mhurhangee/ep-ind-claims huggingface dataset:
A helmet, including: - a shell intended to protect the head of a user; - a cap mounted on the interior of the shell and including a suspension mounting intended to rest on the head of the user, and a headband; - a face shield including a central portion and two side wings, each assembled onto the shell by means of an assembly device, the shield being mounted on the interior of the shell in a manner movable between: - a lowered position in which the shield is located roughly in front of the user's face; and - a raised position in which shield is located in the space between the cap and the inside of the shell; characterized in that each assembly device includes: - a rod having a first end mounted articulated about a first roughly transverse axis integral with the shell and a second end mounted articulated about a second roughly transverse axis integral with an extreme upper part of the side wing of the shield; and - a rail installed on the side wing of the shield and exhibiting at least one guide surface (59, 59a, 59b) capable of operating together with an element (56, 58a, 58b) integral with the shell to guide the shield over its entire movement from its lowered position to its raised position, and back, along but at a distance from the inside of the shell. - a shell intended to protect the head of a user; - a cap mounted on the interior of the shell and including a suspension mounting intended to rest on the head of the user, and a headband; - a face shield including a central portion and two side wings, each assembled onto the shell by means of an assembly device, the shield being mounted on the interior of the shell in a manner movable between: - a lowered position in which the shield is located roughly in front of the user's face; and - a raised position in which shield is located in the space between the cap and the inside of the shell; - a lowered position in which the shield is located roughly in front of the user's face; and - a raised position in which shield is located in the space between the cap and the inside of the shell; - a rod having a first end mounted articulated about a first roughly transverse axis integral with the shell and a second end mounted articulated about a second roughly transverse axis integral with an extreme upper part of the side wing of the shield; and - a rail installed on the side wing of the shield and exhibiting at least one guide surface (59, 59a, 59b) capable of operating together with an element (56, 58a, 58b) integral with the shell to guide the shield over its entire movement from its lowered position to its raised position, and back, along but at a distance from the inside of the shell.
A coating device for the register-accurate application of plastic material to a carrier web, comprising a first coating roller and a downstream second coating roller, wherein the first coating roller has at least one first cavity and can be filled with plastic material by means of at least one first nozzle, and wherein the second coating roller has at least one second cavity and can be filled with plastic material by means of at least one second nozzle, and wherein a first wiping device wipes the first coating roller and a second wiping device wipes the second coating roller, and wherein the first coating roller cooperates with a first counter roller and coats a first carrier web side and the second coating roller cooperates with a second counter roller and coats a second carrier web side, and wherein the second counter roller comprises at least one counter cavity corresponding to the at least one first cavity, characterized in that the coating device further comprises at least one carrier web positioning device, and at least one area detection device which detects the position of a first area of plastic material coated by the at least one first cavity.
Process for the preparation of a compound of the formula, wherein R 1 is hydrogen or halogen; R 2 is hydrogen, halogen or cyano; n is 0-7, particularly n is 2-3, more particularly n is 2; comprising any of the following steps: Step a) the formation of compound of formula, via nucleophilic aromatic substitution between compound of formula, and compound, Step b) the formation of compound of formula, via Suzuki-Miyaura coupling reaction between compound of formula and compound, Step c) the formation of compound of formula, via deprotection of formula. wherein R 1 is hydrogen or halogen; R 2 is hydrogen, halogen or cyano; n is 0-7, particularly n is 2-3, more particularly n is 2; comprising any of the following steps: Step a) the formation of compound of formula, via nucleophilic aromatic substitution between compound of formula, and compound, Step b) the formation of compound of formula, via Suzuki-Miyaura coupling reaction between compound of formula and compound, Step c) the formation of compound of formula, via deprotection of formula. Step a) the formation of compound of formula, via nucleophilic aromatic substitution between compound of formula, and compound, Step b) the formation of compound of formula, via Suzuki-Miyaura coupling reaction between compound of formula and compound, Step c) the formation of compound of formula, via deprotection of formula.
A data transmission method in a wearable electronic device, the method comprising: receiving an input relating to data to be transmitted; monitoring a state of the wearable electronic device; determining whether the state of the wearable electronic device satisfies a pre-set transmission condition, the pre-set transmission condition being satisfied if the heat state is not an excessive heat state for a user of the wearable electronic device based on a result of the monitoring; the pre-set transmission condition being that a current heat step is less than a set heat step; and transmitting the data when the pre-set transmission condition is satisfied. receiving an input relating to data to be transmitted; monitoring a state of the wearable electronic device; determining whether the state of the wearable electronic device satisfies a pre-set transmission condition, the pre-set transmission condition being satisfied if the heat state is not an excessive heat state for a user of the wearable electronic device based on a result of the monitoring; the pre-set transmission condition being that a current heat step is less than a set heat step; and transmitting the data when the pre-set transmission condition is satisfied.
A bone screw (2, 102), comprising: a proximal end (6, 106) and a distal end (8, 108) spaced from the proximal end (6, 106) in a distal direction along a longitudinal axis of the bone screw (2, 102); a cannulation (12, 112) extending from the proximal end (6, 106) to the distal end (8, 108); a threaded region (20, 120) extending along at least a portion of a length of the screw (2, 102), the length extending from the proximal end (6, 106) to the distal end (8, 108), the threaded region (20, 120) defining at least one external thread (22, 122) that extends about the longitudinal axis along a helical path (24, 124), the threaded region (20, 120) including at least one flute (26, 126) that extends to the distal end (8, 108) of the bone screw (2, 102), the at least one flute (26, 126) defining an associated at least one cutting tooth (28, 128) that, in turn, defines a cutting face (50, 150) oriented so as to define an angle with respect to the longitudinal axis, the angle (α) in the range of 5 degrees to 25 degrees, wherein the flute (26, 126) circumferentially interrupts at least a portion of the external thread (22, 122); and characterized in that the at least one cutting tooth (28, 128) defines a cutting edge that extends radially outwardly and distally from an interface with the cannulation (12, 112) to a cutting tip at a distal terminus of at least one cutting tooth. a proximal end (6, 106) and a distal end (8, 108) spaced from the proximal end (6, 106) in a distal direction along a longitudinal axis of the bone screw (2, 102); a cannulation (12, 112) extending from the proximal end (6, 106) to the distal end (8, 108); a threaded region (20, 120) extending along at least a portion of a length of the screw (2, 102), the length extending from the proximal end (6, 106) to the distal end (8, 108), the threaded region (20, 120) defining at least one external thread (22, 122) that extends about the longitudinal axis along a helical path (24, 124), the threaded region (20, 120) including at least one flute (26, 126) that extends to the distal end (8, 108) of the bone screw (2, 102), the at least one flute (26, 126) defining an associated at least one cutting tooth (28, 128) that, in turn, defines a cutting face (50, 150) oriented so as to define an angle with respect to the longitudinal axis, the angle (α) in the range of 5 degrees to 25 degrees, wherein the flute (26, 126) circumferentially interrupts at least a portion of the external thread (22, 122); and characterized in that the at least one cutting tooth (28, 128) defines a cutting edge that extends radially outwardly and distally from an interface with the cannulation (12, 112) to a cutting tip at a distal terminus of at least one cutting tooth.
Composite pane with electrical contacting means, at least comprising: - a first pane and a second pane, which are bonded face-to-face to each other via a thermoplastic intermediate layer, - at least one electrically conductive coating at least on the interior-side surface of the first pane, - at least one busbar on a region of the electrically conductive coating, and - at least one electrically conductive contact strip on at least one region of the busbar, wherein the contact strip is connected to at least one electrical feed line and at least one region of the contact strip is in direct contact with the busbar, wherein there is no mechanical connection, in particular no connection via a soldering compound or an adhesive, between the busbar and the region of the contact strip, - wherein the contact strip is in direct full-surface contact with the busbar, wherein a length and a width of the contact strip correspond at most to the length and width of the busbar, or wherein - the contact strip has a greater width than the busbar and protrudes beyond at least one side edge of the busbar and in the region of the busbar is in direct full-surface contact with the busbar, wherein in case the contact strip is connected to the electrical feed line via an electrical connection element, the contact strip and the electrical connection element are implemented in two pieces. - a first pane and a second pane, which are bonded face-to-face to each other via a thermoplastic intermediate layer, - at least one electrically conductive coating at least on the interior-side surface of the first pane, - at least one busbar on a region of the electrically conductive coating, and - at least one electrically conductive contact strip on at least one region of the busbar, wherein the contact strip is connected to at least one electrical feed line and at least one region of the contact strip is in direct contact with the busbar, wherein there is no mechanical connection, in particular no connection via a soldering compound or an adhesive, between the busbar and the region of the contact strip, - wherein the contact strip is in direct full-surface contact with the busbar, wherein a length and a width of the contact strip correspond at most to the length and width of the busbar, or wherein - the contact strip has a greater width than the busbar and protrudes beyond at least one side edge of the busbar and in the region of the busbar is in direct full-surface contact with the busbar, wherein in case the contact strip is connected to the electrical feed line via an electrical connection element, the contact strip and the electrical connection element are implemented in two pieces.
A method for separating composite materials and mixtures, in particular solid-material mixtures and slags, comprising the step of transporting the composite material or the mixture through a separating device (31, 41; 32, 42), wherein the device comprises a drive unit for driving a rotor element which is connected to a bearing/shaft unit having an axis of rotation which is essentially parallel to the force of gravity, the rotor element being part of a rotor unit, the rotor element itself having at least one rotor tool and each rotor tool having at least one rotor tool component, the rotor element being surrounded by a stator element, which is part of a stator unit, the stator element itself having at least one stator tool and each stator tool having at least one stator tool component, the rotor element and the stator element being essentially cylindrical and the device additionally comprising a material inlet for supplying the composite material or the mixture above the rotor/stator unit (31, 41) and a material outlet for discharging the separated material below the rotor/stator unit (31, 41), wherein the composite material to be separated or the mixture to be separated is excited by mechanical impulses as it passes through the separating device and is thereby separated, and wherein, in the case of a change of the rotor unit and the stator unit (31, 41), the rotor unit and the stator unit are changed as a complete unit, wherein the change happens in a quick-change device outside of the machine, wherein the rotor tools and the stator tools (33, 34) are changed or replaced by being lowered within the device (31, 41; 32, 42), and wherein, through the lowering, new wear parts are introduced from below and the worn, consumed wear parts are ejected upward. wherein the composite material to be separated or the mixture to be separated is excited by mechanical impulses as it passes through the separating device and is thereby separated, and wherein, in the case of a change of the rotor unit and the stator unit (31, 41), the rotor unit and the stator unit are changed as a complete unit, wherein the change happens in a quick-change device outside of the machine, wherein the rotor tools and the stator tools (33, 34) are changed or replaced by being lowered within the device (31, 41; 32, 42), and wherein, through the lowering, new wear parts are introduced from below and the worn, consumed wear parts are ejected upward.
A method of classifying data points of a point cloud using a digital map, the digital map comprising a plurality of segments, each segment representing a navigable element of a navigable network and comprising a plurality of reference lines indicative of borders of the navigable element, wherein each segment is associated with location data indicative of the geographical location of the plurality of reference lines, and each segment is further associated with localisation reference data indicative of the geographical location of the surfaces of objects in an environment around the navigable element, the method comprising: obtaining the localisation reference data for one or more segments of the digital map based on a deemed current position of a vehicle along a navigable element of the navigable network; determining real time scan data by scanning the environment around the vehicle using at least one sensor, wherein the real time scan data is based on a point cloud indicative of the environment around the vehicle, the point cloud including a plurality of data points in a three-dimensional coordinate system, wherein each data point has a location in the three-dimensional coordinate system representing a surface of an object in the environment as determined using the at least one sensor; calculating a correlation between the localisation reference data and the real time scan data to determine one or more alignment offsets; using the determined one or more alignment offsets to adjust the location of the data points of the point cloud of the real time scan data; comparing, for each of the plurality of data points, the adjusted location of the data point to the location data for the relevant segment to determine if the data point is between the borders of the navigable element; and classifying each of the plurality of data points into one or more groups based on the comparison. obtaining the localisation reference data for one or more segments of the digital map based on a deemed current position of a vehicle along a navigable element of the navigable network; determining real time scan data by scanning the environment around the vehicle using at least one sensor, wherein the real time scan data is based on a point cloud indicative of the environment around the vehicle, the point cloud including a plurality of data points in a three-dimensional coordinate system, wherein each data point has a location in the three-dimensional coordinate system representing a surface of an object in the environment as determined using the at least one sensor; calculating a correlation between the localisation reference data and the real time scan data to determine one or more alignment offsets; using the determined one or more alignment offsets to adjust the location of the data points of the point cloud of the real time scan data; comparing, for each of the plurality of data points, the adjusted location of the data point to the location data for the relevant segment to determine if the data point is between the borders of the navigable element; and classifying each of the plurality of data points into one or more groups based on the comparison.
A method of processing video data, the method comprising: determining palette indices of a first row of a block of video data, wherein the palette indices correspond to a palette for coding the block of video data, and wherein the palette indices of the first row include one or more indices that are associated with at least one color value in the palette and an index that indicates an escape sample that is not associated with a color value in the palette; and coding a run of palette indices of a second row of the block of video data relative to the palette indices of the first row, characterised by the run includes the one or more palette indices that are associated with the at least one color value and the index that indicates an escape sample. determining palette indices of a first row of a block of video data, wherein the palette indices correspond to a palette for coding the block of video data, and wherein the palette indices of the first row include one or more indices that are associated with at least one color value in the palette and an index that indicates an escape sample that is not associated with a color value in the palette; and coding a run of palette indices of a second row of the block of video data relative to the palette indices of the first row, characterised by the run includes the one or more palette indices that are associated with the at least one color value and the index that indicates an escape sample.
Method of depositing components (100a, 100b) of different types for handling systems in stackable containers in such a manner that they are sorted according to type, comprising the following steps: a. picking up components (100a, 100b) delivered in any desired sequence by a transport device one by one and classifying their type, then depositing the components (100a, 100b) in an intermediate store at associated storage locations; b. once the intermediate store has been filled to a predetermined percentage p, transferring those components (100a, 100b) corresponding to the predominant type present in the intermediate store to an associated container, wherein the container is selected from a random access area of a container stack; c. repeating steps a. and b. until a container of one type has been filled; d. moving the filled container into a storage area of the container stack and moving an empty container from a supply area of the container stack into the random access area of the container stack, and e. repeating steps a. to d. until all of the components (100a, 100b) delivered have been deposited in containers associated with their type, wherein, for each full container moved into the storage area, an empty container is loaded into the supply area of the container stack. a. picking up components (100a, 100b) delivered in any desired sequence by a transport device one by one and classifying their type, then depositing the components (100a, 100b) in an intermediate store at associated storage locations; b. once the intermediate store has been filled to a predetermined percentage p, transferring those components (100a, 100b) corresponding to the predominant type present in the intermediate store to an associated container, wherein the container is selected from a random access area of a container stack; c. repeating steps a. and b. until a container of one type has been filled; d. moving the filled container into a storage area of the container stack and moving an empty container from a supply area of the container stack into the random access area of the container stack, and e. repeating steps a. to d. until all of the components (100a, 100b) delivered have been deposited in containers associated with their type, wherein, for each full container moved into the storage area, an empty container is loaded into the supply area of the container stack.
An apparatus for harvesting energy from waves, of the wave energy converter type being a point absorber, comprising a floating platform, a cylinder connected thereto and arranged underneath the floating platform, and a piston having a piston rod arranged to be connected to a mooring at the sea floor, wherein at least one penstock tube is in fluid connection at its lower end with a lower portion of the cylinder, below the piston, the at least one penstock tube being provided along the cylinder and has an opening at the upper end facing a water turbine arranged above the cylinder, the water turbine being in connection with a generator, wherein the cylinder has at least one opening in the lower portion thereof and provided with a one-way valve arranged to allow water into the lower portion of the cylinder when the cylinder moves downwards and thus the piston moves upwards relative the cylinder, wherein the cylinder has at least one opening in an upper portion of the cylinder arranged to allow water into the upper portion of the cylinder when the cylinder moves upwards and thus the piston moves downwards relative the cylinder, and wherein the upper opening of the at least one penstock tube further comprises one or more adjustable nozzles arranged to regulate the pressure and the speed of water exiting the at least one penstock tube.