mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine assembly comprising a support component formed to include a notch , an engine component , the engine component mounted in spaced-apart relation to the support component so that a gap is formed between the support component and the engine component and so that the notch opens into the gap, and a seal adapted to close the gap, the seal including a rope gasket that contacts the support component and the engine component to block gasses from passing through the gap and a rope-biasing clip arranged between the support component and the rope gasket to push the rope gasket toward contact with the support component and the engine component; wherein the rope-biasing clip is formed to include a first spring lobe and a second spring lobe that cooperate with surfaces defining the notch in the support component to define a cavity ; wherein the first spring lobe is arranged adjacent to the gap on a first side of the notch ; and wherein the rope gasket contacts the support component along a second side of the notch opposite the first side of the notch so that the gap extending from the second side of the notch is blocked from fluid communication with the cavity.
Method for automatically assigning wireless seismic acquisition units to topographic positions, each wireless seismic acquisition unit comprising a satellite navigation system receiver, characterized in that said method comprises the following steps, carried out by an assigning device: - obtaining topographic locations at which the wireless seismic acquisition units are expected to be laid; - obtaining measured positions of the wireless seismic acquisition units, corresponding to or derived from position information provided by the satellite navigation system receivers when the wireless seismic acquisition units are installed on the ground, each near one of the topographic locations; - computing associations, each between one of the wireless seismic acquisition units and one of the topographic positions, as a function of a comparison between the measured positions and the topographic locations; and - assigning by an assigning device said wireless seismic acquisition units to said topographic positions in function of said computed associations. - obtaining topographic locations at which the wireless seismic acquisition units are expected to be laid; - obtaining measured positions of the wireless seismic acquisition units, corresponding to or derived from position information provided by the satellite navigation system receivers when the wireless seismic acquisition units are installed on the ground, each near one of the topographic locations; - computing associations, each between one of the wireless seismic acquisition units and one of the topographic positions, as a function of a comparison between the measured positions and the topographic locations; and - assigning by an assigning device said wireless seismic acquisition units to said topographic positions in function of said computed associations.
A system for setting up communication between a Signal Equipment Room (SER, 102) and wayside devices , the system comprising: a master controller configured to receive a first analog command signal from the Signal Equipment Room (SER,102) over a first power line, wherein the master controller is configured to generate a digital command signal based on the first analog command signal; and a plurality of slave controllers configured to receive the digital command signal from the master controller over a second power line, wherein each of the plurality of slave controllers is configured to generate a second analog command signal based on the digital command signal, wherein each of the plurality of slave controllers is further configured to send the second analog command signal to a corresponding wayside device over a respective third power line, and characterised in that the second power line comprises a lower core power cable than the first and the third power line. a master controller configured to receive a first analog command signal from the Signal Equipment Room (SER,102) over a first power line, wherein the master controller is configured to generate a digital command signal based on the first analog command signal; and a plurality of slave controllers configured to receive the digital command signal from the master controller over a second power line, wherein each of the plurality of slave controllers is configured to generate a second analog command signal based on the digital command signal, wherein each of the plurality of slave controllers is further configured to send the second analog command signal to a corresponding wayside device over a respective third power line, and characterised in that the second power line comprises a lower core power cable than the first and the third power line.
Method for determining the quantity of a flowable application on a web-fed wrapping material in a clocked article processing machine of the tobacco processing industry by means of at least one sensor , the application quantity being determined in relation to the clock rate and, for each wrapping material strip corresponding to an article, a plurality of measurement values being recorded over the length of the strip in the conveying direction and a profile for the application quantity over the length of the strip being created from the plurality of measurement values , characterised in that at least one flank is determined in the profile , from the position of which flank the phase position of the relevant strip relative to the machine clock rate is determined and readjusted on the basis of this evaluation, the measurement being based on an IR absorption method, the used wavelength of the infrared sensor being matched to absorption bands in the flowable application.
A plastering strip for sealing placement thereof at the transition between a first building component, in particular a window frame, and a second build - ing component, in particular a layer of plaster; comprising a receiving area in which a sealing band is positioned at the plastering strip ; wherein the receiving area is adapted to be opened, in particular by re - leasing at least one latch means or by removing at least part thereof, in par - ticular a protective flap or a receiving area wall , characterised in that the sealing band is designed to have a projecting material length at one end or at the ends of the plastering strip , wherein the projecting material length of the sealing band is designed to seal a joint area; wherein the projecting material length of the sealing band is less than two centimetres each and preferably is three millimetres; wherein the sealing is in a compressed state in longitudinal direction of the sealing band .
A method for Computed Tomography (CT) image processing executed by an imaging processing system including a processing unit and a storage unit, the method comprising: a) retrieving a CT image sequence and segmenting a plurality of bone regions of the CT image sequence, the CT image sequence including a plurality of image slices; b) in each image slice of the CT image sequence, determining a bone region with the maximum area among the plurality of bone regions as a spine region; c) in each image slice of the CT image sequence, determining an anchor point in the top row of the spine region, and validating the anchor point based on information associated with the position of the anchor point in the image slice, wherein the validating the anchor point comprises: determining a y coordinate of the anchor point is greater than 1/4 of the height of the image slice of the CT image sequence, and the shift of an x coordinate from the central position is less than 1/4 of the width of the image slice of the CT image sequence; and determining that the anchor point is valid; and d) calibrating the anchor point in each image slice of the CT image sequence based on the validation result. a) retrieving a CT image sequence and segmenting a plurality of bone regions of the CT image sequence, the CT image sequence including a plurality of image slices; b) in each image slice of the CT image sequence, determining a bone region with the maximum area among the plurality of bone regions as a spine region; c) in each image slice of the CT image sequence, determining an anchor point in the top row of the spine region, and validating the anchor point based on information associated with the position of the anchor point in the image slice, wherein the validating the anchor point comprises: determining a y coordinate of the anchor point is greater than 1/4 of the height of the image slice of the CT image sequence, and the shift of an x coordinate from the central position is less than 1/4 of the width of the image slice of the CT image sequence; and determining that the anchor point is valid; and determining a y coordinate of the anchor point is greater than 1/4 of the height of the image slice of the CT image sequence, and the shift of an x coordinate from the central position is less than 1/4 of the width of the image slice of the CT image sequence; and determining that the anchor point is valid; and d) calibrating the anchor point in each image slice of the CT image sequence based on the validation result.
A touch display panel comprising: data lines (DL) and gate lines (GL); subpixels (SP) defined by the data lines (DL) and gate lines (GL); an encapsulation layer ; touch sensors (TS) for touch sensing disposed on the encapsulation layer , each of the touch sensors (TS) comprising a first sub-electrode and a second sub-electrode (SE1, SE2) located in different layers; and an insulation layer , wherein the first sub-electrode (SE1) is disposed on the encapsulation layer , the insulation layer is disposed on the first sub-electrode (SE1) and the second sub-electrode (SE2) is disposed on the insulation layer , and wherein the first sub-electrode (SE1) and the second sub-electrode (SE2) are electrically connected via a contact hole extending through the insulation layer . data lines (DL) and gate lines (GL); subpixels (SP) defined by the data lines (DL) and gate lines (GL); an encapsulation layer ; touch sensors (TS) for touch sensing disposed on the encapsulation layer , each of the touch sensors (TS) comprising a first sub-electrode and a second sub-electrode (SE1, SE2) located in different layers; and an insulation layer , wherein the first sub-electrode (SE1) is disposed on the encapsulation layer , the insulation layer is disposed on the first sub-electrode (SE1) and the second sub-electrode (SE2) is disposed on the insulation layer , and wherein the first sub-electrode (SE1) and the second sub-electrode (SE2) are electrically connected via a contact hole extending through the insulation layer .
Method for providing a releasable substrate on a carrier , the method comprising (S1) providing the carrier with a bonding layer of radiation curable adhesive ; (S2) selectively irradiating a first area subsection of the bonding layer with a first radiation dose per unit area for selectively at least partially curing the first area subsection , wherein a second area subsection of the bonding layer is not irradiated or irradiated with a second radiation dose per unit area that is less than the first radiation dose per unit area such that the first area subsection is more cured than the second the area subsection ; (S3) providing a substrate and bringing the substrate in contact with the first area subsection and the second area subsection ; (S4) curing the second area subsection in contact with the substrate for forming an adhesion area between the second area subsection and the substrate ; wherein the first area subsection forms a release area , an adhesion force between the bonding layer and the substrate being lower in the release area than in the adhesion area as a result of the first area subsection being more cured than the second area subsection prior to being in contact with the substrate . (S1) providing the carrier with a bonding layer of radiation curable adhesive ; (S2) selectively irradiating a first area subsection of the bonding layer with a first radiation dose per unit area for selectively at least partially curing the first area subsection , wherein a second area subsection of the bonding layer is not irradiated or irradiated with a second radiation dose per unit area that is less than the first radiation dose per unit area such that the first area subsection is more cured than the second the area subsection ; (S3) providing a substrate and bringing the substrate in contact with the first area subsection and the second area subsection ; (S4) curing the second area subsection in contact with the substrate for forming an adhesion area between the second area subsection and the substrate ; wherein the first area subsection forms a release area , an adhesion force between the bonding layer and the substrate being lower in the release area than in the adhesion area as a result of the first area subsection being more cured than the second area subsection prior to being in contact with the substrate .
In a computing system, a method comprising: in an operating system, in response to one or more calls through an application programming interface ("API"), generating a location card for a location, and outputting the location card for display, characterized in that the location card includes (a) a map for the location, (b) details about the location, and (c) one or more action indicators, each of the one or more action indicators being linked to an application capable of performing a corresponding action, wherein the operating system supports location card functionality for first-party applications and for third-party applications that make calls through the API. in an operating system, in response to one or more calls through an application programming interface ("API"), generating a location card for a location, and outputting the location card for display, characterized in that the location card includes (a) a map for the location, (b) details about the location, and (c) one or more action indicators, each of the one or more action indicators being linked to an application capable of performing a corresponding action, wherein the operating system supports location card functionality for first-party applications and for third-party applications that make calls through the API.
A vehicle decorative part comprising: a decorative main body that is configured to be attached to a vehicle at a front side in a transmission direction of millimeter waves from a millimeter wave radar to decorate the vehicle and has a millimeter wave transparency; and a heater having a heating element that emits heat when energized, wherein at least one of components that form the heater is incorporated in the heater in a millimeter wave attenuation reducing configuration that reduces attenuation of the millimeter waves passing through the heater , the heater includes an electrode and a thermistor , and as the millimeter wave attenuation reducing configuration, at least one of the electrode and the thermistor is incorporated in the heater at a position outside the irradiation region (Z1) of the millimeter waves in the heater . a decorative main body that is configured to be attached to a vehicle at a front side in a transmission direction of millimeter waves from a millimeter wave radar to decorate the vehicle and has a millimeter wave transparency; and a heater having a heating element that emits heat when energized, wherein at least one of components that form the heater is incorporated in the heater in a millimeter wave attenuation reducing configuration that reduces attenuation of the millimeter waves passing through the heater , the heater includes an electrode and a thermistor , and as the millimeter wave attenuation reducing configuration, at least one of the electrode and the thermistor is incorporated in the heater at a position outside the irradiation region (Z1) of the millimeter waves in the heater .
A method for sensing a condition of a hydrocarbon reservoirfrom a subterranean production well having a lined section with a liner and an adjacent unlined section , the method comprising the steps of: (a) attaching an electric current sensor to the liner , proximate to a lower end of the liner , adjacent to the unlined section , to measure the electric current induced on the liner ; (b) locating a plurality of electromagnetic sources along the adjacent unlined section ; (c) generating a source current with the electromagnetic sources and measuring a resulting current induced in the liner by each electromagnetic source with the electric current sensor wherein the resulting current induced is an original resulting induced current in the liner by each electromagnetic source with the electric current sensor ; (d) repeating step (c) and comparing a subsequent resulting induced current in the liner by each electromagnetic source to the original resulting induced current by the corresponding source to determine a change in resulting induced currents over time; and (e) inverting the original resulting induced currents and the subsequent resulting induced currents or the change in resulting induced currents over time to obtain an electric conductivity distribution in the reservoir, a change over time of the electric conductivity distribution in the reservoir and identify a possibly approaching water front. (a) attaching an electric current sensor to the liner , proximate to a lower end of the liner , adjacent to the unlined section , to measure the electric current induced on the liner ; (b) locating a plurality of electromagnetic sources along the adjacent unlined section ; (c) generating a source current with the electromagnetic sources and measuring a resulting current induced in the liner by each electromagnetic source with the electric current sensor wherein the resulting current induced is an original resulting induced current in the liner by each electromagnetic source with the electric current sensor ; (d) repeating step (c) and comparing a subsequent resulting induced current in the liner by each electromagnetic source to the original resulting induced current by the corresponding source to determine a change in resulting induced currents over time; and (e) inverting the original resulting induced currents and the subsequent resulting induced currents or the change in resulting induced currents over time to obtain an electric conductivity distribution in the reservoir, a change over time of the electric conductivity distribution in the reservoir and identify a possibly approaching water front.
A telescopic edge protection post arrangeable between a floor and a ceiling, the telescopic edge protection post comprising an outer tube having a floor end and a top end , and having a polygonal cross-section, an inner tube having a bottom end and a ceiling end , and having a polygonal cross-section, wherein the inner tube extends into the outer tube and is movable with respect thereto between an extended position and a collapsed position, a locking mechanism arranged to lock the inner tube with respect to the outer tube, and a tensioning device , wherein the locking mechanism comprises a fixed element , which is attached to the outer tube at its top end, and a movable element , which is movable with respect to the fixed element between a locking position in which the movable element engages with the inner tube and the fixed element to prevent the inner tube from being retracted into the outer tube, and a non-locking position in which the inner tube is retractable into the outer tube, characterized in that the movable element is arranged at a corner of the inner tube and is engaged with, at least in the locking position, first two adjacent sides of the inner tube at said corner, thereby fixing, in the locking position, the inner tube relative to the outer tube in all transverse directions of the telescopic edge protection post.
An absorbent article comprising an absorbent core sandwiched between a liquid permeable topsheet and a liquid impermeable backsheet , wherein the absorbent core comprises absorbent material selected from the group consisting of cellulose fibers, superabsorbent polymers and combinations thereof, wherein said absorbent material is contained within at least one core wrap substrate enclosing said absorbent material, and wherein a top layer of said core wrap is adhered to a bottom layer of said core wrap to form one or more channels substantially free of said absorbent material, wherein said channels have a length extending along a longitudinal axis and the absorbent core has a length extending along said longitudinal axis and wherein the length of said channels is from 10% to 95% of the length of said absorbent core such that each said channels are circumscribed by absorbent material characterized in that said top layer of the core wrap is in direct contact with the topsheet, and said top layer of the core wrap comprises a spunbond nonwoven or a carded thermobonded nonwoven and in that the top layer of the core wrap is directly joined to the topsheet by adhesive located at discrete joining areas spaced apart in the transverse direction.
Method for determining the geometry of a metallic, in particular a magnetizable object, in particular a pipe or a tank, in particular having one or more real examined defects, using a reference data set of the object generated on the basis of at least one measurement by at least one nondestructive measurement method, preferably comprising an at least partial representation of the object on an or by an at least three-dimensional object grid by means of an EDP unit, wherein a classification of anomaly-free areas and anomaly-affected areas of the object takes place on the basis of at least parts of the at least one reference data set, wherein an output object grid is created on the basis of previously known information about the object, a prediction data set of the at least one nondestructive measurement method is calculated using the output object grid by a simulation routine, a comparison of at least parts of the prediction data set with at least parts of the at least one reference data set takes place with exclusion of the anomaly-affected areas, and as a function of at least one accuracy measure, the output object grid is used as the object grid describing the geometry of the object or an iterative adaptation of the output object grid to the geometry of the object in the anomaly-free areas is carried out by means of the EDP unit, wherein a new output object grid is created by the iteration and a new prediction data set is calculated for the new output object grid by the simulation routine and a comparison of at least parts of the new prediction data set to at least parts of the at least one reference data set with exclusion of the anomaly-affected areas takes place until a stop criterion is met and the output object grid then present is used as the object grid describing the geometry of the object.