mhurhangee/patent-ind-claim-en huggingface dataset:
Air purifying device for purifying air, comprising a housing , on which an air inlet and an air outlet are formed, which are fluidically interconnected via a flow path extending in the housing , wherein an air conveying device for conveying the air along the flow path and an air filter for filtering foreign particles out of the air are arranged in the flow path, wherein the air filter comprises at least one filter body of a motor vehicle particle filter made of a ceramic material having a lipophilic surface, characterized in that a heating device is provided fluidly between the air inlet and the air filter .
A laminated article comprising a molded layer A formed of a multiplicity of expanded beads that are fusion-bonded to each other and that are comprised of a base polymer including a thermoplastic resin, and a molded layer B laminated and bonded to said molded layer A and formed of a multiplicity of expanded beads that are fusion-bonded to each other and that are comprised of a base polymer including a thermoplastic elastomer, said molded layer A having a volume Va and a tensile modulus TMa which is 2 to 100 MPa as measured according to JIS K6767 , said molded layer B having a volume Vb and a tensile modulus TMb which is 0.05 MPa or more and less than 2 MPa as measured according to JIS K6767 , wherein Va:Vb is 90:10 to 50:50 and TMb/TMa is 0.025 or less and wherein the Volumes Va and Vb are as measured from the outer dimensions of the respective molded layers in accordance with the method disclosed in the specification. said molded layer A having a volume Va and a tensile modulus TMa which is 2 to 100 MPa as measured according to JIS K6767 , said molded layer B having a volume Vb and a tensile modulus TMb which is 0.05 MPa or more and less than 2 MPa as measured according to JIS K6767 , wherein Va:Vb is 90:10 to 50:50 and TMb/TMa is 0.025 or less and wherein the Volumes Va and Vb are as measured from the outer dimensions of the respective molded layers in accordance with the method disclosed in the specification.
Impregnate with an impregnated paper layer having antistatic properties for use in laminates or for coating wood-based panels, wherein the resin used for impregnating and/or coating the paper comprises - carbon-based particles, in particular carbon nanotubes (CNT) or graphene, wherein the surface of the carbon-based particles is modified with - at least one compound having the general formula (Ia) R 1 a SiX (4-a) (Ia), where - X is methoxy, ethoxy, n-propoxy or i-propoxy, - R 1 is an organic moiety selected from the group consisting of methyl, ethyl, propyl or vinyl, - wherein R 1 has at least one functional moiety Q 1 selected from a group consisting of an acrylic, acryloxy, methacrylic, methacryloxy, and epoxy group, - a = 1 or 2, and - at least one further compound of the general formula (II) R 3 c SiX (4-c) (II), where - X has the above meaning, - R 3 is a non-hydrolyzable organic moiety R 3 selected from the group consisting of C1-C10 alkyl, C6-C10 aryl, and - c = 1, 2 or 3. - carbon-based particles, in particular carbon nanotubes (CNT) or graphene, wherein the surface of the carbon-based particles is modified with - at least one compound having the general formula (Ia) R 1 a SiX (4-a) (Ia), where - X is methoxy, ethoxy, n-propoxy or i-propoxy, - R 1 is an organic moiety selected from the group consisting of methyl, ethyl, propyl or vinyl, - wherein R 1 has at least one functional moiety Q 1 selected from a group consisting of an acrylic, acryloxy, methacrylic, methacryloxy, and epoxy group, - a = 1 or 2, and - X is methoxy, ethoxy, n-propoxy or i-propoxy, - R 1 is an organic moiety selected from the group consisting of methyl, ethyl, propyl or vinyl, - wherein R 1 has at least one functional moiety Q 1 selected from a group consisting of an acrylic, acryloxy, methacrylic, methacryloxy, and epoxy group, - a = 1 or 2, and - at least one further compound of the general formula (II) R 3 c SiX (4-c) (II), where - X has the above meaning, - R 3 is a non-hydrolyzable organic moiety R 3 selected from the group consisting of C1-C10 alkyl, C6-C10 aryl, and - c = 1, 2 or 3. - X has the above meaning, - R 3 is a non-hydrolyzable organic moiety R 3 selected from the group consisting of C1-C10 alkyl, C6-C10 aryl, and - c = 1, 2 or 3.
A document feeder comprising: a tray to include documents; a single motor ; a pick-up device to move the documents from the tray to a document conveying path one by one; a lifting device to move the tray with the documents to a side of the pick-up device; a feeding device disposed in the document conveying path to convey the moved documents to be scanned; and first and second sensors to detect the documents in spaced positions on the document conveying path, the first and second sensors to output signals, wherein the pick-up device, the lifting device, and the feeding device are driven using the single motor, the first sensor is disposed close to the pick-up device to detect whether the document enters the document conveying path, the second sensor is disposed downstream of the document conveying path with respect to the first sensor, close to a first transfer roller of the feeding device to detect whether the document enters the feeding device, whereby a leading end of the document is detected by the second sensor as the document enters the first transfer roller, and the documents are moved by the pick-up device when the first sensor is in an off state and the second sensor is in an on state, whereby the second sensor is changed to the on state as the leading end of the document is detected by the second sensor. a tray to include documents; a single motor ; a pick-up device to move the documents from the tray to a document conveying path one by one; a lifting device to move the tray with the documents to a side of the pick-up device; a feeding device disposed in the document conveying path to convey the moved documents to be scanned; and first and second sensors to detect the documents in spaced positions on the document conveying path, the first and second sensors to output signals, wherein the pick-up device, the lifting device, and the feeding device are driven using the single motor, the first sensor is disposed close to the pick-up device to detect whether the document enters the document conveying path, the second sensor is disposed downstream of the document conveying path with respect to the first sensor, close to a first transfer roller of the feeding device to detect whether the document enters the feeding device, whereby a leading end of the document is detected by the second sensor as the document enters the first transfer roller, and the documents are moved by the pick-up device when the first sensor is in an off state and the second sensor is in an on state, whereby the second sensor is changed to the on state as the leading end of the document is detected by the second sensor.
Measuring arrangement having a rod-shaped, tactile measuring sensor and a holder for fastening the measuring sensor , the holder being configured as a clamping holder, characterized in that the clamping holder has a holding ring which engages around the measuring sensor , and two limbs which point to the outside at a ring opening, the limbs being spaced apart by way of a gap , and it being possible for the said limbs to be braced against one another with the aid of a clamping screw of the measuring arrangement , which clamping screw connects the limbs , and at least one elastic element being arranged in the gap , which elastic element prevents excessive clamping by being compressed during bracing and, as a result, a counterforce building up in the gap , which counterforce ensures that both the clamping holder and the measuring sensor are not deformed.
A wind turbine , comprising a hub , a shaft which is connected to the hub , a bearing housing , in which the shaft is supported rotatable, wherein the shaft is arranged inside the bearing housing , a fluid bearing which supports the shaft in the bearing housing , wherein the fluid bearing is arranged at a proximal end of the shaft , wherein the proximal end of the shaft is positioned proximal to the hub , and a roller bearing which also supports the shaft in the bearing housing , wherein the roller bearing is arranged at a distal end of the shaft , and wherein the distal end of the shaft is positioned distal to the hub .
A method for detecting anti-CD3 homodimers in a composition comprising a T cell dependent bispecific antibody (TDB) wherein the bispecific antibody comprises a target antigen binding fragment and a CD3 binding fragment, the method comprising contacting a population of T cells with the composition, wherein the T cells comprise nucleic acid encoding a reporter operably linked to a response element that is responsive to T cell activation, and wherein the population of T cells does not comprise the target antigen, wherein expression of the reporter indicates the presence of anti-CD3 homodimers.
A sensor ring for monitoring the operation of a mechanical seal arrangement, the sensor ring comprising a first wall and a second wall and a cavity therebetween, wherein the cavity comprises at least one groove arranged in the inner circumference of the sensor ring opening in radially inward direction, characterized in that at least one of the first wall and the second wall comprising at least one axial opening for at least one sensor .
A tissue lumen stent comprising a body having an elongated tubular configuration and a foreshortened configuration, wherein each of a downstream end and an upstream end of the body expand radially into downstream and upstream flange structures leaving a generally cylindrical saddle region therebetween in the foreshortened configuration, wherein in the elongated tubular configuration the stent body has a diameter between 0.8 mm and 4.5 mm and in the foreshortened configuration the flange structures have a diameter between 5 mm and 40 mm, and wherein the upstream flange structure is flared with a portion of the flared flange structure that increases in diameter and another portion of the flared flange structure that decreases in diameter.
A method for mitigating Intermodulation, IM, interference, comprising: operating a first receiver of a communication device in accordance with a given gain setting; operating a second receiver of a communication device with a lower linearity as compared to that of the first receiver ; continuously or periodically monitoring the performance of demodulators of the first receiver and the second receiver ; obtaining at least one demodulation performance metric associated with the second receiver ; analyzing the at least one demodulation performance metric associated with the second receiver for determining if the communication device is under an influence of IM interference; when the communication device is under an influence of IM interference, determining an improved level of gain to be applied to (i) a variable attenuator, VA, of the first receiver , and/or (ii) a variable low noise amplifier, LNA, of the first receiver ; selectively adjusting an amount of gain being applied by the variable attenuator or variable gain low noise amplifier of the first receiver based on the improved level attenuation. operating a first receiver of a communication device in accordance with a given gain setting; operating a second receiver of a communication device with a lower linearity as compared to that of the first receiver ; continuously or periodically monitoring the performance of demodulators of the first receiver and the second receiver ; obtaining at least one demodulation performance metric associated with the second receiver ; analyzing the at least one demodulation performance metric associated with the second receiver for determining if the communication device is under an influence of IM interference; when the communication device is under an influence of IM interference, determining an improved level of gain to be applied to (i) a variable attenuator, VA, of the first receiver , and/or (ii) a variable low noise amplifier, LNA, of the first receiver ; (i) a variable attenuator, VA, of the first receiver , and/or (ii) a variable low noise amplifier, LNA, of the first receiver ; selectively adjusting an amount of gain being applied by the variable attenuator or variable gain low noise amplifier of the first receiver based on the improved level attenuation.
Card body for a chip card , having two metal layers , between which a nonconductive central layer is arranged, wherein a module opening for receiving a chip module is already created in one metal layer and the central layer or can still be created in a module opening zone, and two slits , one of which respectively extends in a metal layer from a peripheral face of the card body to the module opening or to the module opening zone and respectively divides the metal layer at a height, characterized in that entry angles (α) of the two slits into the metal layer are respectively not equal to 90° with respect to a surface of the metal layer , and wherein the two slits have an opposite inclination with respect to a surface normal of the surface of the metal layer . two metal layers , between which a nonconductive central layer is arranged, wherein a module opening for receiving a chip module is already created in one metal layer and the central layer or can still be created in a module opening zone, and two slits , one of which respectively extends in a metal layer from a peripheral face of the card body to the module opening or to the module opening zone and respectively divides the metal layer at a height, characterized in that entry angles (α) of the two slits into the metal layer are respectively not equal to 90° with respect to a surface of the metal layer , and wherein the two slits have an opposite inclination with respect to a surface normal of the surface of the metal layer .
An interbody fusion device , the device comprising: a body member comprising a bone contacting surface , the body member including a pivot cylinder ; a superior member comprising a bone contacting surface , the superior member including a pivot channel , wherein the pivot cylinder is configured to engage the pivot channel ; and a movement mechanism for moving the superior member relative to the body member , the movement mechanism including a threaded rod coupled to a load head via a second pivot cylinder ; and wherein the position and orientation of the pivot cylinder are fixed with respect to the body member ; and wherein the position and orientation of the pivot channel are fixed with respect to the superior member . a body member comprising a bone contacting surface , the body member including a pivot cylinder ; a superior member comprising a bone contacting surface , the superior member including a pivot channel , wherein the pivot cylinder is configured to engage the pivot channel ; and a movement mechanism for moving the superior member relative to the body member , the movement mechanism including a threaded rod coupled to a load head via a second pivot cylinder ; and
Flexible, stretchable and waterproof-breathable film based on a block copolymer comprising at least one rigid polyamide PA block and at least one flexible block chosen from: polyether, polyester, polydimethylsiloxane, polyolefin, polycarbonate, and mixtures or copolymers thereof, characterized in that said copolymer includes at least one carboxylic acid chain end blocked with a polycarbodiimide, the flexibility and stretchability being evaluated according to the description.
A high temperature air-to-air heat exchanger (HEX) (200; 400) for a gas turbine engine , comprising: an inlet manifold configured to receive a first flow of air; an outlet manifold whereby the first flow of air exits the HEX (200; 400), wherein the inlet manifold is configured to transfer heat from the first flow of air to a second flow of air flowing over at least a portion of the HEX (200; 400), characterised in that the inlet manifold comprises a first material, the outlet manifold comprises a second material, wherein the first material comprises a nickel-based super alloy and the second material comprises a nickel alloy, wherein the inlet manifold is configured to reduce a temperature of the first flow of air from greater than 648.9°C ∓ 27.8°C (1200°F ∓ 50°F) to less than 648.9°C ∓ 27.8°C (1200°F ∓ 50°F). an inlet manifold configured to receive a first flow of air; an outlet manifold whereby the first flow of air exits the HEX (200; 400), wherein the inlet manifold is configured to transfer heat from the first flow of air to a second flow of air flowing over at least a portion of the HEX (200; 400), characterised in that the inlet manifold comprises a first material, the outlet manifold comprises a second material, wherein the first material comprises a nickel-based super alloy and the second material comprises a nickel alloy, wherein the inlet manifold is configured to reduce a temperature of the first flow of air from greater than 648.9°C ∓ 27.8°C (1200°F ∓ 50°F) to less than 648.9°C ∓ 27.8°C (1200°F ∓ 50°F).
A gas turbine engine for an aircraft, comprising: a centrifugal compressor including an impeller with impeller blades extending from a hub and a diffuser downstream of the impeller , the impeller mounted for rotation about a central longitudinal axis within an outer shroud , a main flow passage extending between the hub and the outer shroud to an impeller exit defined downstream of the impeller blades , wherein a cavity is disposed adjacent the exit , the cavity communicating with the main flow passage via at least one aperture through a main flow passage wall from an impeller-side opening to a cavity-side opening , the impeller-side opening located radially outward from the impeller exit relative to the central longitudinal axis , and the cavity-side opening located closer to the central longitudinal axis than the impeller-side opening , wherein the cavity defines a closed chamber, the at least one aperture providing a sole fluid connection to the closed chamber, and the diffuser includes an annular ring extending circumferentially about the impeller exit , the cavity circumscribed by the annular ring and a portion of the outer shroud , and the at least one aperture is tapered in a direction extending from the cavity-side opening toward the impeller-side opening .
A method comprising: receiving engine data from a sensor associated with the engine ; associating a header with the engine data to generate packaged engine data; and transmitting the packaged engine data to an aircraft communication unit , wherein the header provides for the aircraft communication unit to transmit the packaged engine data to a ground station communication unit via a communication protocol; wherein the header comprises a source system identifier, a delivery destination identifier, and a report identifier; the method characterized in that the report identifier defines a type of report to which the engine data relates; wherein the type of report is based on a segment of a flight plan. receiving engine data from a sensor associated with the engine ; associating a header with the engine data to generate packaged engine data; and transmitting the packaged engine data to an aircraft communication unit , wherein the header provides for the aircraft communication unit to transmit the packaged engine data to a ground station communication unit via a communication protocol; wherein the header comprises a source system identifier, a delivery destination identifier, and a report identifier; the method characterized in that the report identifier defines a type of report to which the engine data relates; wherein the type of report is based on a segment of a flight plan.
An image display apparatus comprising: a receiver configured to receive first image data; a signal processor configured to process the received first image data; an outputter configured to output the processed first image data; a storage configured to store second image data; and a controller configured to cut off power being supplied to at least one component of the signal processor and to control the outputter to output the stored second image data to an area of a screen, in response to the image display apparatus entering a power saving mode, and wherein the second image data includes time information containing a date and a time and a plurality of sub image data for changing the time information in a predetermined time interval of the power saving mode, wherein each of the plurality of sub image data includes time information for a specific time interval, the at least one component of the signal processor is arranged to manage and update the time information , and the controller is further configured to show the exact time information by controlling the outputter to output each of the plurality of sub image data from the storage for the specific time interval in the predetermined time interval, and after a certain period of time, to supply power to the at least one component of the signal processor to which power has been cut off, to receive updated time information from the signal processor , to update the plurality of sub image data of the second image data based on the received time information and to store the updated second image data in the storage . a receiver configured to receive first image data; a signal processor configured to process the received first image data; an outputter configured to output the processed first image data; a storage configured to store second image data; and a controller configured to cut off power being supplied to at least one component of the signal processor and to control the outputter to output the stored second image data to an area of a screen, in response to the image display apparatus entering a power saving mode, and wherein the second image data includes time information containing a date and a time and a plurality of sub image data for changing the time information in a predetermined time interval of the power saving mode, wherein each of the plurality of sub image data includes time information for a specific time interval, the at least one component of the signal processor is arranged to manage and update the time information , and the controller is further configured to show the exact time information by controlling the outputter to output each of the plurality of sub image data from the storage for the specific time interval in the predetermined time interval, and after a certain period of time, to supply power to the at least one component of the signal processor to which power has been cut off, to receive updated time information from the signal processor , to update the plurality of sub image data of the second image data based on the received time information and to store the updated second image data in the storage .