mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a composition comprising a compound of formula I and a compound of formula II, comprising steps of: (a) dissolving the crude compound of formula I in an aqueous solution of an organic solvent (i); (b) precipitating solids from the solution by cooling and / or adding an organic solvent (ii) to obtain a suspension containing the compound of formula I; (C) obtaining composition A containing the compound of formula I and the compound of formula II by centrifugation or filtration; wherein in step (a), the organic solvent (i) is selected from one or more of methanol, ethanol, n-propanol, isopropanol, isobutanol, n-butanol, and acetone; in step (b), the organic solvent (ii) is selected from one or more of C 3-7 ester, hexane, n-heptane, n-pentane, and dichloromethane; (a) dissolving the crude compound of formula I in an aqueous solution of an organic solvent (i); (b) precipitating solids from the solution by cooling and / or adding an organic solvent (ii) to obtain a suspension containing the compound of formula I; (C) obtaining composition A containing the compound of formula I and the compound of formula II by centrifugation or filtration;
A continuous solution desalting polycondensation apparatus comprising a plurality of reaction vessels; wherein the plurality of reaction vessels are configured such that a reaction mixture successively moves through each reaction vessel; in the plurality of reaction vessels, gas phase parts formed above the reaction mixture communicate with one another; and the continuous solution desalting polycondensation apparatus includes a washing part, the washing part being configured to separate a solid included in the reaction mixture by sedimentation, the solid being a by-product salt, and to perform countercurrent washing. wherein the plurality of reaction vessels are configured such that a reaction mixture successively moves through each reaction vessel; in the plurality of reaction vessels, gas phase parts formed above the reaction mixture communicate with one another; and the continuous solution desalting polycondensation apparatus includes a washing part, the washing part being configured to separate a solid included in the reaction mixture by sedimentation, the solid being a by-product salt, and to perform countercurrent washing.
Process for reducing the surface tension of thermoplastic-based fibres or filaments, characterized in that the thermoplastic is additized with at least one E/X copolymer of an α-olefin and an acrylic or methacrylic ester of an unsubstituted aliphatic alcohol having 6 to 30 carbon atoms and spun by the melt-spinning process, wherein the thermoplastic used is polyamide or polyester and the α-olefin content of the E/X copolymer is between 50 and 90 wt%.
Pipe coupling for connecting and disconnecting media-bearing pipes, hoses or the like, comprising two coupling halves, which are located, respectively, on first and second pipe connections extending in a radial direction, a plug and a socket , wherein the plug has a plug housing , which is non-detachably connected to the first pipe connection , and wherein the socket has a socket housing , which is non-detachably connected to the second pipe connection , wherein the plug has a first sleeve-shaped shut-off element , which surrounds the first pipe connection and is displaceable along the axial direction between a shut-off position and an unlock position, wherein the first sleeve-shaped shut-off element borders in its shut-off position a ring-shaped space comprising the first pipe connection and formed by an expansion of the first sleeve-shaped shut-off element , wherein the first pipe connection has a first front-side flat end region and a plurality of first media outlets that extend between an internal flow channel of the pipe connection and the ring-shaped space , wherein the first sleeve-shaped shut-off element contains in the shut-off state a pressurised medium, and furthermore wherein the socket has a second sleeve-shaped shut-off element , which is displaceable along the axial direction between a shut-off position and an unlock position and surrounds the second pipe connection , wherein the second sleeve-shaped shut-off element has a tapered shaft that has a second front-side flat end region, wherein the second sleeve-shaped shut-off element borders in its shut-off position a second ring-shaped space with the shaft , wherein the second pipe connection has a plurality of second media outlets that are in connection with the internal flow channel of the pipe connection , wherein the second sleeve-shaped shut-off element locks in the shut-off state the second media outlets and stems the pressurised medium in the internal flow channel , and furthermore wherein the pipe coupling has connection means for holding together the plug and the socket , thus the first pipe connection and the second pipe connection , with its front-side end faces without noteworthy interspace and for preventing displacements apart in axial direction, and wherein the plug-side first sleeve-shaped shut-off element is held by eccentrics , which are connected with an eccentric wheel , in a recess so that the eccentric displaces by means of twisting the eccentric wheel in a thread the plug-side first sleeve-shaped shut-off element along the axial direction into the shut-off position, in which the pressurised medium is not stemmed in the first ring-shaped space anymore, wherein the second sleeve-shaped shut-off element is also displaced into its unlock position, in which the second media outlets are not locked by the second shut-off element anymore so that the pressurised medium can flow between the first pipe connection and the second pipe connection .
A thrombectomy device for removing matter from a body lumen, the device comprising: an elongated catheter member having a distal part and a proximal part; an axially stationary thrombus blocking body disposed on the distal part of the catheter member and radially expansible between a contracted orientation and an expanded, thrombus-blocking, orientation; a thrombus capture cage disposed on the distal part of the catheter member in an axially spaced-apart relationship to the axially stationary thrombus blocking body , and radially expansible between a contracted orientation and an expanded, thrombus-capture, orientation; deployment means actuable to deploy and retract the thrombus capture cage and thrombus blocking body , and an elongated control arm connected to the thrombus capture cage , wherein the thrombus capture cage is located distally of the axially stationary thrombus blocking body and a thrombus extractor and/or macerator mechanism is disposed within the thrombus capture cage and wherein the thrombus capture cage comprises an inwardly tapering leading end facing the axially stationary blocking body having apertures for receipt of thrombus into the capture cage and the elongated control arm is operably connected to the leading end of the thrombus capture cage to pull the thrombus capture cage axially proximally along the body lumen towards an abutting configuration with the axially stationary thrombus blocking body . an elongated catheter member having a distal part and a proximal part; an axially stationary thrombus blocking body disposed on the distal part of the catheter member and radially expansible between a contracted orientation and an expanded, thrombus-blocking, orientation; a thrombus capture cage disposed on the distal part of the catheter member in an axially spaced-apart relationship to the axially stationary thrombus blocking body , and radially expansible between a contracted orientation and an expanded, thrombus-capture, orientation; deployment means actuable to deploy and retract the thrombus capture cage and thrombus blocking body , and an elongated control arm connected to the thrombus capture cage , wherein the thrombus capture cage is located distally of the axially stationary thrombus blocking body and a thrombus extractor and/or macerator mechanism is disposed within the thrombus capture cage and wherein the thrombus capture cage comprises an inwardly tapering leading end facing the axially stationary blocking body having apertures for receipt of thrombus into the capture cage and the elongated control arm is operably connected to the leading end of the thrombus capture cage to pull the thrombus capture cage axially proximally along the body lumen towards an abutting configuration with the axially stationary thrombus blocking body .
Combustion chamber of a gas turbine, with a combustion chamber wall and with at least one shingle which comprises a plate-shaped shingle body which has a peripheral shingle edge which is elevated from the side which faces away from the combustion chamber interior , which shingle edge bears against the combustion chamber wall in the mounted state of the shingle , the shingle body being provided with an arrangement of effusion cooling holes , and the combustion chamber wall being provided with an arrangement of impingement cooling holes in the region of the shingle , the arrangement of effusion cooling holes comprising the entire shingle body , and effusion cooling holes being arranged within the spacing (A), and the arrangement of impingement cooling holes being at a lateral spacing (A) from the shingle edge , which lateral spacing (A) is between 1.5 and 2 times the spacing of the surface of the combustion chamber wall from the surface of the shingle body , characterized in that the spacing of the arrangement of the impingement cooling holes is between 1.1 and 3 times the lateral spacing (A) in those corner regions of the shingle , in which mutually adjoining shingle edges meet.
Structural element for aircrafts, comprising a web , a foot and a curved portion defined between the web and the foot , the web , the foot and the curved portion comprising at least: first layers with fibers defining a first orientation; and second layers with fibers defining a second orientation, the first layers comprising a plurality of gaps at the foot and/or the curved portion , characterized in that the gaps of a first layer are offset with respect to the gaps of all the rest of first layers . first layers with fibers defining a first orientation; and second layers with fibers defining a second orientation, the first layers comprising a plurality of gaps at the foot and/or the curved portion , characterized in that the gaps of a first layer are offset with respect to the gaps of all the rest of first layers .
Pack for preparing food or beverage products comprising: at least one container having an inner volume where at least one base ingredient for the preparation of the food or beverage product is stored, said inner volume being defined by sheets of material joined to one another at their edges; a fitment assembly through which the food or beverage product is delivered, and identification means comprising the information on the food or beverage product to be prepared; the identification means being arranged on both sides of the edges of the container with respect to the fitment assembly , the identification means being arranged in the vicinity of said fitment assembly ,wherein the identification means are arranged so that part of the information of the food or beverage product is on one of the sides and is continued on the other side.
An electrode having a three-dimensional structure, the electrode comprising: a porous nonwoven web including a plurality of polymer fibers that form an interconnected porous network; an active material composite positioned among the polymer fibers and including active material particles and a first conductive material; and a second conductive material positioned on an outer surface of the active material composite, wherein the interconnected porous network is filled homogeneously with the active material composite and the second conductive material to form a three-dimensional super lattice structure. a porous nonwoven web including a plurality of polymer fibers that form an interconnected porous network; an active material composite positioned among the polymer fibers and including active material particles and a first conductive material; and a second conductive material positioned on an outer surface of the active material composite, wherein the interconnected porous network is filled homogeneously with the active material composite and the second conductive material to form a three-dimensional super lattice structure.
An outdoor unit comprising a cover attached to a side panel thereof, characterized in that at least a name of a refrigerant used in the outdoor unit is indicated on an inner side of the cover by attaching a label , on which the name of the refrigerant is provided, on the inner side of the cover , and wherein the label is attached on a portion of the cover that functions as a component case such that small components such as screws, nuts and caps, that have been disassembled during work, are not lost.
Side tarpaulin tensioner comprising a base body with two parallel side cheeks , a tensioning bracket designed as a single-arm lever, which is pivotably mounted about a first pivot axis extending between the side cheeks of the base body orthogonally thereto, as well as a hook part for engaging behind a stationary holding element serving as an abutment with respect to the tarpaulin to be tensioned, which holding element is pivotably mounted about a second pivot axis extending between the side cheeks parallel to the first pivot axis, wherein at least one first latching element is arranged on the tensioning bracket , which can be latched with a second latching element arranged on the base body for securing against automatic opening in the closed position of the tensioning bracket , characterised in that at least one first latching element is formed by a pivotably mounted angle piece , which is pretensioned in the closing direction via a spring element, wherein two angle pieces are arranged, which are connected to one another via a transverse bracket, which forms an actuating section, via which the angle pieces are pivotable.
A femoral prosthetic component , comprising: a patellar guide portion; a pair of condyles projecting from the patellar guide portion and forming an intercondylar notch , therebetween; a center axis extending substantially along the intercondylar notch and between the condyles; a bearing surface; and an interface surface having a posterior face, an anterior face, a distal face, a posterior chamfer, and an anterior chamfer, wherein the distal face comprises two pitched planes (943a-b, 1043a-b, 1143a-b), characterized in that the two pitched planes converge towards the center axis of the femoral prosthetic component to create a pitched distal surface . a patellar guide portion; a pair of condyles projecting from the patellar guide portion and forming an intercondylar notch , therebetween; a center axis extending substantially along the intercondylar notch and between the condyles; a bearing surface; and an interface surface having a posterior face, an anterior face, a distal face, a posterior chamfer, and an anterior chamfer, wherein the distal face comprises two pitched planes (943a-b, 1043a-b, 1143a-b), characterized in that the two pitched planes converge towards the center axis of the femoral prosthetic component to create a pitched distal surface .
A system for delivery of high flow humidified and/or heated breathing gas to a patient and sampling exhaled or expired gases from the patient, wherein the system comprises: a breathing apparatus comprising a non-sealing nasal cannula in fluid communication with a breathing gas delivery tube to deliver the high flow humidified and/or heated breathing gas to the patient through the nasal cannula; and a gas sampling interface comprising a conduit comprising a first end in fluid communication with a respiratory gas monitor and a second, distal end comprising a gas sampling tip for receiving exhaled or expired breathing gases from the patient; and an attachment member ; wherein the conduit of the gas sampling interface is attachable to the breathing apparatus and wherein the gas sampling tip is configured to be selectively positioned at or in a patient's mouth or nare when the high flow humidified and/or heated breathing gas is being delivered to the patient to sample exhaled or expired gas from the patient, the conduit comprising a flexible resilient support structure that allows the distal end portion to be manipulated to a desired shape and to be selectively directed toward the patient's nose or mouth, the flexible resilient support structure comprises a wire located within the conduit that allows at least a portion of the conduit to be bent to form a hook-like shape; wherein the nasal cannula comprises a manifold for supporting at least one nasal prong or outlet that extends from the manifold and that is to be received in a user's nare; and wherein the attachment member is configured to attach the gas sampling interface to the manifold. a breathing apparatus comprising a non-sealing nasal cannula in fluid communication with a breathing gas delivery tube to deliver the high flow humidified and/or heated breathing gas to the patient through the nasal cannula; and a gas sampling interface comprising a conduit comprising a first end in fluid communication with a respiratory gas monitor and a second, distal end comprising a gas sampling tip for receiving exhaled or expired breathing gases from the patient; and an attachment member ; wherein the conduit of the gas sampling interface is attachable to the breathing apparatus and wherein the gas sampling tip is configured to be selectively positioned at or in a patient's mouth or nare when the high flow humidified and/or heated breathing gas is being delivered to the patient to sample exhaled or expired gas from the patient, the conduit comprising a flexible resilient support structure that allows the distal end portion to be manipulated to a desired shape and to be selectively directed toward the patient's nose or mouth, the flexible resilient support structure comprises a wire located within the conduit that allows at least a portion of the conduit to be bent to form a hook-like shape; wherein the nasal cannula comprises a manifold for supporting at least one nasal prong or outlet that extends from the manifold and that is to be received in a user's nare; and wherein the attachment member is configured to attach the gas sampling interface to the manifold.
An insulating frame for a roof window mounted in an inclined roof structure of a building, comprising top, bottom and side frame members , each including an insulating member and a support member , and a plurality of connector brackets , said insulating frame defining an inner opening adapted to surround a frame of the roof window and said insulating frame having an interior side intended to face the interior of the building and an exterior side intended to face the exterior and each frame member (110a-100d) having an inner side facing the inner opening and an outer side facing away from the inner opening , said insulating frame further defining a base plane at the interior side of the insulating frame members (110a-100d) which is substantially parallel with the inner opening , wherein the insulating frame comprises a set of roof connector brackets adapted for connecting the insulating frame to the roof structure and at least one attachment section , wherein each of the roof connector brackets comprises a first connecting section and a second connecting section , where the first connecting section is connected to an attachment section , and where the second connecting section is adapted for connecting to the roof structure and extends away from the inner opening of the insulating frame in the assembled state in parallel with the base plane and beyond the outer side of the frame member (110a-100d) to which the roof connector bracket is attached, wherein said attachment section(s) allow(s) attachment of each roof connector bracket at several different positions depending on the design of the roof structure, characterized in that one or more of the roof connector brackets are adapted for displaceable attachment to the attachment section such that the one or more connector brackets may be moved along a length direction of the attachment section after being attached. wherein the insulating frame comprises a set of roof connector brackets adapted for connecting the insulating frame to the roof structure and at least one attachment section , wherein each of the roof connector brackets comprises a first connecting section and a second connecting section , where the first connecting section is connected to an attachment section , and where the second connecting section is adapted for connecting to the roof structure and extends away from the inner opening of the insulating frame in the assembled state in parallel with the base plane and beyond the outer side of the frame member (110a-100d) to which the roof connector bracket is attached, wherein said attachment section(s) allow(s) attachment of each roof connector bracket at several different positions depending on the design of the roof structure, characterized in that one or more of the roof connector brackets are adapted for displaceable attachment to the attachment section such that the one or more connector brackets may be moved along a length direction of the attachment section after being attached.
A method for the diagnosis of tuberculosis, the method comprising the step of: testing an unstimulated blood sample from a subject suspected of having tuberculosis for at least 4 biomarkers, wherein the biomarkers are selected from the group consisting of complement factor H, c-reactive protein (CRP), pre-albumin, interferon (IFN)-γ, apolipoprotein (APO)-A1 and interferon inducible protein (IP)-10.
An apparatus comprising: an enclosing structure having a cavity therein, wherein a first portion of the enclosing structure is formed by an elastic material, and wherein the elastic material is moveable to transfer vibration from an exterior source to gas within the cavity; and a microphone coupled to the enclosing structure and located within the gas-filled cavity, wherein gas in the cavity separates the microphone from the first portion of the enclosing structure, such that the vibration transferred from the exterior source to the gas in the cavity is detectable by the microphone, wherein the apparatus is a bone conduction microphone configured to be implemented as a component of a head-mountable device, and wherein the first portion is configured to be arranged in such a way that, when in use, it contacts a wearer of the head-mountable device at a location where vibrations of a bone structure can be transferred via the wearer's skin and the elastic material of the first portion to the gas inside the cavity. an enclosing structure having a cavity therein, wherein a first portion of the enclosing structure is formed by an elastic material, and wherein the elastic material is moveable to transfer vibration from an exterior source to gas within the cavity; and a microphone coupled to the enclosing structure and located within the gas-filled cavity, wherein gas in the cavity separates the microphone from the first portion of the enclosing structure, such that the vibration transferred from the exterior source to the gas in the cavity is detectable by the microphone, wherein the apparatus is a bone conduction microphone configured to be implemented as a component of a head-mountable device, and wherein the first portion is configured to be arranged in such a way that, when in use, it contacts a wearer of the head-mountable device at a location where vibrations of a bone structure can be transferred via the wearer's skin and the elastic material of the first portion to the gas inside the cavity.