mhurhangee/ep-ind-claims huggingface dataset:
A collapsible bed frame, comprising two side bed frames and a plurality of transverse boards spaced between the two side bed frames, each side bed frame comprising a plurality of collapsible units, the collapsible units being hinged to the transverse boards through first hinge elements, and a second hinge element being disposed in a middle portion of each collapsible unit, so that the collapsible bed frame is transformable between an expanded state and a collapsed state, each collapsible unit comprising a first side plate and a second side plate, a front surface of the first side plate or the second side plate comprising at least a first region and a second region, and the first region protruding outward relative to the second region, wherein the second region has an outer surface defined by a front surface of the first side plate and the second side plate, wherein the first region includes a plurality of hollow protrusions, which protrude outward from the outer surface of the second region and the hollow protrusions include a pair of edge protrusions, close to two edges of the first side plate or the second side plate, on the outer surface of the second region, and middle protrusions located between the edge protrusions, on the outer surface of the second region, the edge protrusions and the middle protrusions are substantially elongated and orthogonal to each other.
Device for absorbing energy, wherein the device has a plurality of profiles arranged next to one another, wherein the device comprises at least one cover layer, to which the profiles are attached, characterized in that the profiles are produced from lightweight metal or fibre-reinforced plastic, and in that the device has an inlay of rubber or rigid foam, wherein the inlay and the cover layer enclose the profiles or the inlay runs between the cover layer and the profiles or the inlay is arranged running around the profiles.
A machine for removing plastic wrapping from a bundle of flat articles wrapped in plastic, comprising: a conveyor (12A, 12B) for transporting a wrapped bundle through the machine; a first blade assembly including a pointed blade mounted on a holder provided with a mechanical actuator that slides the blade point first along the surface of the outer face of the bundle, such that the point of the blade pierces the plastic causing the blade to move beneath the plastic wrapping while sliding along the outer surface of one of the flat articles without damaging it, and the blade stretches and tears the plastic as it continues to move beneath the plastic wrapping; and an automated removal and disposal system which separates the torn plastic from the flat articles, wherein the pointed blade is substantially flat with rounded, dull side edges and is positioned so that it slides along the outer surface of the flat article with a flat side of the pointed blade against the article. a conveyor (12A, 12B) for transporting a wrapped bundle through the machine; a first blade assembly including a pointed blade mounted on a holder provided with a mechanical actuator that slides the blade point first along the surface of the outer face of the bundle, such that the point of the blade pierces the plastic causing the blade to move beneath the plastic wrapping while sliding along the outer surface of one of the flat articles without damaging it, and the blade stretches and tears the plastic as it continues to move beneath the plastic wrapping; and an automated removal and disposal system which separates the torn plastic from the flat articles,
A point-cloud data creation method for being computer implemented by a point-cloud data creation device included in a first vehicle, comprising the steps of: creating first point-cloud data from information detected by a sensor mounted on the first vehicle; receiving, from a point-cloud data transmission device included in a second vehicle, encoded point-cloud data (634, 607) that is obtained by encoding second point-cloud data; decoding the encoded point-cloud data that has been received to obtain the second point-cloud data; and merging the first point-cloud data with the second point-cloud data to create third point-cloud data, wherein the second point-cloud data is point-cloud data that is generated by extracting, from fourth point-cloud data, data having an amount of a feature greater than or equal to a threshold. creating first point-cloud data from information detected by a sensor mounted on the first vehicle; receiving, from a point-cloud data transmission device included in a second vehicle, encoded point-cloud data (634, 607) that is obtained by encoding second point-cloud data; decoding the encoded point-cloud data that has been received to obtain the second point-cloud data; and merging the first point-cloud data with the second point-cloud data to create third point-cloud data, wherein the second point-cloud data is point-cloud data that is generated by extracting, from fourth point-cloud data, data having an amount of a feature greater than or equal to a threshold.
A method comprising: refraining from advertising support for any data rate that exceeds a rate threshold; and advertising support for one or more supported data rates each of which does not exceed the rate threshold, the one or more supported data rates belonging to a set of data rates permitted in a first wireless communication technology, the rate threshold defined as the rate at which data would be receivable at a predetermined quality by a first communication module of an apparatus if the first communication module were to receive the data in a signal to which a specific signal-to-interference-plus-noise ratio (SINR) is applicable, where the specific SINR takes into account a contribution of transmissions by a second communication module of the apparatus to interference at the first communication module, the first communication module compatible with the first wireless communication technology, and the second communication module compatible with a second wireless communication technology that differs from the first wireless communication technology. refraining from advertising support for any data rate that exceeds a rate threshold; and advertising support for one or more supported data rates each of which does not exceed the rate threshold, the one or more supported data rates belonging to a set of data rates permitted in a first wireless communication technology, the rate threshold defined as the rate at which data would be receivable at a predetermined quality by a first communication module of an apparatus if the first communication module were to receive the data in a signal to which a specific signal-to-interference-plus-noise ratio (SINR) is applicable, where the specific SINR takes into account a contribution of transmissions by a second communication module of the apparatus to interference at the first communication module, the first communication module compatible with the first wireless communication technology, and the second communication module compatible with a second wireless communication technology that differs from the first wireless communication technology.
A method of processing a TiNi material to produce an implantable medical component, comprising: cold or warm working the TiNi material at least 15%, wherein the TiNi material consists: of nickel and titanium and nickel being present in an atomic percentage amount of 50.5-51.5%; or nickel and titanium with one or more of Co in a range of 0.01 to 3%, Al in a range of 0.01 to 2%, Fe in a range of 0.01 to 3% and Cr in a range of 0.1 to 2%; or 50at% or more nickel and titanium with 0.1 to 3% of one or more of Hf, Zr or Nb; thereafter, aging the cold or warm worked TiNi material under stress at between 300- 700°C; and thereafter, further aging the TiNi material below 300°C to produce a stress free M* s below a normal body temperature and a temperature separation of the stress free R*p and M* p of at least 30°C, wherein M*s signifies the temperature at which reversion to monoclinic Martensite starts, R*p signifies the temperature at which reversion to the R-phase is most rapid and M*p signifies the temperature at which reversion to the monoclinic Martensite phase is most rapid, wherein in use in-vivo the medical component contains at least some R-phase. cold or warm working the TiNi material at least 15%, wherein the TiNi material consists: of nickel and titanium and nickel being present in an atomic percentage amount of 50.5-51.5%; or nickel and titanium with one or more of Co in a range of 0.01 to 3%, Al in a range of 0.01 to 2%, Fe in a range of 0.01 to 3% and Cr in a range of 0.1 to 2%; or 50at% or more nickel and titanium with 0.1 to 3% of one or more of Hf, Zr or Nb; thereafter, aging the cold or warm worked TiNi material under stress at between 300- 700°C; and thereafter, further aging the TiNi material below 300°C to produce a stress free M* s below a normal body temperature and a temperature separation of the stress free R*p and M* p of at least 30°C, wherein M*s signifies the temperature at which reversion to monoclinic Martensite starts, R*p signifies the temperature at which reversion to the R-phase is most rapid and M*p signifies the temperature at which reversion to the monoclinic Martensite phase is most rapid, wherein in use in-vivo the medical component contains at least some R-phase.
Endoscope with an adjustable viewing direction (21, 22), wherein the viewing direction (21, 22) is pivotable about a pivot axis, comprising optical waveguides, by means of which the illumination light is transferred along the shaft from the proximal end of the endoscope to the distal end of the endoscope, comprising: a stationary reflective surface for reflecting the illumination light from a direction parallel to the longitudinal axis of the endoscope into a direction parallel to the pivot axis of the viewing direction; a pivotable reflective surface for reflecting the illumination light from a direction parallel to the pivot axis of the viewing direction (21, 22) into the viewing direction (21, 22) for illuminating an object observed by means of the endoscope, characterized in that at least either the stationary reflective surface or the pivotable reflective surface is curved in order to adapt a spatial region irradiated by the illumination light to the visual field. a stationary reflective surface for reflecting the illumination light from a direction parallel to the longitudinal axis of the endoscope into a direction parallel to the pivot axis of the viewing direction; a pivotable reflective surface for reflecting the illumination light from a direction parallel to the pivot axis of the viewing direction (21, 22) into the viewing direction (21, 22) for illuminating an object observed by means of the endoscope, characterized in that at least either the stationary reflective surface or the pivotable reflective surface is curved in order to adapt a spatial region irradiated by the illumination light to the visual field.
Nozzle for dispensing a fluid into a tank, having the following features: a) the nozzle comprises a device for returning fluid vapours, which comprises a gas valve which can be connected to a vacuum source via a gas hose; b) the gas valve comprises a gas valve body and a gas valve seat and is configured to switch discretely between a closed position, in which the gas valve body lies tightly on the gas valve seat, and an open position, in which a maximum opening cross-section is opened; c) the gas valve body is connected to an actuating magnet which is mounted so as to be displaceable in a non-ferromagnetic actuator housing in order to open and close the gas valve; d) the nozzle comprises an operating magnet which is mounted outside the actuator housing so as to be displaceable between a starting position and an end position established by a stop, and is magnetically coupled to the actuating magnet; characterized in that a float element is mounted displaceably outside the actuator housing so as to be loadable by the fluid to be dispensed and thereby movable against the force of a reset element, wherein the float element has a float magnet which is couplable to the operating magnet. a) the nozzle comprises a device for returning fluid vapours, which comprises a gas valve which can be connected to a vacuum source via a gas hose; b) the gas valve comprises a gas valve body and a gas valve seat and is configured to switch discretely between a closed position, in which the gas valve body lies tightly on the gas valve seat, and an open position, in which a maximum opening cross-section is opened; c) the gas valve body is connected to an actuating magnet which is mounted so as to be displaceable in a non-ferromagnetic actuator housing in order to open and close the gas valve; d) the nozzle comprises an operating magnet which is mounted outside the actuator housing so as to be displaceable between a starting position and an end position established by a stop, and is magnetically coupled to the actuating magnet;
A printed circuit board, comprising: a first insulating substrate having a mounting hole therein, the mounting hole penetrating through the first insulating substrate from a first surface to a second surface and having a width larger in a second direction than in a first direction orthogonal to the second direction; a second insulating substrate including a connection portion, the connection portion penetrating through the mounting hole from the first surface side and protruding from the second surface; a first electrode provided on the second surface and disposed at an edge of the mounting hole along the second direction; a second electrode provided on the connection portion and joined to the first electrode by solder; and an electronic component provided on the second surface, a center of mass of the second insulating substrate being disposed on the first surface side of the first insulating substrate, a center of mass of the electronic component being disposed on the second surface side of the first insulating substrate, characterized in that the electronic component has a weight equivalent to a weight of the second insulating substrate. a first insulating substrate having a mounting hole therein, the mounting hole penetrating through the first insulating substrate from a first surface to a second surface and having a width larger in a second direction than in a first direction orthogonal to the second direction; a second insulating substrate including a connection portion, the connection portion penetrating through the mounting hole from the first surface side and protruding from the second surface; a first electrode provided on the second surface and disposed at an edge of the mounting hole along the second direction; a second electrode provided on the connection portion and joined to the first electrode by solder; and an electronic component provided on the second surface, a center of mass of the second insulating substrate being disposed on the first surface side of the first insulating substrate, a center of mass of the electronic component being disposed on the second surface side of the first insulating substrate, characterized in that the electronic component has a weight equivalent to a weight of the second insulating substrate.
Arrangement of two double disc coulters (7, 8) and a depth control wheel at the frame of a pneumatic precision seed drill, whereby the depth control wheel seen from the direction of travel is located between the two double disc coulters (7,8), whereby the two double disc coulters (7, 8) and the depth control wheel rotate in the same direction and the depth control wheel and the two adjacent double disc coulters (7, 8) are arranged or designed to be in contact with each other at least approximately characterised in that the depth control wheel and the inner coulters of the two adjacent double disc coulters (7, 8) are arranged or designed to be in contact with each other at least approximately at the front end of the depth control wheel whereby the axle of the double disc coulter (7, 8) lies inside the circumference of the depth control wheel or the axle of the depth control wheel lies inside the circumference of the double disc coulters (7, 8).
An immunotherapeutic composition comprising: a) a yeast vehicle; and b) a fusion protein comprising an adenovirus-36 (Ad-36) antigen comprising at least one immunogenic domain of CR1α and at least one immunogenic domain of CR1γ. a) a yeast vehicle; and b) a fusion protein comprising an adenovirus-36 (Ad-36) antigen comprising at least one immunogenic domain of CR1α and at least one immunogenic domain of CR1γ.
A charged particle beam apparatus comprising: an observation mechanism that observes a target by irradiation of a charged particle beam to the target; an estimator that estimates, based on a current image acquired by the observation mechanism under a current observation condition and as a reference image, an image which is presumed to be acquired by the observation mechanism under a presumed observation condition, wherein the estimator includes an image conversion unit of a machine learning type, which converts the current image to a plurality of reference images corresponding to a plurality of presumed observation conditions; a display displays that plurality of reference images: a selector with which a user selects a particular reference image from among the plurality of reference images; and a controller that sets to the observation mechanism a particular presumed observation condition corresponding to the particular reference image as a next observation condition. an observation mechanism that observes a target by irradiation of a charged particle beam to the target; an estimator that estimates, based on a current image acquired by the observation mechanism under a current observation condition and as a reference image, an image which is presumed to be acquired by the observation mechanism under a presumed observation condition, wherein the estimator includes an image conversion unit of a machine learning type, which converts the current image to a plurality of reference images corresponding to a plurality of presumed observation conditions; a selector with which a user selects a particular reference image from among the plurality of reference images; and a controller that sets to the observation mechanism a particular presumed observation condition corresponding to the particular reference image as a next observation condition.
A circulation subassembly (circsub) for incorporation in a drill pipe, the circsub comprising a piston movable within a bore of the circsub in a first direction by pressure of fluid within said bore, the piston having: a first position corresponding to a flow through condition of the circsub in which the circsub allows fluid to flow through a bore of the circsub and does not allow fluid flow from the bore of the circsub through bypass orifices in the circsub into an annulus located outside the drill pipe; a second position corresponding to a partial bypass condition of the circsub in which the circsub allows fluid to flow through the bore of the circsub and allows fluid communication through said bypass orifices from the bore of the circsub into the annulus; wherein the piston has a third position corresponding to a full bypass condition of the circsub in which the circsub does not allow fluid to flow through the bore of the circsub and allows fluid communication through said bypass orifices from the bore of the circsub into the annulus, wherein the circsub further comprises biasing means for biasing the piston in a second direction opposite to the first direction, and a selectively adjustable abutment for limiting the movement of the piston in said first direction to each of said first, second and third positions. a first position corresponding to a flow through condition of the circsub in which the circsub allows fluid to flow through a bore of the circsub and does not allow fluid flow from the bore of the circsub through bypass orifices in the circsub into an annulus located outside the drill pipe; a second position corresponding to a partial bypass condition of the circsub in which the circsub allows fluid to flow through the bore of the circsub and allows fluid communication through said bypass orifices from the bore of the circsub into the annulus; wherein the piston has a third position corresponding to a full bypass condition of the circsub in which the circsub does not allow fluid to flow through the bore of the circsub and allows fluid communication through said bypass orifices from the bore of the circsub into the annulus, wherein the circsub further comprises biasing means for biasing the piston in a second direction opposite to the first direction, and a selectively adjustable abutment for limiting the movement of the piston in said first direction to each of said first, second and third positions.
A battery degradation evaluation system comprising: an acquisition section (22, 30) configured to acquire state quantities of a battery mounted at a vehicle; a derivation section configured to, based on each state quantity acquired by the acquisition section and a pre-specified computation model, derive each of a short-term degradation probability of the battery degrading in a pre-specified short period, a medium-term degradation probability of the battery degrading in a medium period that is longer than the short period, and a long-term degradation probability of the battery degrading in a long period that is longer than the medium period; and an evaluation section configured to evaluate degradation of the battery based on derivation results from the derivation section, the evaluation section being configured to set a higher weighting for a combined degradation probability for the short period and the medium period when a number of state quantities is smaller, the combined degradation probability being calculated from the long-term degradation probability, and set a higher weighting for the short-term degradation probability when the number of state quantities is larger, the state quantities being used as data for learning of the computation model. an acquisition section (22, 30) configured to acquire state quantities of a battery mounted at a vehicle; a derivation section configured to, based on each state quantity acquired by the acquisition section and a pre-specified computation model, derive each of a short-term degradation probability of the battery degrading in a pre-specified short period, a medium-term degradation probability of the battery degrading in a medium period that is longer than the short period, and a long-term degradation probability of the battery degrading in a long period that is longer than the medium period; and a short-term degradation probability of the battery degrading in a pre-specified short period, a medium-term degradation probability of the battery degrading in a medium period that is longer than the short period, and a long-term degradation probability of the battery degrading in a long period that is longer than the medium period; and an evaluation section configured to evaluate degradation of the battery based on derivation results from the derivation section, the evaluation section being configured to set a higher weighting for a combined degradation probability for the short period and the medium period when a number of state quantities is smaller, the combined degradation probability being calculated from the long-term degradation probability, and set a higher weighting for the short-term degradation probability when the number of state quantities is larger, set a higher weighting for a combined degradation probability for the short period and the medium period when a number of state quantities is smaller, the combined degradation probability being calculated from the long-term degradation probability, and set a higher weighting for the short-term degradation probability when the number of state quantities is larger,