mhurhangee/ep-ind-claims huggingface dataset:
An aerosol generating device comprising: a controller; an accommodator configured to accommodate a cigarette through an opening formed at one end of the accommodator; a first susceptor located in the accommodator; a second susceptor disposed a predetermined distance away from the first susceptor; a coil configured to generate an alternating magnetic field for the first and second susceptors (120, 140) to generate heat; and a temperature sensor arranged proximate to the second susceptor to measure a temperature profile of the second susceptor, wherein the temperature profile of the second susceptor corresponds to a temperature profile of the first susceptor, and wherein the controller is configured to determine a temperature of the first susceptor based on the temperature profile of the second susceptor, characterized in that the second susceptor is arranged in a compartment located at another end of the accommodator, and the coil extends towards the compartment to surround a side wall of the compartment together, and wherein the compartment located at the other end of the accommodator forms a space separate from the accommodator. a controller; an accommodator configured to accommodate a cigarette through an opening formed at one end of the accommodator; a first susceptor located in the accommodator; a second susceptor disposed a predetermined distance away from the first susceptor; a coil configured to generate an alternating magnetic field for the first and second susceptors (120, 140) to generate heat; and a temperature sensor arranged proximate to the second susceptor to measure a temperature profile of the second susceptor, wherein the temperature profile of the second susceptor corresponds to a temperature profile of the first susceptor, and wherein the controller is configured to determine a temperature of the first susceptor based on the temperature profile of the second susceptor, characterized in that the second susceptor is arranged in a compartment located at another end of the accommodator, and the coil extends towards the compartment to surround a side wall of the compartment together, and wherein the compartment located at the other end of the accommodator forms a space separate from the accommodator.
An impact tool comprising: a motor; a hammer connected to an output portion of the motor; and an anvil to be struck by the hammer in a rotation direction and having a rotary shaft, the hammer striking the anvil in the rotation direction by driving the motor in pulses, wherein the anvil is provided in front of the hammer, wherein the hammer is adapted to be driven in pulses by the motor, and wherein a rotation angle of the hammer is substantially proportional to a rotation angle of the motor. a motor; a hammer connected to an output portion of the motor; and an anvil to be struck by the hammer in a rotation direction and having a rotary shaft, the hammer striking the anvil in the rotation direction by driving the motor in pulses, wherein the anvil is provided in front of the hammer, wherein the hammer is adapted to be driven in pulses by the motor, and wherein a rotation angle of the hammer is substantially proportional to a rotation angle of the motor.
A display apparatus comprising: an image display device (30, 30L, 30R), wherein the image display device (30, 30L, 30R) includes an image forming device, and an optical system that guides an image, which originates from the image forming device, into a pupil of a viewer, wherein, assuming that a direction of the image forming device corresponding to a first direction of the image is an X direction and a direction of the image forming device corresponding to a second direction of the image different from the first direction is a Y direction, the image forming device is curved along the X direction, the Y direction, or the X and Y directions, and wherein the image display device (30, 30L, 30R) further includes an image-forming-device-to-optical-system distance adjustment unit that adjusts a distance between the image forming device and the optical system, wherein the display apparatus further comprises a display control device being adapted to control a size of the entire image obtained from the image forming device in accordance with the distance between the image forming device and the optical system, and wherein the display control device is adapted to control the size of the entire image by means of signal processing. an image display device (30, 30L, 30R), wherein the image display device (30, 30L, 30R) includes an image forming device, and an optical system that guides an image, which originates from the image forming device, into a pupil of a viewer, an image forming device, and an optical system that guides an image, which originates from the image forming device, into a pupil of a viewer, wherein, assuming that a direction of the image forming device corresponding to a first direction of the image is an X direction and a direction of the image forming device corresponding to a second direction of the image different from the first direction is a Y direction, the image forming device is curved along the X direction, the Y direction, or the X and Y directions, and wherein the image display device (30, 30L, 30R) further includes an image-forming-device-to-optical-system distance adjustment unit that adjusts a distance between the image forming device and the optical system, wherein the display apparatus further comprises a display control device being adapted to control a size of the entire image obtained from the image forming device in accordance with the distance between the image forming device and the optical system, and wherein the display control device is adapted to control the size of the entire image by means of signal processing.
A bulkhead configured to be disposed between an engine compartment and a passenger compartment, the bulkhead comprising: a support structure defining a first support side configured to face the engine compartment, and a second support side opposite the first support side, the support structure including at least one reinforcement member and a body supported by the reinforcement member; a thermally insulative component supported by the first support side of the support structure; and an acoustic resonator defining a first resonator side that faces the support structure, a second resonator side that faces the thermally insulative component, and a plurality of openings that extend along a first direction from the second resonator side toward the first resonator side and terminate at a location between the first resonator side and the second resonator side, wherein the acoustic resonator includes a plurality of cells that each defines a respective first open volume that is in fluid communication with at least one of the plurality of openings, characterized in that each of the plurality of openings defines a respective cross-sectional area along a first plane that is oriented perpendicular to the first direction, each of the respective first open volumes defines a respective cross-sectional area along a second plane that is parallel to the first plane, and the respective cross-sectional area of each of the plurality of openings is less than the respective cross-sectional area of each of the first open volumes. a support structure defining a first support side configured to face the engine compartment, and a second support side opposite the first support side, the support structure including at least one reinforcement member and a body supported by the reinforcement member; a thermally insulative component supported by the first support side of the support structure; and an acoustic resonator defining a first resonator side that faces the support structure, a second resonator side that faces the thermally insulative component, and a plurality of openings that extend along a first direction from the second resonator side toward the first resonator side and terminate at a location between the first resonator side and the second resonator side, wherein the acoustic resonator includes a plurality of cells that each defines a respective first open volume that is in fluid communication with at least one of the plurality of openings, characterized in that each of the plurality of openings defines a respective cross-sectional area along a first plane that is oriented perpendicular to the first direction, each of the respective first open volumes defines a respective cross-sectional area along a second plane that is parallel to the first plane, and the respective cross-sectional area of each of the plurality of openings is less than the respective cross-sectional area of each of the first open volumes.
A method for wireless communication, comprising: receiving (1305, 1405) a first transmission comprising at least a portion of a first transport block, TB, the first TB comprising a set of code blocks, CBs, transmitted in a first transmission time interval, TTI, having a first TTI duration; transmitting (1310, 1410) an indication that a subset of the set of CBs is unsuccessfully received; receiving (1315, 1420) a retransmission of the subset of the set of CBs in a second TTI having a TTI duration that is selected from the first TTI duration or a second TTI duration that is shorter than the first TTI duration; and characterised by: receiving, at least partially concurrently with the receiving the retransmission of the subset of the set of CBs, a second transmission comprising at least a portion of a second TB in a third TTI, the third TTI having the first TTI duration. receiving (1305, 1405) a first transmission comprising at least a portion of a first transport block, TB, the first TB comprising a set of code blocks, CBs, transmitted in a first transmission time interval, TTI, having a first TTI duration; transmitting (1310, 1410) an indication that a subset of the set of CBs is unsuccessfully received; receiving (1315, 1420) a retransmission of the subset of the set of CBs in a second TTI having a TTI duration that is selected from the first TTI duration or a second TTI duration that is shorter than the first TTI duration; and characterised by: receiving, at least partially concurrently with the receiving the retransmission of the subset of the set of CBs, a second transmission comprising at least a portion of a second TB in a third TTI, the third TTI having the first TTI duration.
A method of wirelessly transferring data across a network between a sending network device and a target network device via one or more intermediate network devices (3, 4) comprising the steps of: transmitting an outgoing message from the sending device to the target device via one or more intermediate devices (3, 4); transmitting an incoming message from the target device to the sending device via one or more intermediate devices (3, 4); storing routing information relating to the devices used to successfully transfer the outgoing and incoming messages; characterised in that the method further comprises the steps of: incorporating the routing information into a second outgoing message to specify a predicted route of devices intended to be used in the transmission of the second outgoing message so that only the devices intended to be used in the transfer of data switch to an active state for data communication on receipt of the second outgoing message; and configuring the devices used in the transmission of the second outgoing message from the sending device to the target device to remain in an active state until they receive and subsequently transfer a reply message from the target device to a further device along the predicted route to the sending device. transmitting an outgoing message from the sending device to the target device via one or more intermediate devices (3, 4); transmitting an incoming message from the target device to the sending device via one or more intermediate devices (3, 4); storing routing information relating to the devices used to successfully transfer the outgoing and incoming messages; characterised in that the method further comprises the steps of: incorporating the routing information into a second outgoing message to specify a predicted route of devices intended to be used in the transmission of the second outgoing message so that only the devices intended to be used in the transfer of data switch to an active state for data communication on receipt of the second outgoing message; and configuring the devices used in the transmission of the second outgoing message from the sending device to the target device to remain in an active state until they receive and subsequently transfer a reply message from the target device to a further device along the predicted route to the sending device. incorporating the routing information into a second outgoing message to specify a predicted route of devices intended to be used in the transmission of the second outgoing message so that only the devices intended to be used in the transfer of data switch to an active state for data communication on receipt of the second outgoing message; and configuring the devices used in the transmission of the second outgoing message from the sending device to the target device to remain in an active state until they receive and subsequently transfer a reply message from the target device to a further device along the predicted route to the sending device.
A vehicle control device (10, 20) comprising: a memory (20B, 20C); and a processor that is connected to the memory, characterized by wherein the processor is configured to judge a state of a vehicle, structure, by a hypervisor function, a plurality of VMs, Virtual Machines, that control equipment installed in the vehicle, such that an order of activating or stopping the VMs can be controlled, and when it is judged that the state of the vehicle has changed, switch the order in which activation or stoppage of the plurality of VMs is carried out, based on a prescribed activation order of the VMs and a determination of whether each virtual machine is to be activated or stopped in the judged state. a memory (20B, 20C); and a processor that is connected to the memory, characterized by wherein the processor is configured to judge a state of a vehicle, structure, by a hypervisor function, a plurality of VMs, Virtual Machines, that control equipment installed in the vehicle, such that an order of activating or stopping the VMs can be controlled, and when it is judged that the state of the vehicle has changed, switch the order in which activation or stoppage of the plurality of VMs is carried out, based on a prescribed activation order of the VMs and a determination of whether each virtual machine is to be activated or stopped in the judged state.
A vehicle information management system that manages diagnostic data that indicates a vehicle state, comprising: a plurality of parameter detectors each configured to detect a parameter related to the vehicle state; an abnormality specifying unit configured to specify a type of an abnormality generated in the vehicle based on the parameters detected by the parameter detectors; a diagnostic data producing unit configured to produce the diagnostic data based on the parameters detected by the parameter detectors when a type of an abnormality is specified by the abnormality specifying unit; a storage having a storage region (241, 242, 243) configured to store abnormality data including the diagnostic data, type information that indicates the type of the abnormality, and occurrence number information that indicates the number of occurrences of the abnormality specified by the type information; and an updating unit that is configured to change the occurrence number information to latest information and to overwrite and save a new piece of diagnostic data in the storage region (241, 242, 243) in the storage when a type of an abnormality is specified by the abnormality specifying unit and the new piece of the diagnostic data is produced and if abnormality data of the same type as the specified type is already stored in the storage region (241, 242, 243). a plurality of parameter detectors each configured to detect a parameter related to the vehicle state; an abnormality specifying unit configured to specify a type of an abnormality generated in the vehicle based on the parameters detected by the parameter detectors; a diagnostic data producing unit configured to produce the diagnostic data based on the parameters detected by the parameter detectors when a type of an abnormality is specified by the abnormality specifying unit; a storage having a storage region (241, 242, 243) configured to store abnormality data including the diagnostic data, type information that indicates the type of the abnormality, and occurrence number information that indicates the number of occurrences of the abnormality specified by the type information; and an updating unit that is configured to change the occurrence number information to latest information and to overwrite and save a new piece of diagnostic data in the storage region (241, 242, 243) in the storage when a type of an abnormality is specified by the abnormality specifying unit and the new piece of the diagnostic data is produced and if abnormality data of the same type as the specified type is already stored in the storage region (241, 242, 243).
A waveguide-type polarization beam splitter formed on a substrate, comprising: one or two input optical waveguides; a first optical coupler optically coupled to the one or two input optical waveguides and having one input and two outputs or two inputs and two outputs; a pair of optical waveguide arms optically coupled to the outputs of the first optical coupler; and a second optical coupler optically coupled to the pair of optical waveguide arms and having two inputs and one output or two inputs and two outputs, a groove is provided to extend across the pair of optical waveguide arms, two quarter wave plates are inserted in the groove to extend respectively across the pair of optical waveguide arms, and polarization axes of the respective two quarter wave plates are orthogonal to each other, and one of the first optical coupler and the second optical coupler is an optical coupler which gives a phase shift of about 90° or about -90° between coupled or split light beams, and another one of the first optical coupler and the second optical coupler is an optical coupler which gives a phase shift of about 0° or about 180° between coupled or split light beams. one or two input optical waveguides; a first optical coupler optically coupled to the one or two input optical waveguides and having one input and two outputs or two inputs and two outputs; a pair of optical waveguide arms optically coupled to the outputs of the first optical coupler; and a second optical coupler optically coupled to the pair of optical waveguide arms and having two inputs and one output or two inputs and two outputs, a groove is provided to extend across the pair of optical waveguide arms, two quarter wave plates are inserted in the groove to extend respectively across the pair of optical waveguide arms, and polarization axes of the respective two quarter wave plates are orthogonal to each other, and one of the first optical coupler and the second optical coupler is an optical coupler which gives a phase shift of about 90° or about -90° between coupled or split light beams, and another one of the first optical coupler and the second optical coupler is an optical coupler which gives a phase shift of about 0° or about 180° between coupled or split light beams.
A method for projecting stereoscopic images using a multiple projector arrangement comprising a first projector and a second projector, the method comprising: transmitting a first field train from the first projector, the first field train comprising first projector left and right images; and concurrently transmitting a second field train from the second projector, the second field train comprising second projector right and left images, wherein the first projector left image is transmitted by the first projector at substantially a same time as the second projector right image is transmitted by the second projector, and wherein the first projector and the second projector are each adapted to alternately project light of a first polarization and a second polarization in synchronization with the video field trains. transmitting a first field train from the first projector, the first field train comprising first projector left and right images; and concurrently transmitting a second field train from the second projector, the second field train comprising second projector right and left images, wherein the first projector left image is transmitted by the first projector at substantially a same time as the second projector right image is transmitted by the second projector, and wherein the first projector and the second projector are each adapted to alternately project light of a first polarization and a second polarization in synchronization with the video field trains.
A device, comprising: one or more memories; and one or more processors, communicatively coupled to the one or more memories, to: analyze execution of suspicious data; detect one or more states of execution of the suspicious data that indicate that at least a portion of malware is unpacked; assign the one or more states of execution a priority level corresponding to an unpacked state of the malware; and extract at least a portion of the suspicious data from one or more locations based on the assigned priority level. one or more memories; and one or more processors, communicatively coupled to the one or more memories, to: analyze execution of suspicious data; detect one or more states of execution of the suspicious data that indicate that at least a portion of malware is unpacked; assign the one or more states of execution a priority level corresponding to an unpacked state of the malware; and extract at least a portion of the suspicious data from one or more locations based on the assigned priority level. analyze execution of suspicious data; detect one or more states of execution of the suspicious data that indicate that at least a portion of malware is unpacked; assign the one or more states of execution a priority level corresponding to an unpacked state of the malware; and extract at least a portion of the suspicious data from one or more locations based on the assigned priority level.
A pharmaceutical composition comprising (a) an NSAID selected from Ketorolac at a concentration of 0.05% to 1% by weight or diclofenac at a concentration of 0.01% to 0.2% by weight; and (b) 0.001 % to 1% by weight of atropine. (a) an NSAID selected from Ketorolac at a concentration of 0.05% to 1% by weight or diclofenac at a concentration of 0.01% to 0.2% by weight; and (b) 0.001 % to 1% by weight of atropine.
A process for producing hydrogel particles comprising bubbles and having a specific gravity of 0.7 to 1.00 and an average particle diameter of 50 to 500 μm, which comprises stirring an aqueous solution containing a gel-former and a bubble-regulating agent to form a bubble-containing hydrogel, spraying the bubble-containing hydrogel into a gaseous phase at a temperature of from the gelling temperature to 100°C, and cooling it, wherein the content of the gel-former in the hydrogel particles is 0.1 to 8.0 % by weight and the gel-former is agar, and wherein the content of the bubble-regulating agent is 0.5 to 5.0 % by weight and the bubble-regulating agent is an anionic surfactant. stirring an aqueous solution containing a gel-former and a bubble-regulating agent to form a bubble-containing hydrogel, spraying the bubble-containing hydrogel into a gaseous phase at a temperature of from the gelling temperature to 100°C, and cooling it, wherein the content of the gel-former in the hydrogel particles is 0.1 to 8.0 % by weight and the gel-former is agar, and wherein the content of the bubble-regulating agent is 0.5 to 5.0 % by weight and the bubble-regulating agent is an anionic surfactant.