mhurhangee/patent-ind-claim-en huggingface dataset:
A pocket former comprising: a pocket former body , the pocket former body having an outer surface, a pocket former first portion and a pocket former second portion ; collapsible elements , the collapsible elements formed on the outer surface of the pocket former body , the collapsible elements extending radially outwardly from the pocket former body ; and pocket former bridges which are oriented longitudinally along the pocket former body such that, when sufficient force is applied to the pocket former bridges, the pocket former bridges break and the pocket former body separates into two or more longitudinal segments, or a collapsible element , the collapsible element formed on the outer surface of the pocket former body , the collapsible element extending radially outwardly from the pocket former body ; and a pocket former bridge coupling pocket former second portion to the collapsible element , wherein the pocket former bridge is less thick than the pocket former body or includes a cut or slit formed in the pocket former body and wherein, during use, the pocket former bridge seals against infiltration of concrete into an interior of the pocket former body whilst providing a structurally weakened area to allow separation between the collapsible element and the pocket former second portion such that the collapsible element will collapse inwards into an interior of the pocket former. a pocket former body , the pocket former body having an outer surface, a pocket former first portion and a pocket former second portion ; collapsible elements , the collapsible elements formed on the outer surface of the pocket former body , the collapsible elements extending radially outwardly from the pocket former body ; and pocket former bridges which are oriented longitudinally along the pocket former body such that, when sufficient force is applied to the pocket former bridges, the pocket former bridges break and the pocket former body separates into two or more longitudinal segments, or a collapsible element , the collapsible element formed on the outer surface of the pocket former body , the collapsible element extending radially outwardly from the pocket former body ; and a pocket former bridge coupling pocket former second portion to the collapsible element , wherein the pocket former bridge is less thick than the pocket former body or includes a cut or slit formed in the pocket former body and wherein, during use, the pocket former bridge seals against infiltration of concrete into an interior of the pocket former body whilst providing a structurally weakened area to allow separation between the collapsible element and the pocket former second portion such that the collapsible element will collapse inwards into an interior of the pocket former.
A computer-implemented method comprising: receiving , at a mobile device, an indication to capture a plurality of images of a scene; and capturing the plurality of images using a camera associated with the mobile device; displaying on a screen of the mobile device during capture of the plurality of images a representation of the plurality of images and presenting, in the screen, a pictorial graphic to present a composite image that includes a target capture path and an indicator that provides alignment information corresponding to a source capture path associated with the mobile device during capture of the plurality of images; and in response to detecting, during capture, that a portion of the source capture path does not match a portion of the target capture path, the match being based at least in part on a threshold condition, providing an updated indicator in the screen, the updated indicator including a prompt, to a user of the mobile device, to adjust the mobile device to align the source capture path with the target capture path, wherein the pictorial graphic comprises a first portion depicting the target capture path and a second portion depicting the source capture path associated with movement of the mobile device, the first and second portions indicating a course to align the second portion with the first portion. receiving , at a mobile device, an indication to capture a plurality of images of a scene; and capturing the plurality of images using a camera associated with the mobile device; displaying on a screen of the mobile device during capture of the plurality of images a representation of the plurality of images and presenting, in the screen, a pictorial graphic to present a composite image that includes a target capture path and an indicator that provides alignment information corresponding to a source capture path associated with the mobile device during capture of the plurality of images; and in response to detecting, during capture, that a portion of the source capture path does not match a portion of the target capture path, the match being based at least in part on a threshold condition, providing an updated indicator in the screen,
A method to calibrate a light unit having at least one light source , the light unit being part of a medical imaging apparatus , comprising: a) providing a calibration phantom , b) positioning the calibration phantom at a calibration position, in particular a first calibration position , c) arranging the light source so that its beam illuminates a photodetector at least partially, d) starting or continuing the recording of light intensities using the photodetector , e) modulating the signal of the light source at least once, f) rotating the light beam around a given rotation axis while recording the rotational position, g) synchronizing the time values of the rotational position of the light beam and the acquired signal intensities using the modulation of the light signal, and h) mapping the rotational position, in particular the rotation angle, of the light beam to a spatial position using the light intensities recorded by the photodetector , characterised by providing the calibration phantom having the at least one photodetector . a) providing a calibration phantom , b) positioning the calibration phantom at a calibration position, in particular a first calibration position , c) arranging the light source so that its beam illuminates a photodetector at least partially, d) starting or continuing the recording of light intensities using the photodetector , e) modulating the signal of the light source at least once, f) rotating the light beam around a given rotation axis while recording the rotational position, g) synchronizing the time values of the rotational position of the light beam and the acquired signal intensities using the modulation of the light signal, and h) mapping the rotational position, in particular the rotation angle, of the light beam to a spatial position using the light intensities recorded by the photodetector ,
Ventilation system, comprising at least one impeller associated with at least one motor for driving said impeller , at least one motor-carrying element able to house said motor , at least one suction conduit and at least one delivery conduit associated with said motor-carrying element , wherein said motor-carrying element is hollow and allows the passage of a flow of air from said suction conduit to said delivery conduit by driving the impeller , wherein said ventilation system further comprises an external casing able to be positioned around said motor-carrying element , said suction conduit and said delivery conduit , said ventilation system being characterised in that the external casing is provided with at least one external layer made of a rigid protective material, and with at least one internal layer made of soundproofing material and integrated in said external casing .
Method for cleaning measuring points of sensors , in which a liquid or gaseous fluid is supplied under pressure to the measuring point of the sensor in the direction of the longitudinal extent of the sensor and at preselectable time intervals or at preselectable points in time and is passed along the measuring point , characterized in that the sensor , which is designed as a thermocouple, is inserted and arranged in a hot, dust-loaded atmosphere in a combustion chamber in such a way that the measuring point of the sensor is arranged in the hot, dust-loaded atmosphere in the combustion chamber and the head of the sensor is arranged outside the hot, dust-laden atmosphere in the combustion chamber , and in that contaminants which have deposited on the sensor in the region of its measuring point are cleaned off by blowing away or flushing away.
A capacitive radiofrequency micro-electromechanical system or capacitive RF MEMS for high-power applications comprising a membrane suspended above an RF transmission line and resting on ground planes (6a; 6b), the membrane exhibiting a lower face and an upper face opposite to the lower face , the RF MEMS being characterised in that said membrane is metallic and in that a first layer comprising a refractory metallic material (Mat1) at least partially covers the upper face of the membrane so as to prevent the heating of the membrane .
Light module comprising : - a support comprising at least a first so-called separation surface , - at least one organic light-emitting diode comprising a first light-emitting part , means for attaching the diode to the support and means for electrically connecting the diode, the means for attaching the diode and the means for electrically connecting the diode are carried by a part of this diode, called the connecting part , and the separation surface of the support delimits a light diffusion zone in which the first light-emitting part of the diode extends, and separates this light scattering area from a masked area, into which the connecting portion of the diode extends, so that said connecting portion is masked by the separation surface of the support , - the support comprises a wall supporting the separation surface , said wall comprising at least one notch passing right through it, so that the connecting part of the light-emitting diode passes through said wall and opens out on a technical surface of the support opposite said separation surface - the support comprises, on the side of its technical surface , fixing means capable of being connected directly to the support and to the connecting part of the said organic light-emitting diode, the said fixing means comprising a releasable blocking element , bearing on an upper bearing edge of the connecting part of the organic light-emitting diode, characterised in that the blocking element comprises a joint connected to the technical surface of the wall of the support, or connected to a centering edge comprising an inner surface placed on the periphery of the notch , arranged on the technical surface of the support. - a support comprising at least a first so-called separation surface , - at least one organic light-emitting diode comprising a first light-emitting part , means for attaching the diode to the support and means for electrically connecting the diode, - the support comprises a wall supporting the separation surface , said wall comprising at least one notch passing right through it, so that the connecting part of the light-emitting diode passes through said wall and opens out on a technical surface of the support opposite said separation surface - the support comprises, on the side of its technical surface , fixing means capable of being connected directly to the support and to the connecting part of the said organic light-emitting diode, the said fixing means comprising a releasable blocking element , bearing on an upper bearing edge of the connecting part of the organic light-emitting diode,
Pultrusion apparatus having a winding device for wrapping fibrous material , extending parallel to a longitudinal centre axis of the winding device , with at least one reinforcing fibre in an angular position with respect to the longitudinal centre axis , wherein the winding device has at least two rotatably mounted fibre carriers that are arranged in a manner spaced apart from one another in the direction of and coaxially with the longitudinal centre axis , characterized in that the fibre carriers are able to be alternately connected for conjoint rotation, by means of at least one driver of the winding device , to a rotatably mounted winding body arranged coaxially with the fibre carriers and the longitudinal centre axis .
A data processing method, comprising: determining a packet loss scenario type corresponding to a first data packet when detecting that the first data packet is lost; generating a second data packet based on a data packet adjacent to the first data packet if the packet loss scenario type meets a data packet compensation condition; and adding the second data packet to a corresponding target location at which the first data packet is located before the first data packet is lost, wherein the determining a packet loss scenario type corresponding to a first data packet when detecting that the first data packet is lost comprises: when detecting that the first data packet is lost, determining, based on an associated data packet corresponding to the first data packet, the packet loss scenario type corresponding to the first data packet, wherein the associated data packet is M adjacent data packets previous to the first data packet, the associated data packet is N adjacent data packets following the first data packet, or the associated data packet is M adjacent data packets previous to the first data packet and N adjacent data packets following the first data packet, wherein M is an integer greater than or equal to 1, and N is an integer greater than or equal to 1. determining a packet loss scenario type corresponding to a first data packet when detecting that the first data packet is lost; generating a second data packet based on a data packet adjacent to the first data packet if the packet loss scenario type meets a data packet compensation condition; and adding the second data packet to a corresponding target location at which the first data packet is located before the first data packet is lost, wherein the determining a packet loss scenario type corresponding to a first data packet when detecting that the first data packet is lost comprises: when detecting that the first data packet is lost, determining, based on an associated data packet corresponding to the first data packet, the packet loss scenario type corresponding to the first data packet, wherein the associated data packet is M adjacent data packets previous to the first data packet, the associated data packet is N adjacent data packets following the first data packet, or the associated data packet is M adjacent data packets previous to the first data packet and N adjacent data packets following the first data packet, wherein M is an integer greater than or equal to 1, and N is an integer greater than or equal to 1.
Secondary liquid container for a motor vehicle, in particular a washing liquid container, with a filler pipe which is connected to the container and with a filling bleed line running approximately parallel to the filler pipe , the filler pipe and the filling bleed line being connected to the container via a single filling and bleeding connection, filling and bleeding being provided via one common connection cross section, wherein the filler pipe comprises a connection piece which is adapted cross-sectionally to the filling and bleeding connection , and wherein the connection piece forms a convergence of the filler pipe and of the filling bleed line to one common connection cross section characterized in that the filling bleed line is routed in the connection piece as far as the mouth cross section of the said connection piece separately from the filler pipe .
A method of extracting oxidised lipids from a lipid solution, the method comprising (a) a derivatisation step, comprising contacting a carboxy group containing derivatisation agent with the lipid solution such that aldehydic oxidised lipids and/or α,β-unsaturated oxidised lipids, if present in the lipid solution, are derivatised to include the carboxy group, and (b) an oxidised lipid capture step, in which nanoparticles comprising or consisting of a metal oxide are contacted with the lipid solution, wherein the nanoparticles selectively bind to the carboxy group, and wherein the derivatisation agent is selected from 2-aminoanthranilic acid , 4-aminoanthranilic acid , 3-(4-aminophenyl)-propionic acid , 6-aminocaproic acid and a compound according to formula (I): or a salt, solvate or hydrate thereof; wherein - X represents a carboxylic acid group; - each L independently represents a single bond or linker group; - n is an integer from 0 to 4; and - A represents an optionally substituted heteroaryl or aryl group. (a) a derivatisation step, comprising contacting a carboxy group containing derivatisation agent with the lipid solution such that aldehydic oxidised lipids and/or α,β-unsaturated oxidised lipids, if present in the lipid solution, are derivatised to include the carboxy group, and (b) an oxidised lipid capture step, in which nanoparticles comprising or consisting of a metal oxide are contacted with the lipid solution, wherein the nanoparticles selectively bind to the carboxy group, and - X represents a carboxylic acid group; - each L independently represents a single bond or linker group; - n is an integer from 0 to 4; and - A represents an optionally substituted heteroaryl or aryl group.
Controllable phase control element for electromagnetic waves for a feed structure of an antenna, comprising a drive unit , a holder which has a connecting element which can be rotated about an axis, and the holder is mounted in a cylindrical waveguide of the controllable phase control element , and at least two meander-line polarizers , wherein the meander-line polarizers are mounted on the holder and each meander-line polarizer is designed for converting a circularly polarized signal into a linearly polarized signal, and the drive unit is connected to the holder by means of the rotatable connecting element in such a way that the meander-line polarizers can be rotated, wherein the holder is fixedly connected to the waveguide, and the waveguide is connected in a rotatable manner and to the drive unit , which is situated outside the waveguide, in such a way that the drive unit rotates the waveguide and the inner holder .
A membrane humidifier for a fuel cell, the membrane humidifier comprising: a hollow fiber membrane module configured to receive hollow fiber membranes , in which a first fluid flows and outside which a second fluid flows such that the first fluid and the second fluid exchanges moisture with each other; and a housing unit defining an external appearance of the membrane humidifier, characterized in that : a fluid guide unit configured to uniformly guide a flow of the second fluid is formed between the hollow fiber membranes and the housing unit ; the fluid guide unit has a dual-layer net structure and comprises a base unit configured to wrap the hollow fiber membranes and a protrusion unit formed on the base unit , the protrusion unit protruding so as to have a predetermined size; the base unit comprises a plurality of first stripes (S1) spaced apart from each other; and the protrusion unit comprises a plurality of second stripes (S2) having a height equivalent to 50 to 300% of a diameter of a single hollow fiber membrane . a hollow fiber membrane module configured to receive hollow fiber membranes , in which a first fluid flows and outside which a second fluid flows such that the first fluid and the second fluid exchanges moisture with each other; and a housing unit defining an external appearance of the membrane humidifier, characterized in that : a fluid guide unit configured to uniformly guide a flow of the second fluid is formed between the hollow fiber membranes and the housing unit ; the fluid guide unit has a dual-layer net structure and comprises a base unit configured to wrap the hollow fiber membranes and a protrusion unit formed on the base unit , the protrusion unit protruding so as to have a predetermined size; the base unit comprises a plurality of first stripes (S1) spaced apart from each other; and the protrusion unit comprises a plurality of second stripes (S2) having a height equivalent to 50 to 300% of a diameter of a single hollow fiber membrane . a fluid guide unit configured to uniformly guide a flow of the second fluid is formed between the hollow fiber membranes and the housing unit ; the fluid guide unit has a dual-layer net structure and comprises a base unit configured to wrap the hollow fiber membranes and a protrusion unit formed on the base unit , the protrusion unit protruding so as to have a predetermined size; the base unit comprises a plurality of first stripes (S1) spaced apart from each other; and the protrusion unit comprises a plurality of second stripes (S2) having a height equivalent to 50 to 300% of a diameter of a single hollow fiber membrane .
A method for producing 1-(4-hydroxyphenyl)-4-(4-trifluoromethoxyphenoxy)piperidine represented by Formula : or a salt thereof, the method comprising the step of heating hydroquinone represented by Formula : or a salt thereof and 4-(4-trifluoromethoxyphenoxy)piperidine represented by Formula : or a salt thereof, the hydroquinone represented by Formula or a salt thereof being used in an amount of 2 moles or more per mole of the 4-(4-trifluoromethoxyphenoxy)piperidine represented by Formula or a salt thereof.
A vehicle comprising a mounted object , which is supported by a framework member of the vehicle with a supporting member and which is disposed offset to one side of the vehicle with respect to a center of the vehicle in a front-rear direction, wherein the framework member includes a pair of front-rear framework members that extends in the front-rear direction of the vehicle , and a right-left framework member that extends in a right-left direction of the vehicle and that is fixed to the pair of front-rear framework members ; the supporting member is fixed to the right-left framework member ; the mounted object is disposed on the one side with respect to the right-left framework member ; and the mounted object comprises an extending portion that extends from the mounted object to the other side in the front-rear direction while inclined to a vertical direction or that extends from the mounted object to the other side in the front-rear direction in a horizontal direction, and that is formed such that, when an external force of a predetermined value or larger is exerted on the mounted object from the one side to displace the mounted object to the other side by a predetermined amount or larger, the extending portion abuts on a surface of the right-left framework member , the surface facing upward in the vertical direction.