mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing a curable bituminous binder composition for use in asphalt applications, comprising the steps of: A CB providing a bitumen material; B CB diluting the bitumen material by adding thereto a saponifiable organic fatty acid, so as to obtain a diluted bituminous material; and C CB contacting the diluted bituminous material obtained in step B CB with an inorganic metal compound comprising a metal ion of the valence of at least two capable of reacting with the organic fatty acid to form a metal soap, so as to obtain a curable bituminous binder composition. A CB providing a bitumen material; B CB diluting the bitumen material by adding thereto a saponifiable organic fatty acid, so as to obtain a diluted bituminous material; and C CB contacting the diluted bituminous material obtained in step B CB with an inorganic metal compound comprising a metal ion of the valence of at least two capable of reacting with the organic fatty acid to form a metal soap, so as to obtain a curable bituminous binder composition.
Interconnection element for connecting coils of the stator of a poly-phase rotating electrical machine , characterized in that it comprises a plurality of axially stacked conductive layers including a same number of solid annular base layers , and of additional layers , each formed by several ring parts, each of said ring parts not covering all of the perimeter of the stator, each of these conductive layers bearing internal connection lugs for connecting the coils and external connection lugs for connection to connected electrical equipment , the number of base layers and the number of additional layers each being equal to the number of phases of the machine on which the interconnection element is added.
A method for determining a touch panel to object distance, TOD , in X-ray imaging, comprising: obtaining a three-dimensional image of a to-be-detected subject that comprises an object ; determining a source to image distance, SID, and a touch panel to detector distance, TDD, ; determining, based on the three-dimensional image, a distance between a light source of a camera assembly that captures the three-dimensional image and a predetermined key point located on a surface of the to-be-detected subject, wherein the predetermined key point corresponds to an X-ray imaging protocol ; and determining the TOD based on the SID, the TDD, and the distance between the light source and the predetermined key point . obtaining a three-dimensional image of a to-be-detected subject that comprises an object ; determining a source to image distance, SID, and a touch panel to detector distance, TDD, ; determining, based on the three-dimensional image, a distance between a light source of a camera assembly that captures the three-dimensional image and a predetermined key point located on a surface of the to-be-detected subject, wherein the predetermined key point corresponds to an X-ray imaging protocol ; and determining the TOD based on the SID, the TDD, and the distance between the light source and the predetermined key point .
A process for the manufacture of a lubricating grease composition, the process comprising the steps of: providing a liquid composition comprising a mixture of lubricating oil and a thickening polymer, wherein the mixture is essentially homogenous such that it does not have any domains of separate thickening polymers within the lubricating oil or vice versa, flowing the liquid composition through a shear-mixing device to mix and cool the liquid composition to form a lubricating grease composition, wherein the thickening polymer forms from 5 to 20 wt% of the essentially homogeneous liquid composition, and wherein the liquid composition flows through the shear-mixing device along a flow-path provided with one or more temperature-controlled portions to each heat and/or cool the liquid composition, and wherein the shear-mixing device comprises one or more pairs of heat-transfer plates between which the liquid composition is flowed, wherein the surface of at least one plate is provided with surface features in the flow path of the liquid composition which are surface textures that act as baffles for the flow of the liquid composition, causing shear-mixing, wherein the essentially homogeneous liquid composition is provided at a temperature of from 150 to 350°C, preferably from 200 to 250°C. providing a liquid composition comprising a mixture of lubricating oil and a thickening polymer, wherein the mixture is essentially homogenous such that it does not have any domains of separate thickening polymers within the lubricating oil or vice versa, flowing the liquid composition through a shear-mixing device to mix and cool the liquid composition to form a lubricating grease composition, wherein the thickening polymer forms from 5 to 20 wt% of the essentially homogeneous liquid composition, and wherein the liquid composition flows through the shear-mixing device along a flow-path provided with one or more temperature-controlled portions to each heat and/or cool the liquid composition, and wherein the shear-mixing device comprises one or more pairs of heat-transfer plates between which the liquid composition is flowed, wherein the surface of at least one plate is provided with surface features in the flow path of the liquid composition which are surface textures that act as baffles for the flow of the liquid composition, causing shear-mixing, wherein the essentially homogeneous liquid composition is provided at a temperature of from 150 to 350°C, preferably from 200 to 250°C.
A method of wireless communication performed by a central unit, CU, of a central unit, CU, - distributed unit, DU, architecture, the method comprising: receiving , from a distributed unit, DU, a first DU configuration; and transmitting , to the DU, a second DU configuration identifying a change to a synchronization signal block, SSB, configuration of the DU, to cause overriding, at the DU, the first DU configuration to communicate in accordance with the second DU configuration, the first DU configuration being different from the second DU configuration. receiving , from a distributed unit, DU, a first DU configuration; and transmitting , to the DU, a second DU configuration identifying a change to a synchronization signal block, SSB, configuration of the DU, to cause overriding, at the DU, the first DU configuration to communicate in accordance with the second DU configuration, the first DU configuration being different from the second DU configuration.
An apparatus (10; 60; 70) for gait training, comprising: a movable base (11; 11A, 11B), said movable base (11; 11A, 11B) comprising a drive unit for moving the movable base (11; 11A, 11B), an arm arrangement (15, 16, 18; 15A, 16A, 15B, 16B; 18A, 18B) extending from the movable base (11; 11A, 11B), a weight support system to enable a person to be at least partially suspended from above via said arm arrangement (15, 16, 18; 15A, 16A, 15B, 16B; 18A, 18B), a movement detector (14, 115; 20; 21) to detect a movement of the person , a control unit configured to control said drive unit in response to movement of the person detected by the movement detector (14, 115; 20; 21) and a projector mounted on the apparatus characterized in that the projector is configured to project a path to be followed by the person on a floor in front of the person . a movable base (11; 11A, 11B), said movable base (11; 11A, 11B) comprising a drive unit for moving the movable base (11; 11A, 11B), an arm arrangement (15, 16, 18; 15A, 16A, 15B, 16B; 18A, 18B) extending from the movable base (11; 11A, 11B), a weight support system to enable a person to be at least partially suspended from above via said arm arrangement (15, 16, 18; 15A, 16A, 15B, 16B; 18A, 18B), a movement detector (14, 115; 20; 21) to detect a movement of the person , a control unit configured to control said drive unit in response to movement of the person detected by the movement detector (14, 115; 20; 21) and a projector mounted on the apparatus characterized in that the projector is configured to project a path to be followed by the person on a floor in front of the person .
A method for wireless communication at a user equipment, LTE, comprising: receiving from a network entity a first plurality of phase tracking reference signals, PTRSs, according to a first PTRS configuration; detecting a failure to decode a first communication from the network entity, wherein the decoding is based on the first plurality of PTRSs; determining one or more communication metrics associated with the first communication; selecting a physical parameter configured to identify the one or more communication metrics associated with the first communication; transmitting a second communication using the selected physical parameter to the network entity in response to detecting the failure to decode the first communication, wherein the second communication is configured to request a re-transmission of the first communication according to the one or more communication metrics; receiving from the network entity a second plurality of PTRSs according to a second PTRS configuration, wherein the second PTRS configuration is different from the first PTRS configuration and based on the one or more communication metrics; and decoding the re-transmission of the first communication from the network entity, wherein the decoding is based on the second plurality of PTRSs. receiving from a network entity a first plurality of phase tracking reference signals, PTRSs, according to a first PTRS configuration; detecting a failure to decode a first communication from the network entity, wherein the decoding is based on the first plurality of PTRSs; determining one or more communication metrics associated with the first communication; selecting a physical parameter configured to identify the one or more communication metrics associated with the first communication; transmitting a second communication using the selected physical parameter to the network entity in response to detecting the failure to decode the first communication, wherein the second communication is configured to request a re-transmission of the first communication according to the one or more communication metrics; receiving from the network entity a second plurality of PTRSs according to a second PTRS configuration, wherein the second PTRS configuration is different from the first PTRS configuration and based on the one or more communication metrics; and decoding the re-transmission of the first communication from the network entity, wherein the decoding is based on the second plurality of PTRSs.
An anti-corrosive zinc primer coating composition comprising: a) a silicate-based binder system, b) zinc particles, c) hollow glass microspheres, and d) a conductive pigment selected from the group consisting of graphite, carbon black, aluminium pigments, black iron oxide, antimony-doped tin oxide, mica coated with antimony-doped tin oxide, carbon nanotubes, carbon fibres, and any mixture thereof, wherein said silicate-based binder system is solvent-based or water-based, and wherein the hollow glass microspheres are present in an amount of between 15 and 80% by solids volume of the mixed paint composition and have a particle size such that the D 50 diameter is in the range of 20 to 200 μm. a) a silicate-based binder system, b) zinc particles, c) hollow glass microspheres, and d) a conductive pigment selected from the group consisting of graphite, carbon black, aluminium pigments, black iron oxide, antimony-doped tin oxide, mica coated with antimony-doped tin oxide, carbon nanotubes, carbon fibres, and any mixture thereof,
A detection device comprising a housing including a base and a lens holder that is supported on the base , a sensor disposed in the housing between the base and the lens holder , a lens that is supported on the lens holder in such a way that the lens holder is not visible when the detection device is viewed facing the lens along a line normal to an outward-facing surface of the lens , characterized in that the lens includes a pair of ribs that protrude inward from a sensor-facing surface of the lens , each rib having a first surface configured to engage the lens holder , and a second surface that is opposed to the first surface, the second surface configured to engage the base . a housing including a base and a lens holder that is supported on the base , a sensor disposed in the housing between the base and the lens holder , a lens that is supported on the lens holder in such a way that the lens holder is not visible when the detection device is viewed facing the lens along a line normal to an outward-facing surface of the lens , characterized in that the lens includes a pair of ribs that protrude inward from a sensor-facing surface of the lens , each rib having a first surface configured to engage the lens holder , and a second surface that is opposed to the first surface, the second surface configured to engage the base .
A terminal control method, comprising: detecting a message received by a terminal from the outside; when detecting that the message is a broadcast message, determining whether the broadcast message is an unwanted broadcast message; and when the broadcast message is an unwanted broadcast message, if the terminal is in a standby state, prohibiting starting of an operating system of the terminal; wherein the method further comprises: when it is determined that the broadcast message is a wanted broadcast message, if the user identifier comprised in the broadcast message corresponds to the operating system, starting the operating system of the terminal that is in the standby state; or if the user identifier comprised in the broadcast message corresponds to any application software installed in the terminal, starting the operating system of the terminal that is in the standby state, and starting the application software. detecting a message received by a terminal from the outside; when detecting that the message is a broadcast message, determining whether the broadcast message is an unwanted broadcast message; and when the broadcast message is an unwanted broadcast message, if the terminal is in a standby state, prohibiting starting of an operating system of the terminal; wherein the method further comprises: when it is determined that the broadcast message is a wanted broadcast message, if the user identifier comprised in the broadcast message corresponds to the operating system, starting the operating system of the terminal that is in the standby state; or if the user identifier comprised in the broadcast message corresponds to any application software installed in the terminal, starting the operating system of the terminal that is in the standby state, and starting the application software.
A method of blocking data communication from devices (13-16, 23-26, 331-332, 340-341, 351-353) in a local area network, wherein said method is implemented by an access point (12, 22, 32-35) connected to a wide area network and providing said local area network to said devices, said method comprising: counting a first total number of requests per device and per destination Internet Protocol address in said wide area network; the method being characterised in that it comprises: transmitting an alert message destined to access points in said wide area network if for a device in said local area network said first total number exceeds a first value, the message comprising said destination Internet Protocol address; receiving alert messages and counting a second total number of requests per destination Internet Protocol address based on said received alert messages; if said second total number of requests to a destination Internet Protocol address exceeds a second value and said first value of said first total number of requests to said destination Internet Protocol address is exceeded for a device in said local area network, blocking data communication from said device to said wide area network. counting a first total number of requests per device and per destination Internet Protocol address in said wide area network; the method being characterised in that it comprises: transmitting an alert message destined to access points in said wide area network if for a device in said local area network said first total number exceeds a first value, the message comprising said destination Internet Protocol address; receiving alert messages and counting a second total number of requests per destination Internet Protocol address based on said received alert messages; if said second total number of requests to a destination Internet Protocol address exceeds a second value and said first value of said first total number of requests to said destination Internet Protocol address is exceeded for a device in said local area network, blocking data communication from said device to said wide area network. transmitting an alert message destined to access points in said wide area network if for a device in said local area network said first total number exceeds a first value, the message comprising said destination Internet Protocol address; receiving alert messages and counting a second total number of requests per destination Internet Protocol address based on said received alert messages; if said second total number of requests to a destination Internet Protocol address exceeds a second value and said first value of said first total number of requests to said destination Internet Protocol address is exceeded for a device in said local area network, blocking data communication from said device to said wide area network.
An arrangement for generating energy made up of at least two rotating bodies of revolution partially immersed in a dynamic fluid, whereby said at least two rotating bodies of revolution have their longitudinal axis of rotation located perpendicularly to the flow of said fluid, and they are further associated to support means and to drive means , while having immersed from 25% to 35% of their diameter; wherein one of said at least two rotating bodies of revolution is located upstream of said dynamic fluid and has its longitudinal axis of rotation located in a longitudinal slider of said support means with the possibility of translation and variable rotation speed; and wherein the other of said at least two rotating bodies of revolution is located downstream of said dynamic fluid, with its longitudinal axis of rotation attached to said support means , having a rotation synchronized with the flow speed of said dynamic fluid. said at least two rotating bodies of revolution have their longitudinal axis of rotation located perpendicularly to the flow of said fluid, and they are further associated to support means and to drive means , while having immersed from 25% to 35% of their diameter; wherein one of said at least two rotating bodies of revolution is located upstream of said dynamic fluid and has its longitudinal axis of rotation located in a longitudinal slider of said support means with the possibility of translation and variable rotation speed; and wherein the other of said at least two rotating bodies of revolution is located downstream of said dynamic fluid, with its longitudinal axis of rotation attached to said support means , having a rotation synchronized with the flow speed of said dynamic fluid.
A method for performing x-ray absorption spectroscopy, the method comprising: illuminating an object using an x-ray beam with an energy bandwidth greater than 0.1% and inclusive of the energy corresponding to an absorption edge of an atomic element; acquiring a first x-ray absorption spectrum from the object at a first energy resolution better than 3 eV, using a single crystal spectrometer, over a first energy bandwidth inclusive of the absorption edge; acquiring a second x-ray absorption spectrum from the object using a mosaic crystal spectrometer at a second energy resolution coarser than the first energy resolution and over a second energy bandwidth wider than the first energy bandwidth and inclusive of said absorption edge; and processing the first and second x-ray absorption spectra to produce a third x-ray absorption spectrum in which the second x-ray absorption spectrum within the first energy bandwidth corresponding to the first x-ray absorption spectrum is refined using the first x-ray absorption spectrum. illuminating an object using an x-ray beam with an energy bandwidth greater than 0.1% and inclusive of the energy corresponding to an absorption edge of an atomic element; acquiring a first x-ray absorption spectrum from the object at a first energy resolution better than 3 eV, using a single crystal spectrometer, over a first energy bandwidth inclusive of the absorption edge; acquiring a second x-ray absorption spectrum from the object using a mosaic crystal spectrometer at a second energy resolution coarser than the first energy resolution and over a second energy bandwidth wider than the first energy bandwidth and inclusive of said absorption edge; and processing the first and second x-ray absorption spectra to produce a third x-ray absorption spectrum in which the second x-ray absorption spectrum within the first energy bandwidth corresponding to the first x-ray absorption spectrum is refined using the first x-ray absorption spectrum.
A temperature-measuring multimode optical fiber, comprising a core and a cladding covering the core , wherein the core has a radius in a range from 23.75 μm to 26.25 μm, characterized in that a refractive index profile of the core has a graded refractive index distribution with a refractive index distribution index α in a range from 1.80 to 1.89; and the core has a maximum relative refractive index difference Δ1% in a range from 1.03% to 1.15%, and the core is made of SiO 2 quartz glass of a germanium-fluorine co-doped system, wherein the temperature-measuring optical fiber provides an optimised bandwidth at a wavelength of 1550 nm and reduced attenuation of anti-Stokes Raman scattering light at a wavelength of 1450 nm and of Stokes Raman scattering light at a wavelength of 1660 nm. a refractive index profile of the core has a graded refractive index distribution with a refractive index distribution index α in a range from 1.80 to 1.89; and the core has a maximum relative refractive index difference Δ1% in a range from 1.03% to 1.15%, and the core is made of SiO 2 quartz glass of a germanium-fluorine co-doped system, wherein the temperature-measuring optical fiber provides an optimised bandwidth at a wavelength of 1550 nm and reduced attenuation of anti-Stokes Raman scattering light at a wavelength of 1450 nm and of Stokes Raman scattering light at a wavelength of 1660 nm.