mhurhangee/ep-ind-claims huggingface dataset:
A method for providing audio to a user, wherein the method comprises: determining, with an eye tracking device, a gaze point (510a; 510b) of a user on a display (520a; 520b; 620; 812); causing, with a computer system, an audio device to produce audio to the user, wherein content of the audio is based at least in part on the gaze point (510a; 510b) of the user on the display (520a; 520b; 620; 812); characterized in that the method further comprises: determining, with the computer system, how many sound channels are produced by the audio device; determining, with the computer system, a particular area of the display (520a; 520b; 620; 812) which is associated with each sound channel determined to be produced by the audio device; and wherein the content of the audio being based at least in part on the gaze point (510a; 510b) comprises a sound channel associated with the particular area in which the gaze point (510a; 510b) of the user is located. determining, with an eye tracking device, a gaze point (510a; 510b) of a user on a display (520a; 520b; 620; 812); causing, with a computer system, an audio device to produce audio to the user, wherein content of the audio is based at least in part on the gaze point (510a; 510b) of the user on the display (520a; 520b; 620; 812); characterized in that the method further comprises: determining, with the computer system, how many sound channels are produced by the audio device; determining, with the computer system, a particular area of the display (520a; 520b; 620; 812) which is associated with each sound channel determined to be produced by the audio device; and wherein the content of the audio being based at least in part on the gaze point (510a; 510b) comprises a sound channel associated with the particular area in which the gaze point (510a; 510b) of the user is located. determining, with the computer system, how many sound channels are produced by the audio device; determining, with the computer system, a particular area of the display (520a; 520b; 620; 812) which is associated with each sound channel determined to be produced by the audio device; and wherein the content of the audio being based at least in part on the gaze point (510a; 510b) comprises a sound channel associated with the particular area in which the gaze point (510a; 510b) of the user is located.
Window or door which has a frame and a tiltable, turn-openable leaf, wherein the window or door has: a) a closing piece arranged on a vertical frame strut; b) a connecting rod on the leaf, which connecting rod is movable in its longitudinal direction, wherein the connecting rod has a pin which engages behind the closing piece in the closed position and which engages behind the closing piece in the tilted position to form a hinge; wherein the center of the pin, in the tilted position with the leaf resting against the frame, has a distance of between 4mm and 29mm to the fillister top of the frame, wherein in the tilted position, the connecting rod and/or the pin project/projects downwards over the fillister bottom of the leaf. a) a closing piece arranged on a vertical frame strut; b) a connecting rod on the leaf, which connecting rod is movable in its longitudinal direction, wherein the connecting rod has a pin which engages behind the closing piece in the closed position and which engages behind the closing piece in the tilted position to form a hinge; wherein the center of the pin, in the tilted position with the leaf resting against the frame, has a distance of between 4mm and 29mm to the fillister top of the frame, wherein in the tilted position, the connecting rod and/or the pin project/projects downwards over the fillister bottom of the leaf.
A control unit for a robot, the robot comprising a robotic arm extending between a base end and a tool end and comprising a base at the base end and a plurality of joints (6, 8, 10, 12, 14, 16, 18, 92, 94) including a first joint and a second joint, the plurality of joints connecting the base and the tool end, the first joint being positioned between the base and the second joint, the robotic arm further comprising a plurality of motors (102, 104, 232) including a first motor and a second motor, the plurality of motors cause movement of the robotic arm with respect to a plurality of axes (Ax1, Ax2, Ax3, Ax4, Ax5, Ax6, Ax7), the first motor causes movement of the first joint with respect to a first axis, and the second motor causes movement of the second joint with respect to a second axis, wherein the control unit is characterized in that the control unit being adapted to be arranged at the base end of the robotic arm to form part of the base of the robotic arm, the control unit comprising an IO board with a plurality of 24 volts digital IO terminals, and a bottom plate forming a bottom surface of the control unit, the control unit further comprises an electrical power input adapted to electrically power the plurality of motors (102, 104, 232), the IO board comprises a first IO processing unit and a second IO processing unit, and the plurality of 24 volts digital IO terminals comprises a first primary IO terminal electrically connected to the first IO processing unit and a first secondary IO terminal electrically connected to the second IO processing unit. the control unit comprising an IO board with a plurality of 24 volts digital IO terminals, and a bottom plate forming a bottom surface of the control unit, the control unit further comprises an electrical power input adapted to electrically power the plurality of motors (102, 104, 232), the IO board comprises a first IO processing unit and a second IO processing unit, and the plurality of 24 volts digital IO terminals comprises a first primary IO terminal electrically connected to the first IO processing unit and a first secondary IO terminal electrically connected to the second IO processing unit.
An apparatus for a directed-energy weapon, the apparatus comprising an assessment system arranged to, during an assessment phase, perform an assessment of a target environment, wherein the target environment comprises a target; and a controller arranged to, during the assessment phase, control the directed energy weapon to direct energy towards the target environment so that the assessment system can perform the assessment using the directed energy, wherein the assessment comprises: using the deflected energy to determine data relating to a map of at least a portion of the target environment; receiving information on a speed and direction of travel of the apparatus; and using the information and the data relating to the map to determine a time for which there is a continuous line of sight from the directed-energy weapon to the target. an assessment system arranged to, during an assessment phase, perform an assessment of a target environment, wherein the target environment comprises a target; and a controller arranged to, during the assessment phase, control the directed energy weapon to direct energy towards the target environment so that the assessment system can perform the assessment using the directed energy, wherein the assessment comprises: using the deflected energy to determine data relating to a map of at least a portion of the target environment; receiving information on a speed and direction of travel of the apparatus; and using the information and the data relating to the map to determine a time for which there is a continuous line of sight from the directed-energy weapon to the target. using the deflected energy to determine data relating to a map of at least a portion of the target environment; receiving information on a speed and direction of travel of the apparatus; and using the information and the data relating to the map to determine a time for which there is a continuous line of sight from the directed-energy weapon to the target.
A fuel injection valve (110, 130, 150) characterized by comprising: a nozzle body (111, 131, 151, 161) having an injection aperture (113, 133, 153) in a tip portion thereof; a needle (112, 132, 152) that is slidably located in the nozzle body (111, 131, 151, 161), forms a fuel introduction path (116, 136, 156) between the needle (112, 132, 152) and the nozzle body (111, 131, 151, 161), and is seated on a seat portion (114, 134, 154) in the nozzle body (111, 131, 151, 161); a swirling flow generation portion (112a, 132a, 152a) that is located more upstream than the seat portion (114, 134, 154), and imparts a swirl with respect to a sliding direction of the needle (112, 132, 152) to fuel introduced from the fuel introduction path (116, 136, 156); and a swirl velocity increasing portion (115, 135, 155) that is located more downstream than the seat portion (114, 134, 154), and supplies fuel to the injection aperture (113, 133, 153) while increasing a swirl velocity of a swirling flow generated in the swirling flow generation portion (112a, 132a, 152a), characterized in that the needle (112, 132, 152) includes a porous member in a tip portion at a combustion chamber side, and the porous member includes an opening portion extending toward the injection aperture (113, 133, 153) and facing the injection aperture (113, 133, 153). a nozzle body (111, 131, 151, 161) having an injection aperture (113, 133, 153) in a tip portion thereof; a needle (112, 132, 152) that is slidably located in the nozzle body (111, 131, 151, 161), forms a fuel introduction path (116, 136, 156) between the needle (112, 132, 152) and the nozzle body (111, 131, 151, 161), and is seated on a seat portion (114, 134, 154) in the nozzle body (111, 131, 151, 161); a swirling flow generation portion (112a, 132a, 152a) that is located more upstream than the seat portion (114, 134, 154), and imparts a swirl with respect to a sliding direction of the needle (112, 132, 152) to fuel introduced from the fuel introduction path (116, 136, 156); and a swirl velocity increasing portion (115, 135, 155) that is located more downstream than the seat portion (114, 134, 154), and supplies fuel to the injection aperture (113, 133, 153) while increasing a swirl velocity of a swirling flow generated in the swirling flow generation portion (112a, 132a, 152a), characterized in that the needle (112, 132, 152) includes a porous member in a tip portion at a combustion chamber side, and the porous member includes an opening portion extending toward the injection aperture (113, 133, 153) and facing the injection aperture (113, 133, 153).
A process for shutting-down a tubular reactor for a catalytic gas phase reaction from a reaction temperature, wherein the tubular reactor comprises - a plurality of vertically arranged reaction tubes, - an upper tube sheet and a lower tube sheet which each are connected to upper ends and lower ends of the reaction tubes in a gas-tight manner, and - a reactor shell which encloses the plurality of reaction tubes forming a liquid-tight heat transfer space, wherein, in operation mode, a substantially anhydrous liquefied salt melt is circulated in the heat transfer space, characterized in that - water is added to the substantially anhydrous liquefied salt melt, obtaining a water-salt mixture, while cooling the tubular reactor to a temperature below the solidification temperature of the substantially anhydrous liquefied salt melt, such that - the water-salt mixture is kept in a liquefied state during the whole cooling step of the tubular reactor. - a plurality of vertically arranged reaction tubes, - an upper tube sheet and a lower tube sheet which each are connected to upper ends and lower ends of the reaction tubes in a gas-tight manner, and - a reactor shell which encloses the plurality of reaction tubes forming a liquid-tight heat transfer space, wherein, in operation mode, a substantially anhydrous liquefied salt melt is circulated in the heat transfer space, characterized in that - water is added to the substantially anhydrous liquefied salt melt, obtaining a water-salt mixture, while cooling the tubular reactor to a temperature below the solidification temperature of the substantially anhydrous liquefied salt melt, such that - the water-salt mixture is kept in a liquefied state during the whole cooling step of the tubular reactor. - water is added to the substantially anhydrous liquefied salt melt, obtaining a water-salt mixture, while cooling the tubular reactor to a temperature below the solidification temperature of the substantially anhydrous liquefied salt melt, such that - the water-salt mixture is kept in a liquefied state during the whole cooling step of the tubular reactor.
A gas turbine combustor comprising: a combustion chamber that burns a fuel and air to generate combustion gases; a fuel header with a plurality of fueling nozzles disposed thereupon and configured to inject the fuel; an air injection hole plate with a plurality of air injection holes formed therein and configured to deliver to the combustion chamber the air along with the fuel injected from the fueling nozzles; cross fire tubes, each configured to transport the combustion gases to an adjacent combustor and to ignite the adjacent combustor during gas turbine ignition; and supports for fixing the air injection hole plate to the fuel header, wherein the supports are provided so as to be of the same phase position as that of the cross fire tubes. a combustion chamber that burns a fuel and air to generate combustion gases; a fuel header with a plurality of fueling nozzles disposed thereupon and configured to inject the fuel; an air injection hole plate with a plurality of air injection holes formed therein and configured to deliver to the combustion chamber the air along with the fuel injected from the fueling nozzles; cross fire tubes, each configured to transport the combustion gases to an adjacent combustor and to ignite the adjacent combustor during gas turbine ignition; and supports for fixing the air injection hole plate to the fuel header, wherein the supports are provided so as to be of the same phase position as that of the cross fire tubes.
A method comprising: operating a receiver using at least four carriers to receive transport blocks from a transmitter; composing (5B; 7B) a first codeword to acknowledge at least one of a reception and a lack of reception of individual transport blocks in a first part of the at least four carriers; composing (5B; 7B) a second codeword to acknowledge at least one of a reception and a lack of reception of individual transport blocks in a second part of the at least four carriers; and transmitting (5C; 7C) the first codeword and the second codeword to the transmitter during one slot, characterized in that at least one of the first and second codewords transmitted to the transmitter during the slot comprises a discontinuous transmission message indicating that no transport blocks are received in the corresponding part of the at least four carriers. operating a receiver using at least four carriers to receive transport blocks from a transmitter; composing (5B; 7B) a first codeword to acknowledge at least one of a reception and a lack of reception of individual transport blocks in a first part of the at least four carriers; composing (5B; 7B) a second codeword to acknowledge at least one of a reception and a lack of reception of individual transport blocks in a second part of the at least four carriers; and transmitting (5C; 7C) the first codeword and the second codeword to the transmitter during one slot, characterized in that at least one of the first and second codewords transmitted to the transmitter during the slot comprises a discontinuous transmission message indicating that no transport blocks are received in the corresponding part of the at least four carriers.
A method performed by a transmitting communication unit for determining beam directions suitable to use for communication between the transmitting communication unit and a receiving communication unit, the transmitting communication unit and the receiving communication unit being connected through an existing radio link, wherein the method comprises: - triggering, by means of a message transmitted over the existing radio link, the receiving communication unit to perform a beam scan; - transmitting, according to a pre-determined transmission scheme, tracking beams in different transmit directions, to enable the receiving communication unit to perform the beam scan for each transmit direction in order to detect a transmitted tracking beam; - receiving information about the outcome of the performed beam scan from the receiving communication unit over the existing radio link, said information comprising information that enables the transmitting communication unit to identify at least one transmit direction that led to a detection of a tracking beam during the performed beam scan; - determining, based on the received information, a suitable transmit direction to use for beamformed transmissions to the receiving communication unit, wherein said pre-determined transmission scheme comprises information about time intervals during which said tracking beams are transmitted over particular transmit directions, and wherein the method further comprises to transmit the information of the pre-determined transmission scheme to the receiving communication unit over the existing radio link. - triggering, by means of a message transmitted over the existing radio link, the receiving communication unit to perform a beam scan; - transmitting, according to a pre-determined transmission scheme, tracking beams in different transmit directions, to enable the receiving communication unit to perform the beam scan for each transmit direction in order to detect a transmitted tracking beam; - receiving information about the outcome of the performed beam scan from the receiving communication unit over the existing radio link, said information comprising information that enables the transmitting communication unit to identify at least one transmit direction that led to a detection of a tracking beam during the performed beam scan; - determining, based on the received information, a suitable transmit direction to use for beamformed transmissions to the receiving communication unit, wherein said pre-determined transmission scheme comprises information about time intervals during which said tracking beams are transmitted over particular transmit directions, and wherein the method further comprises to transmit the information of the pre-determined transmission scheme to the receiving communication unit over the existing radio link.
A method for deploying an edge configuration server, ECS, by a provider entity in an edge computing communication system, the method comprising: receiving an operation request related to deployment of an ECS instance from a consumer entity, wherein the operation request comprises one or more requirements associated with the ECS; identifying at least one ECSfunction information object class, IOC, for the ECS based on the one or more requirements associated with the ECS; and creating the ECS instance based on the identified at least one ECSfunction IOC and the operation request, wherein the ECSfunction IOC is defined with at least one attribute comprising endpoint information of the ECS, information about an edge enabler server, EES, known to the ECS including EES endpoint, and edge data network, EDN, connection information, wherein creating the ECS instance comprises creating a managed object instance, MOI, for the identified at least one ECSfunction IOC based on the at least one attribute, the MOI corresponding to the ECS instance. receiving an operation request related to deployment of an ECS instance from a consumer entity, wherein the operation request comprises one or more requirements associated with the ECS; identifying at least one ECSfunction information object class, IOC, for the ECS based on the one or more requirements associated with the ECS; and creating the ECS instance based on the identified at least one ECSfunction IOC and the operation request, wherein the ECSfunction IOC is defined with at least one attribute comprising endpoint information of the ECS, information about an edge enabler server, EES, known to the ECS including EES endpoint, and edge data network, EDN, connection information, wherein creating the ECS instance comprises creating a managed object instance, MOI, for the identified at least one ECSfunction IOC based on the at least one attribute, the MOI corresponding to the ECS instance.
A surgical system comprising: a first sensor element configured to be mounted on a first digit of a human hand; a second sensor element configured to be mounted on a second digit of the human hand; a hand tracking system coupled to the first and second sensor elements (1211, 1212) the hand tracking system being configured to track a first position and orientation of the first sensor element and to track a second position and orientation of the second sensor element and a controller (130, 140) coupled to the hand tracking system, the controller being configured to transform the first position and orientation and the second position and orientation to a control point position and a control point orientation of a single control point, and the controller being configured to send a command to move a teleoperated device of the surgical system, wherein the command is based on the control point position and the control point orientation of the single control point. a first sensor element configured to be mounted on a first digit of a human hand; a second sensor element configured to be mounted on a second digit of the human hand; a hand tracking system coupled to the first and second sensor elements (1211, 1212) the hand tracking system being configured to track a first position and orientation of the first sensor element and to track a second position and orientation of the second sensor element and a controller (130, 140) coupled to the hand tracking system, the controller being configured to transform the first position and orientation and the second position and orientation to a control point position and a control point orientation of a single control point, and the controller being configured to send a command to move a teleoperated device of the surgical system, wherein the command is based on the control point position and the control point orientation of the single control point.
A primer composition comprising an inorganic UV absorbing agent selected from the group consisting of CeOx, TiOx, ZnOx, ZrOx, and combinations thereof, wherein x is 1-2; and a polymer selected from (i) a copolycarbonate comprising repeating units A and B, and (ii) a polyurethane obtained by reaction of a polyisocyanate and a copolycarbonate diol comprising repeating units A and B, wherein repeating units A and B are represented by the following formulae: and wherein the molar ratio of units to units is in the range of from about 9:1 to about 1:9, and wherein R 1 is a divalent C8 to C12 alicyclic group, R 2 is a divalent group selected from the group consisting of ethylene, propylene, and combinations thereof, n is an integer ranging from 4 to 40; wherein the UV absorbing agent is present in an amount of from about 1 to about 80 weight percent based on the total weight of the primer composition. wherein the molar ratio of units to units is in the range of from about 9:1 to about 1:9, and wherein R 1 is a divalent C8 to C12 alicyclic group, R 2 is a divalent group selected from the group consisting of ethylene, propylene, and combinations thereof, n is an integer ranging from 4 to 40; wherein the UV absorbing agent is present in an amount of from about 1 to about 80 weight percent based on the total weight of the primer composition.