mhurhangee/ep-ind-claims huggingface dataset:
A method for utilization of an inter-user equipment device, inter-UE, coordination message, comprising: a UE, receiving, from a first UE, a first inter-UE coordination message, wherein the first inter-UE coordination message includes an indication of a first set of resources and an indication of whether the first set of resources are preferred resources or non-preferred resources; and selecting resources for sidelink communications based on the first set of resources indicated in the inter-UE coordination message, characterized in that the method further comprises: the UE, receiving, from the first UE prior to reserving the selected sidelink resources, a second inter-UE coordination message, wherein the second inter-UE coordination message includes an indication of a second set of resources and an indication that the second set of resources are non-preferred resources; and excluding, based on a comparison of the selected sidelink resources and the second set of resources, resources in the selected sidelink resources indicated as non-preferred by the second set of resources. a UE, receiving, from a first UE, a first inter-UE coordination message, wherein the first inter-UE coordination message includes an indication of a first set of resources and an indication of whether the first set of resources are preferred resources or non-preferred resources; and selecting resources for sidelink communications based on the first set of resources indicated in the inter-UE coordination message, receiving, from a first UE, a first inter-UE coordination message, wherein the first inter-UE coordination message includes an indication of a first set of resources and an indication of whether the first set of resources are preferred resources or non-preferred resources; and selecting resources for sidelink communications based on the first set of resources indicated in the inter-UE coordination message, characterized in that the method further comprises: the UE, receiving, from the first UE prior to reserving the selected sidelink resources, a second inter-UE coordination message, wherein the second inter-UE coordination message includes an indication of a second set of resources and an indication that the second set of resources are non-preferred resources; and excluding, based on a comparison of the selected sidelink resources and the second set of resources, resources in the selected sidelink resources indicated as non-preferred by the second set of resources. receiving, from the first UE prior to reserving the selected sidelink resources, a second inter-UE coordination message, wherein the second inter-UE coordination message includes an indication of a second set of resources and an indication that the second set of resources are non-preferred resources; and excluding, based on a comparison of the selected sidelink resources and the second set of resources, resources in the selected sidelink resources indicated as non-preferred by the second set of resources.
A drilling tool for drilling workpieces, which drilling tool can be rotated about an axis of rotation in one direction of rotation during the machining, comprising: - a tool tip, which tapers in the feed direction along the axis of rotation, in particular tapers conically, and - a main body, - wherein the main body has at least one primary facet (7, 8) as at least one spiralled depression, in particular two spiralled depressions (11, 12) with respect to the rotational volume occupied by the rotating drilling tool to form a conveyor spiral, in particular two conveyor spirals, - wherein the volume occupied by the drilling tool at a standstill, minus the at least one primary facet (7, 8), which is permeated permanently both during standstill and during rotation, forms the core, wherein the core in a first portion, which begins at the tool tip and/or extends to the tool tip, has a constant cross-sectional area perpendicular to the axis of rotation, and in an adjoining second portion opposite the feed direction has a cross-sectional area that increases at least in some sections, wherein the at least one spiralled depression (11, 12) decreases more and more, namely monotonically or strictly monotonically, perpendicularly to the axis of rotation counter to the feed direction, characterised in that the at least one primary facet (7, 8) in each instance forms a secondary cutting edge (9, 10), which encloses a spiral angle (α) as an angle with respect to a perpendicular to the axis of rotation, which angle decreases in the course of the secondary cutting edge (9, 10) against the feed direction from initially 43° to 38°. - a tool tip, which tapers in the feed direction along the axis of rotation, in particular tapers conically, and - a main body, - wherein the main body has at least one primary facet (7, 8) as at least one spiralled depression, in particular two spiralled depressions (11, 12) with respect to the rotational volume occupied by the rotating drilling tool to form a conveyor spiral, in particular two conveyor spirals, - wherein the volume occupied by the drilling tool at a standstill, minus the at least one primary facet (7, 8), which is permeated permanently both during standstill and during rotation, forms the core, wherein the core in a first portion, which begins at the tool tip and/or extends to the tool tip, has a constant cross-sectional area perpendicular to the axis of rotation, and in an adjoining second portion opposite the feed direction has a cross-sectional area that increases at least in some sections, wherein the at least one spiralled depression (11, 12) decreases more and more, namely monotonically or strictly monotonically, perpendicularly to the axis of rotation counter to the feed direction, characterised in that the at least one primary facet (7, 8) in each instance forms a secondary cutting edge (9, 10), which encloses a spiral angle (α) as an angle with respect to a perpendicular to the axis of rotation, which angle decreases in the course of the secondary cutting edge (9, 10) against the feed direction from initially 43° to 38°.
An optical element comprising a plurality of cylindrical lenses (11a, 11b), wherein these cylindrical lenses (11a, 11b) are disposed so that the generatrix directions of these lenses cross each other, thus, achieving the same operation as that of a single lens, and means for moving said lenses in the respective generatrix directions, such that the lenses can be caused to receive light in a different location, and such that the characteristics of the respective lenses remain unchanged when they are moved in said respective generatrix directions.
A covered chamberless particulate detector comprising: a chamberless detector configured to produce a signal when particulate sensing events occur; one or more optical emitters (14, 16) disposed on the chamberless detector, configured to emit one or more emitting cones of light (34, 36); one or more optical sensors (18, 20) disposed on the chamberless detector, defining one or more receiving cones (38, 40); a protective cover defining an inside region and an outside region, the protective cover disposed on the chamberless detector; and one or more apertures through the protective cover; wherein: each of the one or more emitting cones of light is configured to spatially overlap with each of the one or more receiving cones, thereby creating one or more sensing volumes; each of the one or more optical sensors (18, 20) is configured to detect occurrence of particulate sensing events; at least one of the one or more sensing volumes are located within the inside region; at least one of the one or more sensing volumes are located within the outside region; and the cover is transparent to some or all wavelengths of light produced by the one or more optical emitters and received by the one or more optical sensors. a chamberless detector configured to produce a signal when particulate sensing events occur; one or more optical emitters (14, 16) disposed on the chamberless detector, configured to emit one or more emitting cones of light (34, 36); one or more optical sensors (18, 20) disposed on the chamberless detector, defining one or more receiving cones (38, 40); a protective cover defining an inside region and an outside region, the protective cover disposed on the chamberless detector; and one or more apertures through the protective cover; wherein: each of the one or more emitting cones of light is configured to spatially overlap with each of the one or more receiving cones, thereby creating one or more sensing volumes; each of the one or more optical sensors (18, 20) is configured to detect occurrence of particulate sensing events; at least one of the one or more sensing volumes are located within the inside region; at least one of the one or more sensing volumes are located within the outside region; and the cover is transparent to some or all wavelengths of light produced by the one or more optical emitters and received by the one or more optical sensors. each of the one or more emitting cones of light is configured to spatially overlap with each of the one or more receiving cones, thereby creating one or more sensing volumes; each of the one or more optical sensors (18, 20) is configured to detect occurrence of particulate sensing events; at least one of the one or more sensing volumes are located within the inside region; at least one of the one or more sensing volumes are located within the outside region; and the cover is transparent to some or all wavelengths of light produced by the one or more optical emitters and received by the one or more optical sensors.
Oxygen carrier solid in particulate form for a chemical looping redox process such as chemical looping combustion, including: - copper in a total content X of between 5% and 39% expressed as copper oxide by weight relative to the total weight of the oxygen carrier solid in its oxidized form; - a ceramic matrix within which said copper is dispersed, said ceramic matrix including: -- a first sub-stoichiometric spinel of formula Mg a Al b O 4, and/or -- a second sub-stoichiometric spinel of formula Cu c Mg d Al e O 4, with: a = 4 1 + 3 × 100 − X Y − 1 × M MgO M Al 2 O 3 b = 8 × 100 − X − Y Y × M Al 2 O 3 M MgO + 3 × 100 − X − Y c = 4 X M CuO × X M CuO + Y M MgO + 3 × 100 − X − Y M Al 2 O 3 d = 4 Y M MgO ∗ X M CuO + Y M MgO + 3 × 100 − X − Y M Al 2 O 3 e = 8 × 100 − X − Y M Al 2 O 3 × X M CuO + Y M MgO + 3 × 100 − X − Y M Al 2 O 3 M MgO, M CuO and M Al2O3 being the molar masses of MgO, CuO and Al 2 O 3, respectively, Y being the amount of MgO as a weight percentage of the oxygen carrier solid, with X being between 5% and 39%, Y being between 1% and 23%, and Y < -0.6342X + 26.223. - copper in a total content X of between 5% and 39% expressed as copper oxide by weight relative to the total weight of the oxygen carrier solid in its oxidized form; - a ceramic matrix within which said copper is dispersed, said ceramic matrix including: -- a first sub-stoichiometric spinel of formula Mg a Al b O 4, and/or -- a second sub-stoichiometric spinel of formula Cu c Mg d Al e O 4, -- a first sub-stoichiometric spinel of formula Mg a Al b O 4, and/or -- a second sub-stoichiometric spinel of formula Cu c Mg d Al e O 4, M MgO, M CuO and M Al2O3 being the molar masses of MgO, CuO and Al 2 O 3, respectively, Y being the amount of MgO as a weight percentage of the oxygen carrier solid, with X being between 5% and 39%, Y being between 1% and 23%, and Y < -0.6342X + 26.223.
An inductive device comprising: - a toroidal core, - at least one electric conductor wound around the toroidal core and constituting at least one winding, portions of the electric conductor on an outer perimeter of the winding being straight and parallel with an axial direction of the toroidal core, and - a cooling element constituting a cylindrical cavity containing the toroidal core and the electric conductor so that the axial direction of the toroidal core is parallel with an axial direction of the cylindrical cavity and distances from a wall of the cylindrical cavity to different ones of the portions of the electric conductor are equal, characterized in that a cross-sectional shape of the electric conductor is rectangular and a cross-sectional shape of the cylindrical cavity in a geometric plane perpendicular to the axial direction of the cylindrical cavity is circular, wherein gaps between the wall of the cylindrical cavity and the portions of the electric conductor are filled with electrically insulating solid material so that an electrically insulating outer lining of the electric conductor constitutes the electrically insulating solid material filling the gaps, wherein the electrically insulating outer lining of the electric conductor extends, in a longitudinal direction of the electric conductor, over a whole length of each turn of the winding. - a toroidal core, - at least one electric conductor wound around the toroidal core and constituting at least one winding, portions of the electric conductor on an outer perimeter of the winding being straight and parallel with an axial direction of the toroidal core, and - a cooling element constituting a cylindrical cavity containing the toroidal core and the electric conductor so that the axial direction of the toroidal core is parallel with an axial direction of the cylindrical cavity and distances from a wall of the cylindrical cavity to different ones of the portions of the electric conductor are equal,
An optical transceiver, comprising: an optical converter circuit comprising an optoelectronic device, an electronic appliance generating data, and circuitry configured to control the optoelectronic device and the electronic appliance, the optoelectronic device being configured to, upon receiving an incoming optical beam, convert the optical beam into electrical energy, the optoelectronic device being further configured to emit optical pulses, wherein emission of the optical pulses is induced by the incoming optical beam through photo-induced electro-luminescence (PIEL), the optical pulses based on photo-induced electro-luminescence comprise the data generated by the electronic appliance, wherein the circuitry is configured to modulate the data onto the optoelectronic device according to a multiple signal-level coding scheme causing the optoelectronic device to emit the optical pulses in more than two different levels of a discrete set of optical intensities, and wherein the circuitry is configured to vary or segment an electrical load on the optoelectronic device into a discrete set of different electrical-load levels to generate the different levels of optical intensities of the optical pulses. an optical converter circuit comprising an optoelectronic device, an electronic appliance generating data, and circuitry configured to control the optoelectronic device and the electronic appliance, the optoelectronic device being configured to, upon receiving an incoming optical beam, convert the optical beam into electrical energy, the optoelectronic device being further configured to emit optical pulses, wherein emission of the optical pulses is induced by the incoming optical beam through photo-induced electro-luminescence (PIEL), the optical pulses based on photo-induced electro-luminescence comprise the data generated by the electronic appliance, wherein the circuitry is configured to modulate the data onto the optoelectronic device according to a multiple signal-level coding scheme causing the optoelectronic device to emit the optical pulses in more than two different levels of a discrete set of optical intensities, and wherein the circuitry is configured to vary or segment an electrical load on the optoelectronic device into a discrete set of different electrical-load levels to generate the different levels of optical intensities of the optical pulses.
A waterborne coating composition comprising: a. at least one base neutralized active hydrogen containing film-forming resin wherein the polymers used as the film-forming resin are prepared with unreacted carboxylic acid groups to impart the requisite acid functionality; and b. a water dispersible carbodiimide crosslinker capable of reacting with the film- forming resin to form a crosslinked film in an amount ranging from 5 to 50 weight percent resin solids based on total resin solids, whereby the total neutralization of the base neutralized active hydrogen containing film-forming resin is between 100 to 200% i.e. the mole ratio of base present to acid functionality in the film forming resin is 1:1 to 2:1. a. at least one base neutralized active hydrogen containing film-forming resin wherein the polymers used as the film-forming resin are prepared with unreacted carboxylic acid groups to impart the requisite acid functionality; and b. a water dispersible carbodiimide crosslinker capable of reacting with the film- forming resin to form a crosslinked film in an amount ranging from 5 to 50 weight percent resin solids based on total resin solids,
A data processing method for synthesizing in real time customized traffic information for a user who wants to reach a destination position from a departure position, the data processing method comprising the steps of: - obtaining data which define a topological graph, said topological graph being an oriented graph containing information on the connection between segments of a road network, said topological graph comprising nodes which represent points of connection between two adjacent segments and arcs which connect nodes and which correspond to road or carriageway segments; - generating data which define a routes graph (G P), the routes graph (G P) being a subset of the topological graph, having a departure node associated with the departure position, a destination node associated with the destination position, intermediate nodes between the departure node and the destination node, arcs which connect the nodes of the routes graph to one another, the generating step comprising an operation of identifying on the routes graph a plurality of alternative routes which extend from the departure node to the destination node of the routes graph passing through intermediate nodes and arcs of the routes graph (G P); - noting traffic and/or weather data on the routes graph (G P) and obtaining data adapted to define an annotated routes graph; - obtaining data adapted to define a simplified routes graph reducing the number of intermediate nodes of the annotated routes graph by defining aggregate segments as sequences of arcs of the same alternative route which meet one or more homogeneity criteria of the traffic and/or weather data. - obtaining data which define a topological graph, said topological graph being an oriented graph containing information on the connection between segments of a road network, said topological graph comprising nodes which represent points of connection between two adjacent segments and arcs which connect nodes and which correspond to road or carriageway segments; - generating data which define a routes graph (G P), the routes graph (G P) being a subset of the topological graph, having a departure node associated with the departure position, a destination node associated with the destination position, intermediate nodes between the departure node and the destination node, arcs which connect the nodes of the routes graph to one another, the generating step comprising an operation of identifying on the routes graph a plurality of alternative routes which extend from the departure node to the destination node of the routes graph passing through intermediate nodes and arcs of the routes graph (G P); - noting traffic and/or weather data on the routes graph (G P) and obtaining data adapted to define an annotated routes graph; - obtaining data adapted to define a simplified routes graph reducing the number of intermediate nodes of the annotated routes graph by defining aggregate segments as sequences of arcs of the same alternative route which meet one or more homogeneity criteria of the traffic and/or weather data.
A paver machine comprising: a screed arranged to level out road material disposed on the ground; a pressure actuated screed lifting cylinder arranged to lift and lower the screed with respect to the ground; a pressure sensor arranged to measure the pressure in the cylinder when the screed is being lifted or lowered; wherein the paver machine is characterized by a control unit configured to: - receive pressure data from the pressure sensor indicative of the pressure in the screed lifting cylinder when the screed is being lifted by the screed lifting cylinder; - determine a variation in at least a portion of the pressure data indicative of a pressure variation in the screed lifting cylinder, when the variation is determined to be within a predetermined stability variation threshold for a predetermined time duration, set a reference height position for the screed based on the present position of the screed. a screed arranged to level out road material disposed on the ground; a pressure actuated screed lifting cylinder arranged to lift and lower the screed with respect to the ground; a pressure sensor arranged to measure the pressure in the cylinder when the screed is being lifted or lowered; wherein the paver machine is characterized by a control unit configured to: - receive pressure data from the pressure sensor indicative of the pressure in the screed lifting cylinder when the screed is being lifted by the screed lifting cylinder; - determine a variation in at least a portion of the pressure data indicative of a pressure variation in the screed lifting cylinder, - receive pressure data from the pressure sensor indicative of the pressure in the screed lifting cylinder when the screed is being lifted by the screed lifting cylinder; - determine a variation in at least a portion of the pressure data indicative of a pressure variation in the screed lifting cylinder, when the variation is determined to be within a predetermined stability variation threshold for a predetermined time duration, set a reference height position for the screed based on the present position of the screed.
An antifouling sign (10, 20, 30, 50, 60), the sign comprising a marker (12, 22, 26, 42) formed from an antifouling material (11, 31, 21 a, 21b, 51, 61); characterised in that an electronically readable and/or writable identification tag (13, 23, 37, 56, 69) is incorporated in the marker.
An apparatus for supporting an aircraft fuselage having at least two support belts arranged essentially in parallel to one another, wherein the apparatus has a support body having an open and groove-like longitudinal profile, characterized in that the apparatus comprises at least two belt tensioning devices and at least two traction measuring devices, wherein each of the support belts is connected to respectively one belt tensioning device, respectively one traction measuring device and on both sides to the support body, wherein the support belts each span the open longitudinal profile of the support body.