mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a location of a vehicle , the method comprising: acquiring a two-dimensional image, 2D-image using a vehicle-based camera , said image depicting a portion of the vehicle surroundings; classifying a plurality of pixels in said image such that each classified pixel belong to one class out of a predetermined set of classes, thereby forming a classified 2D-image, wherein said classification is performed by means of a learning algorithm; determining an initial estimated vehicle location; defining a plurality of possible vehicle locations based on the initial estimated vehicle location; accessing a pre-stored three dimensional map, 3D-map, comprising a plurality of geometric objects, each geometric object belonging to one class out of said predetermined set of classes; matching the classified 2D-image with the 3D-map, by comparing a classification of a geometric object in the 3D-map, for a possible vehicle location, with a classification of a corresponding at least one pixel in the classified 2D-image; wherein matching comprises projecting at least one classified pixel of said 2D-image onto a geometric object in said 3D-map, and comparing the classification of the geometric object with the classification of the projected at least one pixel in the classified 2D-image; determining a matching score for at least one possible vehicle location based on a plurality of matched pixels of said 2D-image; and determining a vehicle location based on the score of the at least one possible vehicle location. acquiring a two-dimensional image, 2D-image using a vehicle-based camera , said image depicting a portion of the vehicle surroundings; classifying a plurality of pixels in said image such that each classified pixel belong to one class out of a predetermined set of classes, thereby forming a classified 2D-image, wherein said classification is performed by means of a learning algorithm; determining an initial estimated vehicle location; defining a plurality of possible vehicle locations based on the initial estimated vehicle location; accessing a pre-stored three dimensional map, 3D-map, comprising a plurality of geometric objects, each geometric object belonging to one class out of said predetermined set of classes; matching the classified 2D-image with the 3D-map, by comparing a classification of a geometric object in the 3D-map, for a possible vehicle location, with a classification of a corresponding at least one pixel in the classified 2D-image; wherein matching comprises projecting at least one classified pixel of said 2D-image onto a geometric object in said 3D-map, and comparing the classification of the geometric object with the classification of the projected at least one pixel in the classified 2D-image; determining a matching score for at least one possible vehicle location based on a plurality of matched pixels of said 2D-image; and determining a vehicle location based on the score of the at least one possible vehicle location.
A gap blocking system , comprising: a loading platform having a gap separating a first portion of the loading platform from a second portion of the loading platform ; and a guardrail assembly comprising a plurality of guardrail units coupled to the first portion of the loading platform and configured to transition between a first position and a second position , wherein the plurality of guardrail units are configured to block access to the gap when in the first position , wherein an individual guardrail unit of the plurality of guardrail units is configured to interface with an engagement feature of a ride vehicle that is coupled to a transport that extends through the gap , the transport being configured to propel the ride vehicle along a loading path adjacent to the loading platform , to selectively transition the individual guardrail unit from the first position to the second position , and wherein the individual guardrail unit is configured to permit the ride vehicle to occupy a guest-accessible position adjacent to or on the loading platform in the second position . a loading platform having a gap separating a first portion of the loading platform from a second portion of the loading platform ; and a guardrail assembly comprising a plurality of guardrail units coupled to the first portion of the loading platform and configured to transition between a first position and a second position , wherein the plurality of guardrail units are configured to block access to the gap when in the first position , wherein an individual guardrail unit of the plurality of guardrail units is configured to interface with an engagement feature of a ride vehicle that is coupled to a transport that extends through the gap , the transport being configured to propel the ride vehicle along a loading path adjacent to the loading platform , to selectively transition the individual guardrail unit from the first position to the second position , and wherein the individual guardrail unit is configured to permit the ride vehicle to occupy a guest-accessible position adjacent to or on the loading platform in the second position .
Frame element for a scaffold , wherein the frame element comprises the following: a) a support head having a threaded spindle ; b) a frame tube that may be mounted vertically in the scaffold , said frame tube having a spindle receiving section on a first axial frame tube end , wherein the threaded spindle is in part inserted into the spindle receiving section ; c) a spindle nut that is mounted on the threaded spindle , wherein the support head in the mounted state of the frame element introduces its vertical load into the frame tube via the threaded spindle ; wherein the spindle receiving section comprises a first spindle positioning groove that reduces the inner diameter of the frame tube , characterised in that the spindle receiving section comprises a second spindle positioning groove that is spaced axially from the first spindle positioning groove and reduces the inner diameter of the frame tube , wherein the second spindle positioning groove reduces the inner diameter of the frame tube precisely as far as the first spindle positioning groove . a) a support head having a threaded spindle ; b) a frame tube that may be mounted vertically in the scaffold , said frame tube having a spindle receiving section on a first axial frame tube end , wherein the threaded spindle is in part inserted into the spindle receiving section ; c) a spindle nut that is mounted on the threaded spindle , wherein the support head in the mounted state of the frame element introduces its vertical load into the frame tube via the threaded spindle ;
A method for manufacturing an aerogel sheet, the method comprising: a step (a) of preparing a blanket having a plate shape; a step (b) of mixing silica sol with gelling catalyst to prepare a silica sol precursor; and a step (c) of injecting the silica sol precursor prepared in the step (b) to a surface of the blanket prepared in the step (a) through an injection device to gelate the silica sol precursor, wherein, in the step (c), the injection device injects the silica sol precursor while moving from one side to the other side of the surface of the blanket, wherein the step (a) comprises a loading step loading the blanket having the plate shape in a storage vessel, a transfer step adsorbing the plate-shaped blanket loaded in the storage vessel to transfer the blanket, and a preparation step of inserting the blanket transferred by a transfer part into a fixing vessel, and the silica sol precursor is injected to a surface of the blanket inserted into the fixing vessel through the injection device. a step (a) of preparing a blanket having a plate shape; a step (b) of mixing silica sol with gelling catalyst to prepare a silica sol precursor; and a step (c) of injecting the silica sol precursor prepared in the step (b) to a surface of the blanket prepared in the step (a) through an injection device to gelate the silica sol precursor, wherein, in the step (c), the injection device injects the silica sol precursor while moving from one side to the other side of the surface of the blanket, wherein the step (a) comprises a loading step loading the blanket having the plate shape in a storage vessel, a transfer step adsorbing the plate-shaped blanket loaded in the storage vessel to transfer the blanket, and a preparation step of inserting the blanket transferred by a transfer part into a fixing vessel, and the silica sol precursor is injected to a surface of the blanket inserted into the fixing vessel through the injection device.
Transmission rotor for a handpiece intended for dental or surgical applications, comprising a drive mechanism of a drilling tool including bearings , a turbine or a drive pinion as input element, and a drive shaft rotatable about an axis of rotation (R) as output element, wherein said drive shaft is adapted for actuating in rotation said drilling tool around said rotation axis (R), and further including a clamping device of a drilling tool , the said clamping device comprising a clamp disposed inside the said drive shaft for axially securing the said drilling tool with respect to the said axis of rotation (R), the said clamp co-operating with a plunger for release of the said drilling tool , as well as a radial guide bush of the said drilling tool, rotating integrally with said drive shaft , characterized in that the said clamping device comprises a selective angular coupling mechanism ( C s ) between the said clamp and the said guide bush and/or said drive shaft , the said selective angular coupling mechanism ( C s ) exerting an angular holding torque (C) between the said clamp and the said guide bush and/or said drive shaft , whose value is between 4mNm and 20mNm, which being inferior to that corresponding to the slip threshold between the said clamp and the said drilling tool . the said clamping device comprising a clamp disposed inside the said drive shaft for axially securing the said drilling tool with respect to the said axis of rotation (R), the said clamp co-operating with a plunger for release of the said drilling tool , as well as a radial guide bush of the said drilling tool, rotating integrally with said drive shaft , characterized in that the said clamping device comprises a selective angular coupling mechanism ( C s ) between the said clamp and the said guide bush and/or said drive shaft , the said selective angular coupling mechanism ( C s ) exerting an angular holding torque (C) between the said clamp and the said guide bush and/or said drive shaft , whose value is between 4mNm and 20mNm, which being inferior to that corresponding to the slip threshold between the said clamp and the said drilling tool .
A low-bulkiness hinge for rotatably moving and/or controlling a closing element (A), such as a door, a shutter or the like, anchored to a stationary support structure (S), such as a wall or a frame, between an open position and a closed position, the hinge comprising: - a hinge body anchorable to one of the stationary support structure and the closing element (A), said hinge body having a substantially plate-like shape to define a first plane (π'), said hinge body internally comprising a working chamber with a front wall and a bottom wall faced thereto; - a pivot defining a first longitudinal axis (X) anchorable to the other of the stationary support structure (S) and the closing element (A), said pivot and said hinge body being reciprocally coupled to each other to rotate around said first axis (X) between the open position and the closed position of the closing element (A); - a slider slidably movable within said working chamber along a second axis (Y) between a position distal from said bottom wall and a position proximal thereto; wherein said pivot further includes a cam element unitary rotatably therewith, said slider comprising an operative face interacting with said cam element so that the rotation of the closing element (A) around said first axis (X) corresponds to the at least partial sliding of said slider along said second axis (Y); wherein said hinge body includes a passing-through opening to allow a user to access to said pivot , characterized in that said cam element is removably insertable into said pivot through said opening ; wherein said cam element includes an elongated appendix outwardly extending from said pivot in a direction substantially transverse to said first axis (X), the elongated appendix including a working face to contact engage the operative face of said slider ; wherein said cam element further includes a shaped pin outwardly extending from said elongated appendix which is removably insertable into a countershaped seat of said pivot . - a hinge body anchorable to one of the stationary support structure and the closing element (A), said hinge body having a substantially plate-like shape to define a first plane (π'), said hinge body internally comprising a working chamber with a front wall and a bottom wall faced thereto; - a pivot defining a first longitudinal axis (X) anchorable to the other of the stationary support structure (S) and the closing element (A), said pivot and said hinge body being reciprocally coupled to each other to rotate around said first axis (X) between the open position and the closed position of the closing element (A); - a slider slidably movable within said working chamber along a second axis (Y) between a position distal from said bottom wall and a position proximal thereto;
Method for detecting a phase boundary and discriminating whether it is an air-liquid or an air-foam phase boundary in a liquid container of an apparatus by means of a capacitively operating measuring device (M) having a sensor which can be moved up and down in the liquid container , wherein at least one output signal (s out (t)) is processed by the measuring device (M), the method comprising the following steps: a) performing an upward or downward movement (B) of the sensor in the liquid container ; b) applying an input signal (s in (t)) having a first frequency (f 1 ) to the sensor ; c) applying the input signal (s in (t)) having a second frequency (f 2 ) to the sensor , wherein the second frequency (f 2 ) and the first frequency (f 1 ) are different; d) in the context of a first process (P1) - evaluating the output signal (s out (t)) to detect a first jump (ΔX1) of the output signal (s out (t)); e) in the context of a second process (P2) - evaluating the output signal (s out (t)) to detect a second jump (ΔX2) of the output signal (s out (t)); characterized in that the method comprises the following further steps: f) comparing the first jump (ΔX1) with the second jump (ΔX2); g) if the comparison exceeds a preset, output of an identifier (Ks) signalling contacting of the sensor with foam in the liquid container . a) performing an upward or downward movement (B) of the sensor in the liquid container ; b) applying an input signal (s in (t)) having a first frequency (f 1 ) to the sensor ; c) applying the input signal (s in (t)) having a second frequency (f 2 ) to the sensor , wherein the second frequency (f 2 ) and the first frequency (f 1 ) are different; d) in the context of a first process (P1) - evaluating the output signal (s out (t)) to detect a first jump (ΔX1) of the output signal (s out (t)); e) in the context of a second process (P2) - evaluating the output signal (s out (t)) to detect a second jump (ΔX2) of the output signal (s out (t)); f) comparing the first jump (ΔX1) with the second jump (ΔX2); g) if the comparison exceeds a preset, output of an identifier (Ks) signalling contacting of the sensor with foam in the liquid container .
A method comprising: receiving , by an apparatus from another apparatus during a discovery window , a service discovery frame; in response to determining , by the apparatus, that the apparatus is able to transmit a data path request to the other apparatus during the discovery window, transmitting the data path request to the other apparatus during the discovery window; and in response to determining, by the apparatus, that the apparatus is not able to transmit the data path request to the other apparatus during the discovery window, transmitting a wake-up frame to the other apparatus after the discovery window and transmitting the data path request to the other apparatus during an availability window after said transmission of the wake-up frame. receiving , by an apparatus from another apparatus during a discovery window , a service discovery frame; in response to determining , by the apparatus, that the apparatus is able to transmit a data path request to the other apparatus during the discovery window, transmitting the data path request to the other apparatus during the discovery window; and in response to determining, by the apparatus, that the apparatus is not able to transmit the data path request to the other apparatus during the discovery window, transmitting a wake-up frame to the other apparatus after the discovery window and transmitting the data path request to the other apparatus during an availability window after said transmission of the wake-up frame.
Vacuum deposition facility for continuously depositing, on a running substrate (S), coatings formed from metal alloys comprising a main element and at least one additional element, the facility comprising a vacuum deposition chamber and a means for running the substrate through the chamber, wherein the facility further comprises: - a vapor jet coater , - an evaporation crucible adapted to be maintained under vacuum and suited to feed the vapor jet coater with a vapor comprising the main element and the at least one additional element, the evaporation crucible comprising a pot , a cover and an evaporation pipe connected on one side on the cover and on the other side on the vapor jet coater, - a recharging furnace placed beneath the evaporation crucible and adapted to be maintained at atmospheric pressure so as to continuously feed by barometric effect the evaporation crucible with the main element in molten state and to contribute to maintaining a constant level of liquid in the evaporation crucible, - a feeding unit comprising a feeding pipe , connected on the cover of the evaporation crucible, suited to be fed with the at least one additional element in solid state and suited to feed the evaporation crucible by gravity with the at least one additional element indifferently in molten state, in solid state or partially in solid state. - a vapor jet coater , - an evaporation crucible adapted to be maintained under vacuum and suited to feed the vapor jet coater with a vapor comprising the main element and the at least one additional element, the evaporation crucible comprising a pot , a cover and an evaporation pipe connected on one side on the cover and on the other side on the vapor jet coater, - a recharging furnace placed beneath the evaporation crucible and adapted to be maintained at atmospheric pressure so as to continuously feed by barometric effect the evaporation crucible with the main element in molten state and to contribute to maintaining a constant level of liquid in the evaporation crucible, - a feeding unit comprising a feeding pipe , connected on the cover of the evaporation crucible, suited to be fed with the at least one additional element in solid state and suited to feed the evaporation crucible by gravity with the at least one additional element indifferently in molten state, in solid state or partially in solid state.
A mass spectrometer comprising an ion source arranged upstream of a static field mass filter , and a mass analyser arranged downstream of the static field mass filter , configured to mass analyse either (a) ions ejected from an exit aperture of the static field mass filter or (b) product ions derived from the ions ejected from the exit aperture of the static field mass filter , wherein the static field mass filter comprises: an entrance aperture configured to receive an ion beam from the ion source ; the static field mass filter defining a longitudinal symmetry axis between the entrance and exit apertures ; a first Wien filter configured to deflect ions away from the longitudinal symmetry axis in accordance with their m/z; a second Wien filter configured to deflect the ions back towards the longitudinal symmetry axis in accordance with their m/z; and an inverting lens positioned along the longitudinal symmetry axis between the first and second Wien filters , to invert the direction of deflection of the ions from the first Wien filter . an entrance aperture configured to receive an ion beam from the ion source ; the static field mass filter defining a longitudinal symmetry axis between the entrance and exit apertures ; a first Wien filter configured to deflect ions away from the longitudinal symmetry axis in accordance with their m/z; a second Wien filter configured to deflect the ions back towards the longitudinal symmetry axis in accordance with their m/z; and an inverting lens positioned along the longitudinal symmetry axis between the first and second Wien filters , to invert the direction of deflection of the ions from the first Wien filter .
A fluid comprising a base oil and an antioxidant, the base oil consisting of a sulfur-containing polyalkylene glycol where greater than 80 weight-percent of the fluid is a sulfur-containing polyalkylene glycol and less than one weight-percent of the fluid is water, with weight percent based on total fluid weight and wherein the sulfur-containing polyalkylene glycol is free of oxygen bound directly to sulfur.
A laminate comprising a surface layer having a surface formed in a fine relief structure, wherein the surface layer includes a layer composed of a cured product of an active energy ray-curable resin composition, wherein the active energy ray-curable resin composition contains a tri- or higher functional (meth)acrylate (A) and a bifunctional (meth)acrylate (B), wherein a content of the tri- or higher functional (meth)acrylate (A) is from 5 to 40 parts by mass and a content of the bifunctional (meth)acrylate (B) is from 20 to 80 parts by mass (provided that a total of polymerizable components in the active energy ray-curable resin composition is 100 parts by mass), wherein an elastic modulus of the surface layer is less than 160 MPa and a slope of a friction coefficient of the surface layer is 1.8 × 10 -3 or less, wherein the slope of the friction coefficient μ s is calculated by the following Equation: μ s = μ 50 − μ 1 / 50 − 1 wherein μ 1 is a value of the dynamic friction coefficient at the first friction and μ 50 is a value of the dynamic friction coefficient at the fiftieth friction, and wherein the dynamic friction coefficient of the laminate is measured by using a friction tester under the following conditions: a load of 1000 g is applied to the BEMCOT® M-3II having an area of 2 cm 2 which is placed on the surface of the laminate and the reciprocating friction is performed 50 times at a reciprocating distance of 30 mm and a head speed of 30 mm/sec.