mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating and transmitting a frame, the method comprising: generating the frame comprising a header , and a payload ; and transmitting the frame, wherein the header comprises an indicating field for indicating presence or absence of an information field , the method characterised by : wherein if the indicating field comprises a first value indicating the absence of the information field , an additional information field comprises a pointer value, and wherein if the indicating field comprises a second value indicating the presence of the information field , the information field comprises most significant bits, MSB, of a long pointer value and the additional information field comprises least significant bits, LSBs, of the long pointer value. generating the frame comprising a header , and a payload ; and transmitting the frame, wherein the header comprises an indicating field for indicating presence or absence of an information field , the method characterised by : wherein if the indicating field comprises a first value indicating the absence of the information field , an additional information field comprises a pointer value, and wherein if the indicating field comprises a second value indicating the presence of the information field , the information field comprises most significant bits, MSB, of a long pointer value and the additional information field comprises least significant bits, LSBs, of the long pointer value. wherein if the indicating field comprises a first value indicating the absence of the information field , an additional information field comprises a pointer value, and wherein if the indicating field comprises a second value indicating the presence of the information field , the information field comprises most significant bits, MSB, of a long pointer value and the additional information field comprises least significant bits, LSBs, of the long pointer value.
Skimmer for a pool, in particular a swimming pool, with a housing with at least one inlet opening lying at the level of the liquid level in the pool wall and framed by a panel, and with a skimmer basket , underneath which a drain socket connected to a pump is arranged, so that the water flowing into the inlet opening flows through the skimmer basket into the drain socket , characterized in that the skimmer basket is mounted indirectly or directly on a roller guide and can be moved horizontally in the direction of the pool and back.
A packaging material for a power storage device, the packaging material comprising at least a substrate layer, an adhesive layer, a metal foil layer, an anti-corrosion treatment layer, an adhesive resin layer and a thermal bonding resin layer laminated in this order, wherein a thickness of the adhesive layer is in a range of 0.3 to 3 μm, a 10-point average roughness Rzjis in accordance with JIS B0601 of a surface of the metal foil layer which faces the substrate layer is in a range of 0.3 to 3 μm, and the thickness of the adhesive layer is not less than the 10-point average roughness Rzjis and not more than 3 μm, and a peel strength between the substrate layer and the metal foil layer in accordance with JIS K6854-3 is in a range of 5 to 12 N/15 mm.
Motor vehicle transmission comprising a synchronization sleeve sliding axially on a shaft in order to engage on each side a pinion rotating on this shaft to achieve two speed ratios, an axially sliding control fork to move the sleeve , and a chute disposed above the synchronization sleeve , having orifices for distributing a lubricating fluid ), characterized in that it comprises a drawer sliding with the sleeve , which in its movement opens and closes the orifices of this chute .
A method of fabricating a 3D-bioprinted scar tissue, the method comprising: 3D bioprinting layer-by-layer of a bioink composition, using a computer-assisted design model, wherein the bioink composition comprises at least one polypeptide selected from the group consisting of silk fibroin protein, and collagens, a combination of IL-6, IL-8, and TGF- β1, and tissue specific fibroblastic cells, wherein the 3D bioprinting is carried out at an extrusion pressure in the range of 1 PSI - 40 PSI, whereby 1 psi equals 6.89 kPa, at a temperature in the range of 20°C- 35°C, with a printer nozzle having a diameter in the range of 40 μm - 260 μm, and wherein the layer has a thickness in the range of 10 μm - 400 μm.
An apparatus (300; 400; 500), comprising: a substrate (303; 403); a cover member (301; 401) comprising a flow tunnel , wherein the cover member (301; 401) is disposed on the substrate (303; 403) and configured to enable a gaseous substance to flow through the flow tunnel ; a flow sensing element (103; 425; 514) disposed on the substrate (303; 403), wherein the flow sensing element (103; 425; 514) is exposed to the gaseous substance in the flow tunnel and configured for sensing a flow rate of the gaseous substance through the flow tunnel ; a pressure sensing element (105; 427; 516) disposed on the substrate (303; 403), wherein the pressure sensing element (105; 427; 516) is exposed to the gaseous substance in the flow tunnel and configured for sensing a pressure of gaseous substance in the flow tunnel ; and a processing circuitry , characterized in that the processing circuitry is configured to calculate thermal conductivity of the gaseous substance based on the flow rate and the pressure sensed by the flow sensing element (103; 425; 514) and pressure sensing element (105; 427; 516) respectively. a substrate (303; 403); a cover member (301; 401) comprising a flow tunnel , wherein the cover member (301; 401) is disposed on the substrate (303; 403) and configured to enable a gaseous substance to flow through the flow tunnel ; a flow sensing element (103; 425; 514) disposed on the substrate (303; 403), wherein the flow sensing element (103; 425; 514) is exposed to the gaseous substance in the flow tunnel and configured for sensing a flow rate of the gaseous substance through the flow tunnel ; a pressure sensing element (105; 427; 516) disposed on the substrate (303; 403), wherein the pressure sensing element (105; 427; 516) is exposed to the gaseous substance in the flow tunnel and configured for sensing a pressure of gaseous substance in the flow tunnel ; and a processing circuitry , characterized in that the processing circuitry is configured to calculate thermal conductivity of the gaseous substance based on the flow rate and the pressure sensed by the flow sensing element (103; 425; 514) and pressure sensing element (105; 427; 516) respectively.
Process for producing an object from a precursor, comprising the steps of: I) depositing a radically crosslinked resin atop a carrier to obtain a ply of a construction material joined to the carrier which corresponds to a first selected cross section of the precursor; II) depositing a radically crosslinked resin atop a previously applied ply of the construction material to obtain a further ply of the construction material which corresponds to a further selected cross section of the precursor and which is joined to the previously applied ply; III) repeating step II) until the precursor is formed; wherein the depositing of a radically crosslinked resin at least in step II) is effected by introducing energy to a selected region of a radically crosslinkable resin corresponding to the respectively selected cross section of the object, and wherein the radically crosslinkable resin has a viscosity measured at 23°C according to DIN EN ISO 2884-1 of ≥ 5 mPas to ≤ 100 000 mPas, characterized in that the radically crosslinkable resin comprises a curable component comprising NCO groups and olefinic C=C double bonds, wherein in the curable component the molar ratio of NCO groups to olefinic C=C double bond is in a range from ≥ 1:5 to ≤ 5:1, and in that step III) is followed by a further step IV) : IV) treating the precursor obtained after step III) under conditions sufficient for at least partially trimerizing NCO groups present in the radically crosslinked resin of the obtained precursor to afford isocyanurate groups to obtain the object and wherein the curable component comprises a curable compound comprising NCO groups and olefinic C=C double bonds, wherein in the curable component the molar ratio of NCO groups to olefinic C=C double bonds is in a range from ≥ 1:5 to ≤ 5:1 I) depositing a radically crosslinked resin atop a carrier to obtain a ply of a construction material joined to the carrier which corresponds to a first selected cross section of the precursor; II) depositing a radically crosslinked resin atop a previously applied ply of the construction material to obtain a further ply of the construction material which corresponds to a further selected cross section of the precursor and which is joined to the previously applied ply; III) repeating step II) until the precursor is formed; IV) treating the precursor obtained after step III) under conditions sufficient for at least partially trimerizing NCO groups present in the radically crosslinked resin of the obtained precursor to afford isocyanurate groups to obtain the object
A method of transferring computer readable data from a sender via a first security domain and then a second security domain of a cross-domain solution to a receiver , wherein the first and second security domains of differing security levels are connected by a communications channel, permitting the computer readable data to pass from the first security domain to the second security domain, but not from the second security domain to the first security domain, the method comprising: accepting, from the sender , the computer readable data in the first security domain for transfer to the second security domain; passing the computer readable data to a first machine learning classifier of a machine learning filter at the first security domain trained with at least malware files publicly identified as malicious; if the first machine learning classifier does not classify the computer readable data as likely malware, passing the computer readable data to a second machine learning classifier of the machine learning filter at the first security domain trained with at least malware files specific to the first security domain, wherein the first domain is associated with one or more hardware component, data type and/or mission, and the malware files specific to the first security domain include malware file that can affect the hardware component, and/or can interact with the data type, and/or can affect the mission; and if the second machine learning classifier does not classify the computer readable data as likely malware, transferring the computer readable data to a destination in the second security domain. accepting, from the sender , the computer readable data in the first security domain for transfer to the second security domain; passing the computer readable data to a first machine learning classifier of a machine learning filter at the first security domain trained with at least malware files publicly identified as malicious; if the first machine learning classifier does not classify the computer readable data as likely malware, passing the computer readable data to a second machine learning classifier of the machine learning filter at the first security domain trained with at least malware files specific to the first security domain, wherein the first domain is associated with one or more hardware component, data type and/or mission, and the malware files specific to the first security domain include malware file that can affect the hardware component, and/or can interact with the data type, and/or can affect the mission; and if the second machine learning classifier does not classify the computer readable data as likely malware, transferring the computer readable data to a destination in the second security domain.
Attachment for a device for generating an air flow or for delivering a fluid, wherein the attachment is configured to be at least partially inserted into the external auditory canal of a human or animal ear, the attachment comprising: a connection stub for connection to the device , and a tongue-shaped guide vane projecting from the connection stub , for guiding air exiting the device or fluid emitted by the device, having a guide vane base with a U-shaped curved cross-sectional profile, wherein the guide vane is arranged downstream of the connection stub in the flow direction of the air or fluid, and wherein, when viewed in a longitudinal section of the attachment , the guide vane base intersects a longitudinal axis of the attachment , which passes through the center of a cross-section of the connection stub normal to the longitudinal section. a connection stub for connection to the device , and a tongue-shaped guide vane projecting from the connection stub , for guiding air exiting the device or fluid emitted by the device, having a guide vane base with a U-shaped curved cross-sectional profile, wherein the guide vane is arranged downstream of the connection stub in the flow direction of the air or fluid, and wherein, when viewed in a longitudinal section of the attachment , the guide vane base intersects a longitudinal axis of the attachment , which passes through the center of a cross-section of the connection stub normal to the longitudinal section.
A system for mass spectrometry comprising: a curtain gas chamber defined by a curtain plate having an aperture for receiving ions from an ion source and an orifice plate having an inlet into a mass spectrometer; at least one barrier for separating the curtain gas chamber into a first curtain gas chamber region and a second curtain gas chamber region ; wherein the second curtain gas chamber region comprises a differential mobility spectrometer at least partially sealed to the inlet ; a first gas source configured to provide a first gas flow into the first curtain gas chamber region , wherein a portion of the first gas flow forms a gas outflow directed out of the aperture and into an ion source region; and a second gas source configured to provide a second gas flow into the second curtain gas chamber region , wherein the second gas flow to the second curtain gas chamber region forms a gas inflow into the differential mobility spectrometer and inlet ; and a heating element configured to heat the gas inflow , a portion of the heated gas inflow directed into the inlet of the mass spectrometer wherein the portion of the heated gas inflow is at a substantially higher temperature than the gas outflow . a curtain gas chamber defined by a curtain plate having an aperture for receiving ions from an ion source and an orifice plate having an inlet into a mass spectrometer; at least one barrier for separating the curtain gas chamber into a first curtain gas chamber region and a second curtain gas chamber region ; wherein the second curtain gas chamber region comprises a differential mobility spectrometer at least partially sealed to the inlet ; a first gas source configured to provide a first gas flow into the first curtain gas chamber region , wherein a portion of the first gas flow forms a gas outflow directed out of the aperture and into an ion source region; and a second gas source configured to provide a second gas flow into the second curtain gas chamber region , wherein the second gas flow to the second curtain gas chamber region forms a gas inflow into the differential mobility spectrometer and inlet ; and a heating element configured to heat the gas inflow , a portion of the heated gas inflow directed into the inlet of the mass spectrometer wherein the portion of the heated gas inflow is at a substantially higher temperature than the gas outflow .
An imaging device comprising: an Si substrate having a first direction as a thickness direction and including a first crystal plane (11S1) represented by a plane index extending along a horizontal plane orthogonal to the first direction; a photoelectric conversion section provided in the Si substrate and generating charges corresponding to an amount of light reception by means of photoelectric conversion; a charge-holding section provided in the Si substrate and holding the charges transferred from the photoelectric conversion section ; and a light-shielding section including a horizontal light-shielding part and a vertical light-shielding part , the horizontal light-shielding part positioned between the photoelectric conversion section and the charge-holding section in the first direction and extending along the horizontal plane, the vertical light-shielding part being orthogonal to the horizontal light-shielding part ; a surface of the horizontal light-shielding part including a first plane (S1) along the first crystal plane (11S1) of the Si substrate orthogonal to the first direction, and a second plane (S2) along a second crystal plane (11S2) of the Si substrate being inclined relative to the first direction and represented by the plane index . an Si substrate having a first direction as a thickness direction and including a first crystal plane (11S1) represented by a plane index extending along a horizontal plane orthogonal to the first direction; a photoelectric conversion section provided in the Si substrate and generating charges corresponding to an amount of light reception by means of photoelectric conversion; a charge-holding section provided in the Si substrate and holding the charges transferred from the photoelectric conversion section ; and a light-shielding section including a horizontal light-shielding part and a vertical light-shielding part , the horizontal light-shielding part positioned between the photoelectric conversion section and the charge-holding section in the first direction and extending along the horizontal plane, the vertical light-shielding part being orthogonal to the horizontal light-shielding part ; a surface of the horizontal light-shielding part including a first plane (S1) along the first crystal plane (11S1) of the Si substrate orthogonal to the first direction, and a second plane (S2) along a second crystal plane (11S2) of the Si substrate being inclined relative to the first direction and represented by the plane index . a first plane (S1) along the first crystal plane (11S1) of the Si substrate orthogonal to the first direction, and a second plane (S2) along a second crystal plane (11S2) of the Si substrate being inclined relative to the first direction and represented by the plane index .
A negative pressure pump comprising: an electrically insulative casing that is formed in a tubular shape, an axial direction one end of the casing being closed off by a cap body; an electrically conductive rotary shaft that is disposed in the casing , the rotary shaft being mechanically and electrically connected to an earthed power source, the rotary shaft being rotated by power being transmitted from the power source, and a rotation center of the rotary shaft being disposed to be offset relative to a center of the casing ; and an electrically conductive vane that is disposed in the casing , the vane being supported at the rotary shaft to freely reciprocate in a direction orthogonal to the rotary shaft and being electrically connected to the power source via the rotary shaft , the vane rotating integrally with the rotary shaft and end portions of the vane sliding over an inner wall face of the casing , and the vane dividing the interior of the casing into a plurality of spaces and generating negative pressure, characterized in that the vane is wholly formed of an electrically conductive resin. an electrically insulative casing that is formed in a tubular shape, an axial direction one end of the casing being closed off by a cap body; an electrically conductive rotary shaft that is disposed in the casing , the rotary shaft being mechanically and electrically connected to an earthed power source, the rotary shaft being rotated by power being transmitted from the power source, and a rotation center of the rotary shaft being disposed to be offset relative to a center of the casing ; and the rotary shaft being mechanically and electrically connected to an earthed power source, the rotary shaft being rotated by power being transmitted from the power source, and a rotation center of the rotary shaft being disposed to be offset relative to a center of the casing ; and an electrically conductive vane that is disposed in the casing , the vane being supported at the rotary shaft to freely reciprocate in a direction orthogonal to the rotary shaft and being electrically connected to the power source via the rotary shaft , the vane rotating integrally with the rotary shaft and end portions of the vane sliding over an inner wall face of the casing , and the vane dividing the interior of the casing into a plurality of spaces and generating negative pressure, characterized in that the vane is wholly formed of an electrically conductive resin. the vane being supported at the rotary shaft to freely reciprocate in a direction orthogonal to the rotary shaft and being electrically connected to the power source via the rotary shaft , the vane rotating integrally with the rotary shaft and end portions of the vane sliding over an inner wall face of the casing , and the vane dividing the interior of the casing into a plurality of spaces and generating negative pressure, characterized in that the vane is wholly formed of an electrically conductive resin.
A Slope Stability Lidar comprising: a laser producing a beam of optical radiation; a scanner that directs the beam of optical radiation into an area on a point by point basis, each point having an elevation and azimuth with respect to the laser; a detector that receives reflected optical radiation from each point; and a processor programmed to: acquire data from the detector and process the data to compile direction data, range data and amplitude data for each point; characterised in that the processor is programmed to segment the acquired data into blocks of data defining a voxel, with each block forming a voxel being selected based on a specific voxel size, such that all range points are within an azimuth by elevation both from of 0.1 degrees to 1.0 degrees, the voxel size having range limits like to exclude ranges of known artefacts; average the acquired range data within the voxel to produce a precise voxel range value for each voxel; compare voxel range values over time to identify movement; and generate an alert if movement exceeds a threshold. a laser producing a beam of optical radiation; a scanner that directs the beam of optical radiation into an area on a point by point basis, each point having an elevation and azimuth with respect to the laser; a detector that receives reflected optical radiation from each point; and a processor programmed to: acquire data from the detector and process the data to compile direction data, range data and amplitude data for each point; acquire data from the detector and process the data to compile direction data, range data and amplitude data for each point; characterised in that the processor is programmed to segment the acquired data into blocks of data defining a voxel, with each block forming a voxel being selected based on a specific voxel size, such that all range points are within an azimuth by elevation both from of 0.1 degrees to 1.0 degrees, the voxel size having range limits like to exclude ranges of known artefacts; average the acquired range data within the voxel to produce a precise voxel range value for each voxel; compare voxel range values over time to identify movement; and generate an alert if movement exceeds a threshold. degrees to 1.0 degrees, the voxel size having range limits like to exclude ranges of known artefacts; average the acquired range data within the voxel to produce a precise voxel range value for each voxel; compare voxel range values over time to identify movement; and generate an alert if movement exceeds a threshold.