mhurhangee/ep-ind-claims huggingface dataset:
An encryption/decryption device connected to a communications entity, the device comprising: a connection unit, a key storage unit configured to generate a plurality of predetermined keys when the connection unit is Physically connected to another connection unit included in another encryption/decryption device and store the plurality of predetermined keys; a data port unit configured to receive data to be encrypted from the communications entity; a random number generation unit configured to generate random numbers; and a processing unit configured to generate an identifier including a predetermined number of bits, combine the received data with the identifier to generate combined data and encrypt the combined data based on a first key selected among the predetermined keys from the key storage unit, wherein the data port unit transfers the encrypted, combined data to the communications entity; and wherein the identifier indicates which key is used for encrypting the data among the predetermined keys, and wherein the processing unit determines values of some of the bits of the identifier based on at least two keys among the predetermined keys, and values of the remainder of the bits of the identifier based on the random numbers generated by the random number generation unit. a connection unit, a key storage unit configured to generate a plurality of predetermined keys when the connection unit is Physically connected to another connection unit included in another encryption/decryption device and store the plurality of predetermined keys; a data port unit configured to receive data to be encrypted from the communications entity; a random number generation unit configured to generate random numbers; and a processing unit configured to generate an identifier including a predetermined number of bits, combine the received data with the identifier to generate combined data and encrypt the combined data based on a first key selected among the predetermined keys from the key storage unit, wherein the data port unit transfers the encrypted, combined data to the communications entity; and wherein the identifier indicates which key is used for encrypting the data among the predetermined keys, and wherein the processing unit determines values of some of the bits of the identifier based on at least two keys among the predetermined keys, and values of the remainder of the bits of the identifier based on the random numbers generated by the random number generation unit.
A curable composition comprising: a crosslinkable epoxy resin; an epoxy curing agent; and a compound comprising a pyrazine moiety, wherein the compound is of a formula selected from the following formulas: wherein R is independently selected from at least one of a C1 to C4 alkyl, which may be optionally substituted by at least one of -OH, aryl, heteroaryl, pyrazyl, 2- hydroxyphenyl, 3- hydroxyphenyl, and 4-hydroxyphenyl group; wherein R 1 is selected from at least one of-H, benzyl, and C1 to C6 alkyl group and R 2 is selected from at least one of -C R', -C NHR', -C R', benzyl, and a C1 to C6 alkyl group, wherein R' is selected from at least one of a C1 to C6 alkyl, aryl, benzyl or heteroaryl group; wherein R is independently selected from at least one of -H and a C1 to C6 alkyl group; and wherein R is independently selected from at least one of -H and a C1 to C6 alkyl group or wherein the two Rs form a -CH 2 - bond; and R' is independently selected from at least one of -H and a C1 to C6 alkyl group. a crosslinkable epoxy resin; an epoxy curing agent; and a compound comprising a pyrazine moiety,
Cutting device for machining workpieces, with a tool holder having several tool mounts (15a-e) lined up in a line-up direction for cutting tools, wherein the tool holder has a cooling lubricant passage system, which has several cooling lubricant outlet openings (19a-e), each terminating into a tool mount (15a-e), for a fluid connection to a tool cooling lubricant passage passing through the cutting tool fixed in the tool mount (15a-e), wherein shut-off means are assigned to the cooling lubricant main passage, characterised in that the shut-off means can be incorporated into the cooling lubricant main passage in such a way that the cooling lubricant passage system has several feed connections (18a-d), each connectable to a cooling lubricant source, on an outside of the tool holder and the cooling lubricant passage system can be divided into several system sections (50a, 50b), each of which can be supplied independently of another with cooling lubricant via feed connections (18a-d) assigned thereto.
A laser, comprising: a gain medium, a resonant cavity, and a second microring resonator, wherein the resonant cavity comprises a first cavity mirror and a second cavity mirror, the first cavity mirror is located at a first port of the gain medium, and the second cavity mirror is located at a second port of the gain medium; the second cavity mirror comprises a splitter, a first microring resonator, and a reflecting grating; an input port of the splitter is connected to the second port of the gain medium; a first output port of the splitter is connected to an input port of the first microring resonator, a second output port of the splitter is connected to an input port of the second microring resonator, and a download port of the first microring resonator is connected to the reflecting grating; wherein the gain medium is configured to generate a laser gain signal; the resonant cavity that is formed by the first cavity mirror and the second cavity mirror is configured to perform resonance on the laser gain signal, and generate a laser light after a laser light generation condition is met; characterized in that the laser comprises a modulation signal generator connected to the gain medium and configured to load a modulation signal to the laser light that is generated in the resonant cavity, to generate a modulated laser light.
Heat engine for a motor vehicle comprising: - an engine block, - an air intake circuit having a cooling unit comprising a single cooling housing in which coolant circulates and which is suitable for housing: - a fresh air cooling stage, - a high-pressure recirculated gas cooling stage, wherein the liquid path in the housing comprises two parallel and oppositely directed circulation branches (33,35), one of the two branches being parallel and co-directional with a circulation of the recirculated gases in the recirculated gas cooling stage, the circulation of the compressed fresh air is parallel to the circulation of the coolant in the compressed air cooling stage, and the circulation of compressed air is in the opposite direction to the circulation of the coolant in the cooling stage, characterized in that the housing comprises a coolant inlet port and a coolant outlet port arranged at a first end of the housing opposite a second end at which a distribution chamber is arranged, said distribution chamber consisting in particular of the following consecutive portions, according to the direction of flow of the coolant: - a first collection portion having in particular a reduction of the fluid passage cross-section to form a convergent region, - a second transverse portion with a constant fluid passage cross-section, and - a third diffusion portion having in particular an increase in the passage cross-section. - an engine block, - an air intake circuit having a cooling unit comprising a single cooling housing in which coolant circulates and which is suitable for housing: - a fresh air cooling stage, - a high-pressure recirculated gas cooling stage, - a fresh air cooling stage, - a high-pressure recirculated gas cooling stage, wherein the liquid path in the housing comprises two parallel and oppositely directed circulation branches (33,35), one of the two branches being parallel and co-directional with a circulation of the recirculated gases in the recirculated gas cooling stage, the circulation of the compressed fresh air is parallel to the circulation of the coolant in the compressed air cooling stage, and the circulation of compressed air is in the opposite direction to the circulation of the coolant in the cooling stage, characterized in that the housing comprises a coolant inlet port and a coolant outlet port arranged at a first end of the housing opposite a second end at which a distribution chamber is arranged, said distribution chamber consisting in particular of the following consecutive portions, according to the direction of flow of the coolant: - a first collection portion having in particular a reduction of the fluid passage cross-section to form a convergent region, - a second transverse portion with a constant fluid passage cross-section, and - a third diffusion portion having in particular an increase in the passage cross-section. - a first collection portion having in particular a reduction of the fluid passage cross-section to form a convergent region, - a second transverse portion with a constant fluid passage cross-section, and - a third diffusion portion having in particular an increase in the passage cross-section.
A mobile terminal, comprising: a display comprising at least one screen and configured to operate in either a first mode or a second mode; and a controller configured to: detect a command to turn off the display, control the display to activate a first region of the at least one screen, deactivate a second region of the at least one screen, control the display to display information related to a currently running application on the activated first region in response to the command when the display is operated in the first mode, wherein the currently running application is launchable in a status in which the display is turned off, and control the display to deactivate the entire at least one screen in response to the command when the display is operated in the second mode, characterized in that the displayed information comprises first information related to a function performed by the currently running application and second information related to progress of the function, and the second information is generated from the first information based on at least one of current time and location information. a display comprising at least one screen and configured to operate in either a first mode or a second mode; and a controller configured to: detect a command to turn off the display, control the display to activate a first region of the at least one screen, deactivate a second region of the at least one screen, control the display to display information related to a currently running application on the activated first region in response to the command when the display is operated in the first mode, wherein the currently running application is launchable in a status in which the display is turned off, and control the display to deactivate the entire at least one screen in response to the command when the display is operated in the second mode, characterized in that the displayed information comprises first information related to a function performed by the currently running application and second information related to progress of the function, and the second information is generated from the first information based on at least one of current time and location information. detect a command to turn off the display, control the display to activate a first region of the at least one screen, deactivate a second region of the at least one screen, control the display to display information related to a currently running application on the activated first region in response to the command when the display is operated in the first mode, wherein the currently running application is launchable in a status in which the display is turned off, and control the display to deactivate the entire at least one screen in response to the command when the display is operated in the second mode, characterized in that the displayed information comprises first information related to a function performed by the currently running application and second information related to progress of the function, and the second information is generated from the first information based on at least one of current time and location information.
A seal for sealing a space defined by first and second adjacent components (202, 204) disposed about an axial centerline, the seal comprising: a first substantially C-shaped seal section including a first base and first and second legs (219, 220) extending from the first base and defining a first cavity; a second seal section at least partially disposed within the first cavity; and a wave spring disposed within the first cavity between the first and second seal sections (214, 216) and operative to bias the first seal section away from the second seal section; said second seal section is a substantially C-shaped seal section including a second base and third and fourth legs (223, 224) extending from the second base and defining a second cavity; characterised in that a compliant seal is partially disposed within the second cavity; the first and second seal sections (214, 216) are configured to move relative to one another; and the legs (223, 224) of the second seal section mechanically trap the compliant seal while exposing enough of the compliant seal to allow it to conform to a surface of the second component. a first substantially C-shaped seal section including a first base and first and second legs (219, 220) extending from the first base and defining a first cavity; a second seal section at least partially disposed within the first cavity; and a wave spring disposed within the first cavity between the first and second seal sections (214, 216) and operative to bias the first seal section away from the second seal section; said second seal section is a substantially C-shaped seal section including a second base and third and fourth legs (223, 224) extending from the second base and defining a second cavity; characterised in that a compliant seal is partially disposed within the second cavity; the first and second seal sections (214, 216) are configured to move relative to one another; and the legs (223, 224) of the second seal section mechanically trap the compliant seal while exposing enough of the compliant seal to allow it to conform to a surface of the second component.
A method performed by a multicast cloud controller ("MCC") in a cloud system to manage multicast traffic in a cloud network, the MCC coupled to at least one virtualized server for hosting one or more virtual machines ("VM"), wherein the virtualized server comprises at least one virtual switch ("VS") that supports multiprotocol label switching (MPLS) and the virtual switch is coupled to a top of rack switch ("TORS") that supports MPLS, the method comprising the steps of: receiving a leave group message at the MCC from a VM identifying a multicast group, where the VM is from a set of VMs of a tenant that are subscribed to the multicast group; deleting a flow table entry and output group at a VS of the VM, the flow table entry for forwarding outbound multicast traffic from the VM for the multicast group; deleting an action in an input group at the VS to forward incoming packets to the VM; and deleting a rule to drop loop back traffic from a TORS for the VM. receiving a leave group message at the MCC from a VM identifying a multicast group, where the VM is from a set of VMs of a tenant that are subscribed to the multicast group; deleting a flow table entry and output group at a VS of the VM, the flow table entry for forwarding outbound multicast traffic from the VM for the multicast group; deleting an action in an input group at the VS to forward incoming packets to the VM; and deleting a rule to drop loop back traffic from a TORS for the VM.
A head-mounted display, HMD, comprising: a chamber, disposed with a lens and a display, wherein the lens has a first surface and a second surface, the first surface faces the display, the second surface is coated with a reflective layer and faces a target eye of a wearer, and the reflective layer has more than one specific location; a light emitter, located outside of the chamber and emitting a first light to each specific location on the reflective layer, wherein for an i-th specific location of the at least one specific location, the first light is scattered as a plurality of second lights by the i-th specific location, the second lights are scattered as a plurality of third lights by the target eye, and the third lights are scattered as a plurality of fourth lights by a plurality of reference locations on the reflective layer; a camera, located outside of the chamber and capturing the fourth lights as an image corresponding to the i-th specific location; and a processor, coupled with the light emitter and the camera and estimating an eye pose of the target eye based on the image corresponding to each specific location. a chamber, disposed with a lens and a display, wherein the lens has a first surface and a second surface, the first surface faces the display, the second surface is coated with a reflective layer and faces a target eye of a wearer, and the reflective layer has more than one specific location; a light emitter, located outside of the chamber and emitting a first light to each specific location on the reflective layer, wherein for an i-th specific location of the at least one specific location, the first light is scattered as a plurality of second lights by the i-th specific location, the second lights are scattered as a plurality of third lights by the target eye, and the third lights are scattered as a plurality of fourth lights by a plurality of reference locations on the reflective layer; a camera, located outside of the chamber and capturing the fourth lights as an image corresponding to the i-th specific location; and a processor, coupled with the light emitter and the camera and estimating an eye pose of the target eye based on the image corresponding to each specific location.
A system for generating pulsed electromagnetic fields (PEMFs) for application to target tissues or target cells during a plurality of successive PEMF sessions, comprising: a set of PEMF coils; a memory module; a pulse generator coupled to the set of PEMF coils and configured to generate an output of electrical pulses to drive the set of PEMF coils; and a controller in communication with the memory module and the pulse generator, characterized in that the controller is configured to control the pulse generator such that during each PEMF session: each PEMF pulse has a peak magnetic flux density between 0.1 - 5.0 mT and a rate of magnetic flux density change between 10 - 100 T/s; and characterised in that the set of PEMF coils generates a plurality of PEMF pulses across a PEMF exposure time of at least 5 minutes but not longer than 15 minutes. a set of PEMF coils; a memory module; a pulse generator coupled to the set of PEMF coils and configured to generate an output of electrical pulses to drive the set of PEMF coils; and a controller in communication with the memory module and the pulse generator, characterized in that the controller is configured to control the pulse generator such that during each PEMF session: each PEMF pulse has a peak magnetic flux density between 0.1 - 5.0 mT and a rate of magnetic flux density change between 10 - 100 T/s; and characterised in that the set of PEMF coils generates a plurality of PEMF pulses across a PEMF exposure time of at least 5 minutes but not longer than 15 minutes.
A method for tracking the quality of a beverage produced according to a batch process, the method comprising: adding a first ingredient to water to form a batch; mixing the batch until the first ingredient is fully mixed; subsequently, adding a second ingredient to the batch; mixing the batch until the second ingredient is fully mixed; continuously measuring the density of the batch using an in-line density device; continuously monitoring changes in density of the batch; continuously detecting deviations from a target recipe based on the changes in density; and correcting for any detected deviations by matching the density to the target recipe by addition of more of the first ingredient or the second ingredient. adding a first ingredient to water to form a batch; mixing the batch until the first ingredient is fully mixed; subsequently, adding a second ingredient to the batch; mixing the batch until the second ingredient is fully mixed; continuously measuring the density of the batch using an in-line density device; continuously monitoring changes in density of the batch; continuously detecting deviations from a target recipe based on the changes in density; and correcting for any detected deviations by matching the density to the target recipe by addition of more of the first ingredient or the second ingredient.
Artificial unit configured to build hydraulic structures, in particular maritime structures, the artificial unit being inscribable in an equivalent cube having side equal to D and comprising a central cubic portion having a centre, six faces and side equal to 2·K 2 ·D, wherein the artificial unit is provided with a plurality of parallelepiped projecting elements adjacent to and touching each other which project from each face of the central cubic portion so that all six views obtainable through projections of the surfaces of the parallelepiped projecting elements of the artificial unit, which are orthogonal to the six faces of the central cubic portion, are different from each other, each one of the projecting parallelepiped elements having a first linear dimension s 1, a second linear dimension s 2 and a third linear dimension s 3 which are each not lower than K 1 ·D and not larger than 5·K 1 ·D, or not lower than K 2 ·D and not larger than 5·K 2 ·D, wherein K 1 is a first coefficient lower than 1 and K 2 is a second coefficient lower than 1.