ketone resins, polyethersulfones, polyphenylene sulfide resins, polycarbonate resins, polyurethane resins, ethylene-vinyl acetate resins, fluororesins, such as polytetrafluoroethylene, acrylic resins, or blends thereof, wherein the rubber-based pressure-sensitive adhesive comprises a natural rubber as the rubber-based polymer. a substrate having first and second faces, and a pressure-sensitive adhesive layer placed on the first face side of the substrate, with the masking sheet being constituted so that penetration of a chemical solution into the masking sheet is visually detectable when inspected from the outer face side of the masking sheet, as defined in the specification, wherein the masking sheet has a haze value of 90% or lower at least in some areas, wherein the substrate comprises a non-metal substrate, and wherein the pressure-sensitive adhesive layer is formed of a rubber-based pressure-sensitive adhesive, wherein the haze value is expressed by the equation Th (%) = Td/Tt×100, wherein Th is the haze value (%), Td is the diffused light transmittance, and Tt is the total light transmittance, wherein the haze value (%) is measured based on JIS-K7136, wherein the substrate comprises a resin film, wherein the resin film is selected from the group comprising polyester resins, polyolefinic resins, polyamide resins, polyimide resins, polyamide-imide resins, polyether ether ketone resins, polyethersulfones, polyphenylene sulfide resins, polycarbonate resins, polyurethane resins, ethylene-vinyl acetate resins, fluororesins, such as polytetrafluoroethylene, acrylic resins, or blends thereof, wherein the rubber-based pressure-sensitive adhesive comprises a natural rubber as the rubber-based polymer.
A foil comprising: a carrier substrate , wherein the carrier substrate is substantially transparent for visible light; a line pattern of vapor deposited aluminum layer on the carrier substrate, wherein the line pattern is an alternating pattern of (i) first beam-shaped areas and (ii) second beam-shaped areas, wherein only the first beam shaped areas are comprised of the aluminum layer on the carrier substrate, characterized in that : the second beam-shaped areas are punctured to reduce weight of the foil, and the aluminum layer has a thickness of one atomic layer of aluminum. a carrier substrate , wherein the carrier substrate is substantially transparent for visible light; a line pattern of vapor deposited aluminum layer on the carrier substrate, wherein the line pattern is an alternating pattern of (i) first beam-shaped areas and (ii) second beam-shaped areas, wherein only the first beam shaped areas are comprised of the aluminum layer on the carrier substrate, characterized in that : the second beam-shaped areas are punctured to reduce weight of the foil, and the aluminum layer has a thickness of one atomic layer of aluminum. the second beam-shaped areas are punctured to reduce weight of the foil, and the aluminum layer has a thickness of one atomic layer of aluminum.
An indicator for an inflator , the inflator comprising a firing lever , said firing lever comprising: an upstanding arm and a lower leg portion , characterized in that said indicator comprising a long side wall and a short side wall joined together by a bottom wall to form a generally U-shaped configuration, said long side wall being configured and dimensioned to cover and conceal said upstanding arm of the firing lever of the inflator and said bottom wall being configured and dimensioned to cover and conceal the lower leg portion of the firing lever . an upstanding arm and a lower leg portion , characterized in that said indicator comprising a long side wall and a short side wall joined together by a bottom wall to form a generally U-shaped configuration, said long side wall being configured and dimensioned to cover and conceal said upstanding arm of the firing lever of the inflator and said bottom wall being configured and dimensioned to cover and conceal the lower leg portion of the firing lever .
A tube-shaped spark plug insulator having a through hole extending in a direction of an axial line (CL), the insulator containing alumina, as a main component, and mullite, at at least part of the insulator , wherein the mullite is contained in only an inner circumferential surface side of the tube-shaped insulator and in at least part of the inner circumferential surface of the insulator in an area extending toward a distal end from a portion having a largest outer diameter .
A coordinate mapping system comprising: a positioning instrument for controlled delivery of a device to a target site within a bone, comprising a main body and a rail extending from the main body, the rail including a series of indicia corresponding to predefined grid lines, characterised in that the instrument further provides a series of device portals configured to guide the device into a subchondral region of the bone for treatment at the target site, the series of device portals provided on the rail for access to the target site; and a template configured to overlay an image of the bone having a defect at the target site, the template including a predefined grid (22, 24, 26, 28, G-A, A-G) for determining a set of coordinates to locate the target site using the positioning instrument, wherein at least one of the coordinates represents an angular component for mapping to the target site within the bone, and wherein the template has a shape corresponding to the rail of the positioning instrument. a positioning instrument for controlled delivery of a device to a target site within a bone, comprising a main body and a rail extending from the main body, the rail including a series of indicia corresponding to predefined grid lines, characterised in that the instrument further provides a series of device portals configured to guide the device into a subchondral region of the bone for treatment at the target site, the series of device portals provided on the rail for access to the target site; and a template configured to overlay an image of the bone having a defect at the target site, the template including a predefined grid (22, 24, 26, 28, G-A, A-G) for determining a set of coordinates to locate the target site using the positioning instrument, wherein at least one of the coordinates represents an angular component for mapping to the target site within the bone, and wherein the template has a shape corresponding to the rail of the positioning instrument.
A closure, particularly for closing construction and technological apertures in a vertical and horizontal plane, characterized in that on the bottom side of a cover of an aperture to be closed a rocker arm is pivotally mounted which is provided with an arm which in the open position abuts on the bottom wall of the cover as well as with a lug , the functional part of which abuts is in the closed position of the cover on the opposite element which is anchored in the aperture to be closed, and the cover is provided with a closing hole above the arm of the rocker arm for closing the closure and an opening hole above a lever of the rocker arm for opening the closure.
A method for preparing a contractile construct, comprising (a) seeding immature contractile cells onto the surface of a three-dimensional fibroblast containing scaffold to produce a contractile construct, wherein the immature contractile cells are derived from human induced pluripotent stem cells (hiPSCs) and wherein the immature contractile cells are immature cardiomyocytes; and (b) culturing the contractile construct under conditions to maintain or promote striation formation. (a) seeding immature contractile cells onto the surface of a three-dimensional fibroblast containing scaffold to produce a contractile construct, wherein the immature contractile cells are derived from human induced pluripotent stem cells (hiPSCs) and wherein the immature contractile cells are immature cardiomyocytes; and (b) culturing the contractile construct under conditions to maintain or promote striation formation.
A duct intersection, comprising: a first duct portion; a second duct portion extending laterally from a side of the first duct portion; and at least one flow modifier disposed inside one of the first and second duct portions, wherein the flow modifier is a contoured duct liner comprising: a first contoured wall mated to an inside surface of the duct; and a second contoured wall for modifying the direction of gas flow within the duct intersection mated to the first contoured wall, the second wall including at least one convex surface characterized in that the flow modifier is a layered flow modifier formed by gunning refractory material in layers on an inside surface of the duct intersection at the determined location, thereby providing the convex surface. a first duct portion; a second duct portion extending laterally from a side of the first duct portion; and at least one flow modifier disposed inside one of the first and second duct portions, wherein the flow modifier is a contoured duct liner comprising: a first contoured wall mated to an inside surface of the duct; and a second contoured wall for modifying the direction of gas flow within the duct intersection mated to the first contoured wall, the second wall including at least one convex surface characterized in that the flow modifier is a layered flow modifier formed by gunning refractory material in layers on an inside surface of the duct intersection at the determined location, thereby providing the convex surface. a first contoured wall mated to an inside surface of the duct; and a second contoured wall for modifying the direction of gas flow within the duct intersection mated to the first contoured wall, the second wall including at least one convex surface
A pessary comprising: a stem ; and a mushroom-like shape, extending upwardly from the stem , having a set of radially outwardly hinged top members and bottom members , wherein each top member is connected to a bottom member by a flexible central hinge , wherein the top members are connected at the apex by flexible top hinges and the bottom members are connected to the stem by flexible bottom hinges , wherein, in a compressed orientation the top members and the bottom members each fold radially inwardly along said central hinge that causes the apex to translate axially away from the stem , and in a deployed orientation, the outer perimeter expands radially along the central hinge line as each of the top members and the bottom members deploy via axial bias, characterized in that at least one of the top hinges , the bottom hinges and the central hinges are defined by a thinning of material. a stem ; and a mushroom-like shape, extending upwardly from the stem , having a set of radially outwardly hinged top members and bottom members , wherein each top member is connected to a bottom member by a flexible central hinge , wherein the top members are connected at the apex by flexible top hinges and the bottom members are connected to the stem by flexible bottom hinges , wherein, in a compressed orientation the top members and the bottom members each fold radially inwardly along said central hinge that causes the apex to translate axially away from the stem , and in a deployed orientation, the outer perimeter expands radially along the central hinge line as each of the top members and the bottom members deploy via axial bias, characterized in that at least one of the top hinges , the bottom hinges and the central hinges are defined by a thinning of material.
An imaging detector for capturing optical imaging data and X-ray imaging data, comprising: - a substrate ; - a photosensitive sensor ; - an X-ray scintillator ; and - an array of optical component arrangements ; wherein the photosensitive sensor comprises sensor pixels distributed across the imaging detector; wherein the X-ray scintillator is configured to convert energy of incident X-ray radiation into optical photons; said imaging detector being characterized in that each optical component arrangement comprises at least one optical component configured for directing incident optical radiation towards the photosensitive sensor; wherein the sensor pixels comprise optical pixels , each coupled with a respective optical component arrangement to receive the incident optical radiation, thereby generating the optical imaging data; and wherein the sensor pixels comprise X-ray pixels coupled with the X-ray scintillator to receive the converted optical photons, thereby generating the X-ray imaging data. - a substrate ; - a photosensitive sensor ; - an X-ray scintillator ; and - an array of optical component arrangements ; wherein the photosensitive sensor comprises sensor pixels distributed across the imaging detector; wherein the X-ray scintillator is configured to convert energy of incident X-ray radiation into optical photons; said imaging detector being characterized in that each optical component arrangement comprises at least one optical component configured for directing incident optical radiation towards the photosensitive sensor; wherein the sensor pixels comprise optical pixels , each coupled with a respective optical component arrangement to receive the incident optical radiation, thereby generating the optical imaging data; and wherein the sensor pixels comprise X-ray pixels coupled with the X-ray scintillator to receive the converted optical photons, thereby generating the X-ray imaging data. wherein the photosensitive sensor comprises sensor pixels distributed across the imaging detector; wherein the X-ray scintillator is configured to convert energy of incident X-ray radiation into optical photons; said imaging detector being characterized in that each optical component arrangement comprises at least one optical component configured for directing incident optical radiation towards the photosensitive sensor; wherein the sensor pixels comprise optical pixels , each coupled with a respective optical component arrangement to receive the incident optical radiation, thereby generating the optical imaging data; and wherein the sensor pixels comprise X-ray pixels coupled with the X-ray scintillator to receive the converted optical photons, thereby generating the X-ray imaging data. wherein the sensor pixels comprise optical pixels , each coupled with a respective optical component arrangement to receive the incident optical radiation, thereby generating the optical imaging data; and wherein the sensor pixels comprise X-ray pixels coupled with the X-ray scintillator to receive the converted optical photons, thereby generating the X-ray imaging data.
Device for determining at least one parameter of a flow of a fluid with an elastically deformable cantilever , which possesses at least one inflow surface for the fluid, and with a measurement apparatus for measuring the deformation of the cantilever , wherein at least one portion of the inflow surface is aligned in an oblique and/or curved manner to a main inflow direction of the fluid, wherein the cantilever has a reflection surface on a side facing away from the inflow surface and the measurement apparatus has a laser , and a beam axis of the laser is directed upon the reflection surface of the cantilever , and wherein the cantilever has a first inflow surface , characterized in that the cantilever has an inflow structure at a free end and the inflow structure possesses at least an additional inflow surface , wherein the inflow structure is formed to be substantially V-shaped and the V-shaped inflow structure extends away starting from the first inflow surface .
An N2-42F cell line (accession number: KCTC 13712BP), clonally selected from Neuro-2a which is a parental neuronal cell line.
A tape dispenser (TD) for applying masking tape for painting to an object (OB), comprising: - a housing (H) for accommodating a roll (TR) of masking tape, said roll of masking tape having a width (W1) and carrying a certain length of masking tape; and - a pressure surface (PS) for applying pressure to the object while a masking tape portion is present in between the pressure surface and the object, said pressure surface having a length (L) and a width (W2), and said pressure surface having an entry side (ENS) and an exit side (EXS), wherein the housing and pressure surface are configured to guide masking tape from the roll of masking tape via the entry side of the pressure surface along the pressure surface towards the exit side of the pressure surface in a longitudinal direction of the pressure surface, characterized in that the tape dispenser further comprises: - a first cutter (C1) for cutting masking tape upstream of the entry side of the pressure surface; and - a second cutter (C2) for cutting masking tape downstream of the exit side of the pressure surface. - a housing (H) for accommodating a roll (TR) of masking tape, said roll of masking tape having a width (W1) and carrying a certain length of masking tape; and - a pressure surface (PS) for applying pressure to the object while a masking tape portion is present in between the pressure surface and the object, said pressure surface having a length (L) and a width (W2), and said pressure surface having an entry side (ENS) and an exit side (EXS), wherein the housing and pressure surface are configured to guide masking tape from the roll of masking tape via the entry side of the pressure surface along the pressure surface towards the exit side of the pressure surface in a longitudinal direction of the pressure surface, characterized in that the tape dispenser further comprises: - a first cutter (C1) for cutting masking tape upstream of the entry side of the pressure surface; and - a second cutter (C2) for cutting masking tape downstream of the exit side of the pressure surface. - a first cutter (C1) for cutting masking tape upstream of the entry side of the pressure surface; and - a second cutter (C2) for cutting masking tape downstream of the exit side of the pressure surface.
A urethral plug inserter for inserting a urethral plug into a urethra of a male subject, the inserter comprising: - a proximal insertion end ; - a distal gripping end ; - a central portion disposed between the proximal insertion end and the distal gripping end ; and characterized by - a central channel , comprising a floor , and axially extending from the proximal insertion end to the distal gripping end , wherein the central channel is configured to accept a lanyard section of the urethral plug , and wherein the inserter is elongate; wherein the floor of the central channel slopes from the distal gripping end and the proximal insertion end toward a middle of the central portion and wherein a depth of the central channel is less in the middle of the central portion than a depth of the central channel at the distal gripping end and the proximal insertion end . - a proximal insertion end ; - a distal gripping end ; - a central portion disposed between the proximal insertion end and the distal gripping end ; and characterized by - a central channel , comprising a floor , and axially extending from the proximal insertion end to the distal gripping end , wherein the central channel is configured to accept a lanyard section of the urethral plug , and wherein the inserter is elongate;
A method for transmitting data to a wireless measurement sensor which is attached to the machine , wherein for wirelessly transmitting data to the measurement sensor , a machine component of the machine , which influences the measurement signal of the measurement sensor , is controlled in an information-specific manner, and information-specific measurement signals are thereby generated at the measurement sensor , and wherein the measurement signals are evaluated as data by the measurement sensor itself, characterized in that the measurement sensor is a vibration sensor and the machine component is a movable machine component which is moved relative to the vibration sensor in an information-specific manner, and that access data about a communication interface of the machine is wirelessly transmitted to the vibration sensor and the measurement signals are evaluated as access data by the vibration sensor itself.