mhurhangee/ep-ind-claims huggingface dataset:
A laminated thrust bearing comprising an inner frame and an outer frame, said thrust bearing comprising an elastomeric member that comprises a stack of main layers (20, 30) and secondary layers, each main layer (20, 30) comprising a single flexible material (20', 30') and each secondary layer comprising a single rigid material (40"), one frame being able to perform a rotary movement (ROTBAT, ROTTRA, ROTPAS) in relation to the other frame about a flapping axis (AXBAT) and about a drag axis (AXTRA) and an axis of pitch variation (AXPAS), said flapping axis (AXBAT) and said axis of pitch variation (AXPAS) having a common geometric centre, said axis of pitch variation (AXPAS) and said flapping axis (AXBAT) together defining a drag plane (PTRA), said axis of pitch variation (AXPAS) and said drag axis (AXTRA) together defining a flapping plane (PBAT), said drag axis (AXTRA) and said flapping axis (AXBAT) together defining a plane of variation of the pitch angle (PPAS), each secondary layer fitting closely to each adjacent main layer, said stack comprising at least one first main layer and at least one second main layer, each first main layer having, in said drag plane (PTRA), a first thickness that varies between a first minimum thickness (e1MIN) at the axis of pitch variation (AXPAS) and a first maximum thickness (e1MAX) at the flapping axis (AXBAT), each second main layer having, in said drag plane (PTRA), a second thickness that varies between a second minimum thickness (e2min) at the flapping plane (AXBAT) and a second maximum thickness (e2max) at the axis of pitch variation (AXPAS), the thickness (e1, e2) of each main layer (20, 30) being constant in the flapping plane (PBAT) and in the plane of variation of the pitch angle (PPAS), characterised in that said thrust bearing does not have any empty space between a main layer and a secondary layer.
A compound represented by formula, or a pharmaceutically acceptable salt or a solvate thereof: wherein R a is selected from 3-methyl-1H-indazol-1-yl, 1-methyl-1H-pyrrolo[2,3-b]pyridin-3-yl, 1-methyl-1H-thieno[3,2-c]pyrazol-3-yl, 1-methyl-1H-pyrazolo[4,3-b]pyridin-3-yl, pyrazolo[1,5-a]pyrimidin-3-yl, or imidazo[1,2-a]pyridin-3-yl; R 2 is selected from (2-(dimethylamino)ethyl)(methyl)amino, 4-methylpiperazin-1-yl, 3-(dimethylamino)azetidin-1-yl, 4-(dimethylamino)piperidin-1-yl, -2-((dimethylamino)methyl)pyrrolidin-1-yl, or 5-methyl-2,5-diazaspiro[3.4]oct-2-yl. R a is selected from 3-methyl-1H-indazol-1-yl, 1-methyl-1H-pyrrolo[2,3-b]pyridin-3-yl, 1-methyl-1H-thieno[3,2-c]pyrazol-3-yl, 1-methyl-1H-pyrazolo[4,3-b]pyridin-3-yl, pyrazolo[1,5-a]pyrimidin-3-yl, or imidazo[1,2-a]pyridin-3-yl; 3-methyl-1H-indazol-1-yl, 1-methyl-1H-pyrrolo[2,3-b]pyridin-3-yl, 1-methyl-1H-thieno[3,2-c]pyrazol-3-yl, 1-methyl-1H-pyrazolo[4,3-b]pyridin-3-yl, pyrazolo[1,5-a]pyrimidin-3-yl, or imidazo[1,2-a]pyridin-3-yl; R 2 is selected from (2-(dimethylamino)ethyl)(methyl)amino, 4-methylpiperazin-1-yl, 3-(dimethylamino)azetidin-1-yl, 4-(dimethylamino)piperidin-1-yl, -2-((dimethylamino)methyl)pyrrolidin-1-yl, or 5-methyl-2,5-diazaspiro[3.4]oct-2-yl. (2-(dimethylamino)ethyl)(methyl)amino, 4-methylpiperazin-1-yl, 3-(dimethylamino)azetidin-1-yl, 4-(dimethylamino)piperidin-1-yl, -2-((dimethylamino)methyl)pyrrolidin-1-yl, or 5-methyl-2,5-diazaspiro[3.4]oct-2-yl.
A method for manufacturing metallic glass nanowire, characterized in that melted metallic glass or a master alloy thereof is subjected to gas atomization in a supercooled state.
Smart cover for sensing a signal, the smart cover comprising a preferably conducting sheet of fabric or leather arranged to cover a seat, a handle and/or a steering device particularly of a vehicle, and a sensor matrix printed on the sheet and comprising several sensor elements, wherein each of the sensor elements is arranged for sensing or detecting electrical signal sent out by a body of a human occupant, an outline of the body, and a body dimension, whereby the sensor matrix is arranged to detect the occupant's physique, and is arranged to provide anthropometric data, based on the signals received by the sensor elements [original Claim 3], whereby an electronic control unit is arranged to process signals from the sensor elements into anthropometric data, a physiologic parameter and an ECG, GSR or EEG (evaluated physiologic parameter) of the occupant [original Claim 7]. a preferably conducting sheet of fabric or leather arranged to cover a seat, a handle and/or a steering device particularly of a vehicle, and a sensor matrix printed on the sheet and comprising several sensor elements, wherein each of the sensor elements is arranged for sensing or detecting electrical signal sent out by a body of a human occupant, an outline of the body, and a body dimension, whereby the sensor matrix is arranged to detect the occupant's physique, and is arranged to provide anthropometric data, based on the signals received by the sensor elements [original Claim 3], whereby an electronic control unit is arranged to process signals from the sensor elements into anthropometric data, a physiologic parameter and an ECG, GSR or EEG (evaluated physiologic parameter) of the occupant [original Claim 7].
A method for manufacturing boron carbide ceramic fiber, comprising: digesting cellulose in an aqueous solution to form a viscose; dispersing a material comprising boron in the cellulose based viscose to form a boron loaded slurry; spinning the boron loaded slurry to form a green fiber, the green fiber comprising a matrix of cellulose with the boron dispersed therein, wherein in one step the green fiber and the cellulose matrix are formed, the cellulose acting as a binder in the fiber forming process; heat treating the boron loaded cellulose matrix of the green fiber to a low temperature to produce carbon from the cellulose, the produced carbon reacting with the boron as the temperature increases to a high temperature to form boron carbide ceramic fiber, the chemical reaction forming the boron carbide (B 4 C) ceramic fiber defined as: 4B+C→B 4 C. digesting cellulose in an aqueous solution to form a viscose; dispersing a material comprising boron in the cellulose based viscose to form a boron loaded slurry; spinning the boron loaded slurry to form a green fiber, the green fiber comprising a matrix of cellulose with the boron dispersed therein, wherein in one step the green fiber and the cellulose matrix are formed, the cellulose acting as a binder in the fiber forming process; heat treating the boron loaded cellulose matrix of the green fiber to a low temperature to produce carbon from the cellulose, the produced carbon reacting with the boron as the temperature increases to a high temperature to form boron carbide ceramic fiber, the chemical reaction forming the boron carbide (B 4 C) ceramic fiber defined as: 4B+C→B 4 C.
A tubular membrane module, comprising at least one tube sheet with one or more holes disposed therein; one or more individual porous fluoropolymer polymer tubular membranes each having first ends disposed within a respective hole of the tube sheet; one or more insertable hollow mandrels inserted into the first ends of the tubular membranes, with the first ends of the tubular membranes held in place in the tube sheet by a physical interference fit created between the insertable hollow mandrels and tube sheet wherein the one or more holes and one or more insertable hollow mandrels are dimensioned relative to one another to provide compression of the tubular membranes ends by the physical interference fit between the insertable hollow mandrels and tube sheet; and, a containment shell in which the tube sheet and tubular membranes are disposed; wherein the one or more insertable hollow mandrels have an outer flange protruding from a top lip of the mandrels and at least one ridge cut circumferentially projecting out from the body of the mandrels, and wherein the one or more insertable hollow mandrels extend in full to the full thickness of the tube sheet to be fully embedded therein, and wherein both the material of the insertable hollow mandrel and the material of the tube sheet is harder than the material of the tubular membrane. one or more individual porous fluoropolymer polymer tubular membranes each having first ends disposed within a respective hole of the tube sheet; one or more insertable hollow mandrels inserted into the first ends of the tubular membranes, with the first ends of the tubular membranes held in place in the tube sheet by a physical interference fit created between the insertable hollow mandrels and tube sheet wherein the one or more holes and one or more insertable hollow mandrels are dimensioned relative to one another to provide compression of the tubular membranes ends by the physical interference fit between the insertable hollow mandrels and tube sheet; and, a containment shell in which the tube sheet and tubular membranes are disposed; wherein the one or more insertable hollow mandrels have an outer flange protruding from a top lip of the mandrels and at least one ridge cut circumferentially projecting out from the body of the mandrels, and wherein the one or more insertable hollow mandrels extend in full to the full thickness of the tube sheet to be fully embedded therein, and wherein both the material of the insertable hollow mandrel and the material of the tube sheet is harder than the material of the tubular membrane.
A wireless device, comprising: at least one antenna for performing wireless communications; a radio coupled to the at least one antenna; and a processor coupled to the radio; wherein the wireless device is configured to: polar encode first sidelink control information to obtain polar encoded first sidelink control information, wherein the first sidelink control information comprises second stage sidelink control information; perform rate matching on the polar encoded first sidelink control information; scramble the polar encoded first sidelink control information; and transmit the scrambled polar encoded first sidelink information to a remote device on a physical sidelink shared channel, PSSCH, characterized in that the wireless device is further configured to: determine a result of a cyclic redundancy check performed on second sidelink control information received over a physical sidelink control channel, PSCCH; and perform the scrambling of the polar encoded first sidelink control information based at least in part on an initialization value determined based at least in part on the result of the cyclic redundancy check. at least one antenna for performing wireless communications; a radio coupled to the at least one antenna; and a processor coupled to the radio; wherein the wireless device is configured to: polar encode first sidelink control information to obtain polar encoded first sidelink control information, wherein the first sidelink control information comprises second stage sidelink control information; perform rate matching on the polar encoded first sidelink control information; scramble the polar encoded first sidelink control information; and transmit the scrambled polar encoded first sidelink information to a remote device on a physical sidelink shared channel, PSSCH, polar encode first sidelink control information to obtain polar encoded first sidelink control information, wherein the first sidelink control information comprises second stage sidelink control information; perform rate matching on the polar encoded first sidelink control information; scramble the polar encoded first sidelink control information; and transmit the scrambled polar encoded first sidelink information to a remote device on a physical sidelink shared channel, PSSCH, characterized in that the wireless device is further configured to: determine a result of a cyclic redundancy check performed on second sidelink control information received over a physical sidelink control channel, PSCCH; and perform the scrambling of the polar encoded first sidelink control information based at least in part on an initialization value determined based at least in part on the result of the cyclic redundancy check. determine a result of a cyclic redundancy check performed on second sidelink control information received over a physical sidelink control channel, PSCCH; and perform the scrambling of the polar encoded first sidelink control information based at least in part on an initialization value determined based at least in part on the result of the cyclic redundancy check.
A disconnect member for selectively connecting together and disconnecting two terminals of an electrical circuit, the disconnect member comprising: • a deformable blade adapted to take up a stable connection shape in which a first end of the deformable blade is arranged to connect together the two terminals, and a stable disconnection shape in which the first end is arranged to disconnect the two terminals; and • a first actuator and a second actuator that are thermally controlled and that are arranged to act in opposite manner on a second end of the deformable blade in order to deform the deformable blade, in such a manner that the first actuator is adapted to take the deformable blade into the connection stable shape and the second actuator is adapted to take the deformable blade into the disconnection stable shape. • a deformable blade adapted to take up a stable connection shape in which a first end of the deformable blade is arranged to connect together the two terminals, and a stable disconnection shape in which the first end is arranged to disconnect the two terminals; and • a first actuator and a second actuator that are thermally controlled and that are arranged to act in opposite manner on a second end of the deformable blade in order to deform the deformable blade, in such a manner that the first actuator is adapted to take the deformable blade into the connection stable shape and the second actuator is adapted to take the deformable blade into the disconnection stable shape.
A luminaire adapter, comprising: a tombstone cover, wherein the tombstone cover comprises a housing that defines a slot opening to accept a tombstone socket and a pair of snap connectors (130, 140); and a light source bracket, wherein the light source bracket comprises a top portion configured to connect to a bottom portion, wherein the bottom portion includes a pair of snap receivers (180, 190) configured to receive the pair of snap connectors (130, 140), and wherein the top portion and the bottom portion define an opening to receive a luminaire. a tombstone cover, wherein the tombstone cover comprises a housing that defines a slot opening to accept a tombstone socket and a pair of snap connectors (130, 140); and a light source bracket, wherein the light source bracket comprises a top portion configured to connect to a bottom portion, wherein the bottom portion includes a pair of snap receivers (180, 190) configured to receive the pair of snap connectors (130, 140), and wherein the top portion and the bottom portion define an opening to receive a luminaire.
A vehicular display device including display means, control means for performing display control of the display means, a non-volatile memory storing at least an operation program of the control means and image data to be displayed on the display means, and a third connection terminal connectable to both a first connection terminal and a second connection terminal having different terminal arrangements, the vehicular display device being housed in an instrument panel of a vehicle, comprising: an external device configured to connect the first connection terminal or the second connection terminal to the third connection terminal to communicate with the control means, a fourth connection terminal different from the third connection terminal; and a latch configured to rewrite a permission state of rewriting to the non-volatile memory via the fourth connection terminal and hold the permission state, wherein the control means switches permission/non-permission of rewriting to the non-volatile memory in accordance with the state held by the latch and a type of the connection terminal connected to the third connection terminal, wherein the control means communicates diagnosis information to the external device via the fourth connection terminal; and the latch allows the external device to rewrite the permission state of rewriting to the non-volatile memory via the control means. control means for performing display control of the display means, a non-volatile memory storing at least an operation program of the control means and image data to be displayed on the display means, and a third connection terminal connectable to both a first connection terminal and a second connection terminal having different terminal arrangements, the vehicular display device being housed in an instrument panel of a vehicle, comprising: an external device configured to connect the first connection terminal or the second connection terminal to the third connection terminal to communicate with the control means, a fourth connection terminal different from the third connection terminal; and a latch configured to rewrite a permission state of rewriting to the non-volatile memory via the fourth connection terminal and hold the permission state, wherein an external device configured to connect the first connection terminal or the second connection terminal to the third connection terminal to communicate with the control means, a fourth connection terminal different from the third connection terminal; and a latch configured to rewrite a permission state of rewriting to the non-volatile memory via the fourth connection terminal and hold the permission state, wherein the control means switches permission/non-permission of rewriting to the non-volatile memory in accordance with the state held by the latch and a type of the connection terminal connected to the third connection terminal, wherein the control means communicates diagnosis information to the external device via the fourth connection terminal; and the latch allows the external device to rewrite the permission state of rewriting to the non-volatile memory via the control means.
A laser device for retinal treatment configured to produce a speckle pattern comprising: a laser module producing a sequence of laser pulses each having: a pulse duration in the range of 50ps to 500ns; a wavelength in the range 500nm to 900nm; and a pulse energy in the range 10 μJ to 10mJ; wherein the laser beam output from the laser module has a non-uniform energy distribution; a beam delivery and viewing module that delivers the laser pulses to the retina with a radiant exposure in the range of 8mJ/cm 2 to 8000mJ/cm 2 per pulse; and a uniform irradiance module comprising an optical fibre, arranged to cause interference between propagation modes of laser light directed through the optical fibre to form a granular spatial distribution of the laser energy at the output and adapted to modify the output beam profile of the laser module to produce a uniform treatment effect. a laser module producing a sequence of laser pulses each having: a pulse duration in the range of 50ps to 500ns; a wavelength in the range 500nm to 900nm; and a pulse energy in the range 10 μJ to 10mJ; wherein the laser beam output from the laser module has a non-uniform energy distribution; a beam delivery and viewing module that delivers the laser pulses to the retina with a radiant exposure in the range of 8mJ/cm 2 to 8000mJ/cm 2 per pulse; and a uniform irradiance module comprising an optical fibre, arranged to cause interference between propagation modes of laser light directed through the optical fibre to form a granular spatial distribution of the laser energy at the output and adapted to modify the output beam profile of the laser module to produce a uniform treatment effect. a pulse duration in the range of 50ps to 500ns; a wavelength in the range 500nm to 900nm; and a pulse energy in the range 10 μJ to 10mJ; wherein the laser beam output from the laser module has a non-uniform energy distribution; a beam delivery and viewing module that delivers the laser pulses to the retina with a radiant exposure in the range of 8mJ/cm 2 to 8000mJ/cm 2 per pulse; and a uniform irradiance module comprising an optical fibre, arranged to cause interference between propagation modes of laser light directed through the optical fibre to form a granular spatial distribution of the laser energy at the output and adapted to modify the output beam profile of the laser module to produce a uniform treatment effect.
A method, performed by a gateway node, for managing packets on a transport connection between a first end-point and a second end-point, wherein the gateway node is located on the transport connection, and wherein the method comprises: forwarding, on the transport connection, a first packet from the first end-point to the second end-point; finding, by inspection of the first packet, that the first packet indicates closing of the transport connection at the first end-point; after finding that the first packet indicates closing of the transport connection at the first end-point, generating, in response to the received first packet, an acknowledgement packet to cause the first end-point to close down the transport connection; sending, on the transport connection, the acknowledgement packet towards the first end-point; receiving, on the transport connection, a second packet from the second end-point, wherein the second packet is destined to the first end-point; and discarding the second packet, thereby refraining from forwarding, on the transport connection, the second packet from the second end-point to the first end-point, wherein a transport network comprises the gateway node, the first end-point, and the second end-point, and wherein the gateway node is a Packet Gateway of an Evolved Packet Core network comprising the transport network. forwarding, on the transport connection, a first packet from the first end-point to the second end-point; finding, by inspection of the first packet, that the first packet indicates closing of the transport connection at the first end-point; after finding that the first packet indicates closing of the transport connection at the first end-point, generating, in response to the received first packet, an acknowledgement packet to cause the first end-point to close down the transport connection; sending, on the transport connection, the acknowledgement packet towards the first end-point; receiving, on the transport connection, a second packet from the second end-point, wherein the second packet is destined to the first end-point; and discarding the second packet, thereby refraining from forwarding, on the transport connection, the second packet from the second end-point to the first end-point, wherein a transport network comprises the gateway node, the first end-point, and the second end-point, and wherein the gateway node is a Packet Gateway of an Evolved Packet Core network comprising the transport network.