mhurhangee/patent-ind-claim-en huggingface dataset:
A method for compressing electronic image data comprising two sets of elements which are arranged in an alternating pattern, the method comprising the steps of: generating at least two sets of reduced size image data from the electronic image data, each element of each set of reduced size image data being representative of a plurality of elements of the electronic image data, wherein the sets of reduced size image data can be combined using modulation values to provide a representation of the electronic image data; for each of the elements of a first of the two sets of elements of the electronic image data, assigning a modulation value comprising two bits to indicate one of a predetermined set of four modulation values; assigning a respective flag to each of the elements of a second of the two sets of elements of the electronic image data, wherein the flag assigned for an element of the second set indicates whether a modulation value for that element is to be derived by interpolating modulation values assigned to adjacent horizontal elements or adjacent vertical elements; and storing the sets of reduced size image data, indications of the modulation values assigned for each of the elements of the first of the two sets of elements, and the flags assigned for each of the elements of a second of the two sets of elements. generating at least two sets of reduced size image data from the electronic image data, each element of each set of reduced size image data being representative of a plurality of elements of the electronic image data, wherein the sets of reduced size image data can be combined using modulation values to provide a representation of the electronic image data; for each of the elements of a first of the two sets of elements of the electronic image data, assigning a modulation value comprising two bits to indicate one of a predetermined set of four modulation values; assigning a respective flag to each of the elements of a second of the two sets of elements of the electronic image data, wherein the flag assigned for an element of the second set indicates whether a modulation value for that element is to be derived by interpolating modulation values assigned to adjacent horizontal elements or adjacent vertical elements; and storing the sets of reduced size image data, indications of the modulation values assigned for each of the elements of the first of the two sets of elements, and the flags assigned for each of the elements of a second of the two sets of elements.
A method for transmitting a warning message in a wireless access system supporting a Vehicle to Everything, V2X, service, the method, performed by a vehicle user equipment, VUE, comprising: receiving (S703) a first Message transmission Guideline Package, MGP, message including geographical coordinate information related with an MGP area and a value tag indicating time information for updating the first MGP message; checking (S709) if the value tag is changed or not; and transmitting (S705) a first warning message based on the first MGP message when the value tag is not expired; and transmitting (S723) a second warning message based on a second MGP message (S719) that updates the first MGP message when the value tag is expired, wherein at least one of a transmission frequency or a transmission power for the second warning message are determined (S721) based on the second MGP message, and wherein the MGP area represents where MGP profiles are the same. receiving (S703) a first Message transmission Guideline Package, MGP, message including geographical coordinate information related with an MGP area and a value tag indicating time information for updating the first MGP message; checking (S709) if the value tag is changed or not; and transmitting (S705) a first warning message based on the first MGP message when the value tag is not expired; and transmitting (S723) a second warning message based on a second MGP message (S719) that updates the first MGP message when the value tag is expired, wherein at least one of a transmission frequency or a transmission power for the second warning message are determined (S721) based on the second MGP message, and wherein the MGP area represents where MGP profiles are the same.
A glass-fiber-reinforced polycarbonate resin composition comprising: (A) 100 parts by weight of a resin component (component A) consisting of a polycarbonate-polydiorganosiloxane copolymer resin (component A-1) and an aromatic polycarbonate resin (component A-2); (B) 10 to 300 parts by weight of glass fibers having a flat cross section (component B) which have an average value of the long diameter of the fiber cross section of 10 to 50 μm and an average value of the ratio of the long diameter to the short diameter (long diameter/short diameter) of 1.5 to 8; (C) 5 to 25 parts by weight of an adhesion improving agent (component C); (D) 5 to 45 parts by weight of a phosphorus-based flame retardant (component D); and (E) 0.01 to 3 parts by weight of a fluorine-containing dripping inhibitor (component E), the content of the polydiorganosiloxane derived from the component A-1 in the resin composition being 0.05 to 4.00 wt%, wherein the component C is an organic compound having at least one functional group selected from the group consisting of an epoxy group and a carboxylate group in one molecule, and said component C is at least one resin selected from the group consisting of phenoxy resin, epoxy resin, glycidyl methacrylate resin, polybutylene terephthalate resin, polyethylene terephthalate resin and polyarylate resin. (A) 100 parts by weight of a resin component (component A) consisting of a polycarbonate-polydiorganosiloxane copolymer resin (component A-1) and an aromatic polycarbonate resin (component A-2); (B) 10 to 300 parts by weight of glass fibers having a flat cross section (component B) which have an average value of the long diameter of the fiber cross section of 10 to 50 μm and an average value of the ratio of the long diameter to the short diameter (long diameter/short diameter) of 1.5 to 8; (C) 5 to 25 parts by weight of an adhesion improving agent (component C); (D) 5 to 45 parts by weight of a phosphorus-based flame retardant (component D); and (E) 0.01 to 3 parts by weight of a fluorine-containing dripping inhibitor (component E),
A cutting machine , comprising - a table having a working surface adapted to accommodate an object to be cut, - a crossbeam , arranged above the working surface, mounted on the table, and designed for linear positionability parallel to a first horizontal axis (H1), - a module , mounted on the crossbeam and designed for linear positionability parallel to a second horizontal axis (H2), wherein the second horizontal axis extends perpendicularly to the first horizontal axis, - a tool holder , mounted in the module and designed for ∘ linear positionability parallel to a vertical axis (V), ∘ rotative positionability about the vertical axis, and ∘ accommodating one of a plurality of different interchangeable tools , and - a control unit adapted to control the cutting machine, characterized in that - the tool holder has a connection device , - the connection device is designed to supply an accommodated tool with electrical energy and a fluid, in particular wherein the fluid is compressed air, a lubricant or a coolant, - a rotary joint is provided between the module and the tool holder or at the connection device, wherein the supply of the fluid is provided via the rotary joint, - a rotary transmitter is provided between the module and the tool holder or at the connection device, wherein the supply of electrical energy is provided via the rotary transmitter, and - the control unit is designed to control the cutting machine for automatically performing a tool change. - a table having a working surface adapted to accommodate an object to be cut, - a crossbeam , arranged above the working surface, mounted on the table, and designed for linear positionability parallel to a first horizontal axis (H1), - a module , mounted on the crossbeam and designed for linear positionability parallel to a second horizontal axis (H2), wherein the second horizontal axis extends perpendicularly to the first horizontal axis, - a tool holder , mounted in the module and designed for ∘ linear positionability parallel to a vertical axis (V), ∘ rotative positionability about the vertical axis, and ∘ accommodating one of a plurality of different interchangeable tools , and ∘ linear positionability parallel to a vertical axis (V), ∘ rotative positionability about the vertical axis, and ∘ accommodating one of a plurality of different interchangeable tools , and - a control unit adapted to control the cutting machine, - the tool holder has a connection device , - the connection device is designed to supply an accommodated tool with electrical energy and a fluid, in particular wherein the fluid is compressed air, a lubricant or a coolant, - a rotary joint is provided between the module and the tool holder or at the connection device, wherein the supply of the fluid is provided via the rotary joint, - a rotary transmitter is provided between the module and the tool holder or at the connection device, wherein the supply of electrical energy is provided via the rotary transmitter, and - the control unit is designed to control the cutting machine for automatically performing a tool change.
A method comprising: providing an actively cooled component comprising an internal passage architecture , the internal passage architecture comprising a multiple of cooling holes some of which are incorrectly positioned; preparing the component ; filling the internal passage architecture of the component with a material , the material being a salt-based protective fill material comprising radio opaque particles , the radio opaque particles including refractory metal oxide particles, the salt-based protective fill material being a water soluble material; curing the material ; removing the material from at least one of the incorrectly positioned cooling holes formed by the internal passage architecture with a manual operation; filling the at least one incorrectly positioned cooling hole formed by the internal passage architecture with an Oxidation Resistant Braze (ORB), the Oxidation Resistant Braze (ORB) being a nickel braze alloy composition; drilling a correctly positioned cooling hole into the component through the Oxidation Resistant Braze (ORB); removing the material from the internal passage architecture of the component ; and inspecting the component via radiographic imaging at gamma/X-ray wavelengths to detect residual salt-based protective fill material through identification of the radiopaque particles. providing an actively cooled component comprising an internal passage architecture , the internal passage architecture comprising a multiple of cooling holes some of which are incorrectly positioned; preparing the component ; filling the internal passage architecture of the component with a material , the material being a salt-based protective fill material comprising radio opaque particles , the radio opaque particles including refractory metal oxide particles, the salt-based protective fill material being a water soluble material; curing the material ; removing the material from at least one of the incorrectly positioned cooling holes formed by the internal passage architecture with a manual operation; filling the at least one incorrectly positioned cooling hole formed by the internal passage architecture with an Oxidation Resistant Braze (ORB), the Oxidation Resistant Braze (ORB) being a nickel braze alloy composition; drilling a correctly positioned cooling hole into the component through the Oxidation Resistant Braze (ORB); removing the material from the internal passage architecture of the component ; and inspecting the component via radiographic imaging at gamma/X-ray wavelengths to detect residual salt-based protective fill material through identification of the radiopaque particles.
Sampling apparatus for collecting geological samples from the subsurface, which sampling apparatus can be fixed to a drill apparatus , such as to a mining drill rig, which drill apparatus comprises a chassis , and a drill, said drill comprising a drill pipe and a drill bit, which sampling apparatus can be fixed to the chassis of the drill apparatus, which sampling apparatus comprises a sampling pipe arrangement as well as a nozzle to be fitted to the end thereof, as well as a collecting apparatus to be connected to the sampling pipe arrangement, in which collecting apparatus samples can be collected, which nozzle is a suction nozzle, in which suction is arranged, and the sampling pipe arrangement comprises a position adjustment device , with which the nozzle can be arranged into the proximity of the drill pipe in such a way that the nozzle is near the borehole and its mouth is directed towards the borehole in such a way that it is able to take samples directly from the mantle rock flying out from the borehole, characterized in that the part of the sampling pipe arrangement, which in use is near the drill pipe comprises a pipe part, or at least a bottom end of it, that is parallel with the drill pipe or at an angle of less than 45° to it, onto which pipe part means are fitted for adjusting its length for fitting the nozzle close to the borehole.
Soil processing machine, in particular a soil compactor, comprising a control cabin having at least one control cabin door/window unit pivotably supported on a door/window frame between a closed position and an open position, wherein a handle formation for pivoting the control cabin door/window unit between the closed position and the open position is provided on at least one control cabin door/window unit on a door/window inside facing a control cabin interior in the closed position, further comprising a fixing arrangement for fixing the control cabin door/window unit in the open position, characterized in that the fixing arrangement is operable by means of the handle formation for releasing the control cabin door/window unit fixed in the open position.
An accident tolerant fuel combination for light water and lead fast reactors comprising: a multi-layered SiC cladding ; and fuel in pellet form positioned within the SiC cladding such that a gap sized to prevent pellet-cladding mechanical interaction and centerline melt during high power excursions is defined between the SiC cladding and the pellets, the fuel comprising U 15 N intermixed with a boron-containing integral fuel burnable absorber selected from the group consisting of UB 2 and ZrB 2 and having a B10 content at 19% to 80% of the boron. a multi-layered SiC cladding ; and fuel in pellet form positioned within the SiC cladding such that a gap sized to prevent pellet-cladding mechanical interaction and centerline melt during high power excursions is defined between the SiC cladding and the pellets, the fuel comprising U 15 N intermixed with a boron-containing integral fuel burnable absorber selected from the group consisting of UB 2 and ZrB 2 and having a B10 content at 19% to 80% of the boron.
A computer-implemented method for operating an autonomous driving vehicle, comprising: receiving a request to turn the autonomous driving vehicle, ADV, from a first direction to a second direction; determining a plurality of segment masses of a plurality of segments (501A-D) of the ADV , wherein the plurality of segment masses are located on a plurality of predetermined locations within a vehicle platform of the ADV; calculating a location of a mass center for an entire ADV based on the plurality of segment masses of the plurality of segments (501A-D) of the ADV, the mass center representing a center of an entire mass of the entire ADV; and generating a steering control command based on the location of the mass center of the entire ADV for steering control of the ADV; wherein the location of the mass center of the entire ADV is determined based on the plurality of segment masses in view of relative locations of the plurality of segment masses using a predetermined algorithm; characterized in that the method further comprises: for each of the plurality of segment masses, calculating a longitude segment force based on the corresponding segment mass and a longitude coordinate of the corresponding segment mass; and determining a longitude coordinate of the mass center of the entire ADV based on a sum of the longitude segment forces and a sum of the plurality of segment masses. receiving a request to turn the autonomous driving vehicle, ADV, from a first direction to a second direction; determining a plurality of segment masses of a plurality of segments (501A-D) of the ADV , wherein the plurality of segment masses are located on a plurality of predetermined locations within a vehicle platform of the ADV; calculating a location of a mass center for an entire ADV based on the plurality of segment masses of the plurality of segments (501A-D) of the ADV, the mass center representing a center of an entire mass of the entire ADV; and generating a steering control command based on the location of the mass center of the entire ADV for steering control of the ADV; wherein the location of the mass center of the entire ADV is determined based on the plurality of segment masses in view of relative locations of the plurality of segment masses using a predetermined algorithm; characterized in that the method further comprises: for each of the plurality of segment masses, calculating a longitude segment force based on the corresponding segment mass and a longitude coordinate of the corresponding segment mass; and determining a longitude coordinate of the mass center of the entire ADV based on a sum of the longitude segment forces and a sum of the plurality of segment masses. for each of the plurality of segment masses, calculating a longitude segment force based on the corresponding segment mass and a longitude coordinate of the corresponding segment mass; and determining a longitude coordinate of the mass center of the entire ADV based on a sum of the longitude segment forces and a sum of the plurality of segment masses.
An outer blade cutting wheel comprising an annular disc base having a pair of planar surfaces and a periphery, and a blade section composed of abrasive grains and a bond and formed on the periphery of the base, the blade section having an inner perimeter, an outer perimeter and side faces, and consisting of a pair of clamp legs which straddle the distal peripheral portion of the base and a body which extends radially outward beyond the peripheral portion of the base, the thickness of the blade section being greater than the thickness of the base, characterized in that each of the side faces of the blade section is provided with channels extending in a direction from the outer perimeter to the inner perimeter of the blade section, over the peripheral portion of the base, the channels opening at the inner perimeter of the blade section and being closed at the outer perimeter.
A method for implementing member resource processing, wherein member resources are members of a group resource, comprising the steps of: receiving , by a pre-created virtual sub-resource of the group resource, a forward request from an initiator; wherein the virtual sub-resource is a forwarding point, pre-created by a local common services entity, CSE; wherein the forward request comprises the identity information of the initiator, the address of the pre-created virtual sub-resource, and instruction information for forwarding attribute information of one or more member resources to one or more target member resources; wherein the initiator is a remote CSE or an application entity, AE; according to the forward request of an initiator, the pre-created virtual sub-resource triggers the local CSE to send to the one or more member resources, an acquisition request for acquiring the attribute information of the member resources; acquiring , by the local CSE, the attribute information of the member resources; the local CSE directly sending an update request for forwarding the acquired attribute information of member resources to one or more target member resources so as to update the attribute information of the target member resources. receiving , by a pre-created virtual sub-resource of the group resource, a forward request from an initiator; wherein the virtual sub-resource is a forwarding point, pre-created by a local common services entity, CSE; wherein the forward request comprises the identity information of the initiator, the address of the pre-created virtual sub-resource, and instruction information for forwarding attribute information of one or more member resources to one or more target member resources; wherein the initiator is a remote CSE or an application entity, AE; according to the forward request of an initiator, the pre-created virtual sub-resource triggers the local CSE to send to the one or more member resources, an acquisition request for acquiring the attribute information of the member resources; acquiring , by the local CSE, the attribute information of the member resources; the local CSE directly sending an update request for forwarding the acquired attribute information of member resources to one or more target member resources so as to update the attribute information of the target member resources.
An optical waveguide for use in a near-eye display, NED, device, the optical waveguide comprising: a light-transmissive substrate including a plurality of internally reflective surfaces; and an achromatic optical coupling element configured to input polychromatic light rays to the light-transmissive substrate or output polychromatic light rays from the light-transmissive substrate , the achromatic optical coupling element configured to deflect a plurality of wavelengths of an incident light ray collinearly for propagation within the light-transmissive substrate through total internal reflection, TIR, wherein the optical coupling element is an achromatic metasurface-based optical coupling element including a pattern of nano structures that collectively forms a metasurface on the light-transmissive substrate. a light-transmissive substrate including a plurality of internally reflective surfaces; and an achromatic optical coupling element configured to input polychromatic light rays to the light-transmissive substrate or output polychromatic light rays from the light-transmissive substrate , the achromatic optical coupling element configured to deflect a plurality of wavelengths of an incident light ray collinearly for propagation within the light-transmissive substrate through total internal reflection, TIR, wherein the optical coupling element is an achromatic metasurface-based optical coupling element including a pattern of nano structures that collectively forms a metasurface on the light-transmissive substrate.