mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling access to a communication medium by a plurality of network nodes communicating on a plurality of channels on corresponding frequency bands, each channel having a maximum channel transfer rate, the method comprising: generating a channel allocation schedule where each channel is divided into a channel-assigned number of time slots per frame of data defined by a frame time, each time slot having a slot transfer rate equal to or less than the maximum channel transfer rate; receiving a request for channel resources from a network node in the plurality of network nodes, the request comprising a bandwidth requirement; identifying at least one time slot in the frame of a selected channel on the channel allocation schedule, the at least one time slot providing a throughput corresponding to the bandwidth requirement in the request for channel resources; and sending a channel resource allocation message to the network node identifying the selected channel and the at least one time slot in the frame of the selected channel as allocated to the network node, wherein the step of identifying the at least one time slot further comprises: identifying in the bandwidth requirement a data volume and a communication periodic rate indicating an aggregate data volume communication requirement; and matching the data volume and communication periodic rate with at least one time slot in the channel sufficient to communicate the data volume at the communication periodic rate in one frame time. generating a channel allocation schedule where each channel is divided into a channel-assigned number of time slots per frame of data defined by a frame time, each time slot having a slot transfer rate equal to or less than the maximum channel transfer rate; receiving a request for channel resources from a network node in the plurality of network nodes, the request comprising a bandwidth requirement; identifying at least one time slot in the frame of a selected channel on the channel allocation schedule, the at least one time slot providing a throughput corresponding to the bandwidth requirement in the request for channel resources; and sending a channel resource allocation message to the network node identifying the selected channel and the at least one time slot in the frame of the selected channel as allocated to the network node, identifying in the bandwidth requirement a data volume and a communication periodic rate indicating an aggregate data volume communication requirement; and matching the data volume and communication periodic rate with at least one time slot in the channel sufficient to communicate the data volume at the communication periodic rate in one frame time.
A solid electrolyte comprising lithium, phosphorous, sulfur and bromine as constituent components and having a peak in a peak region of 75.0 ppm or more and 80.0 ppm or less in the solid-state 31 P-NMR spectrum, and having a composition represented by the following formula (A'): L a M b P c S d X e (A') wherein L is lithium; M is B, Al, Si, Ge, As, Se, Sn, Sb, Te, Pb or Bi or a combination thereof; X is Br alone or in combination with at least one of I, Cl and F; and a, b, c, d and e satisfy b is 0, and a:c:d:e=2 to 6.5:1:3.5 to 4.95:0.1 to 1.5.
A decoder for decoding a bitstream encoded according to a Huffman coding tree of height H comprising: a memory for storing a plurality of data structures representing the Huffman coding tree of height H including at least a first data structure representing a first level of the Huffman coding tree used to encode the bitstream and having an associated first offset value and an associated first shift value and a second data structure representing a second, different level of the Huffman coding tree used to encode the bitstream and having an associated second offset value and an associated second shift value; and a processor configured to: subtract the first offset value from a codeword of H bits taken from the bitstream; right shift the result by the first shift value; and address the first data structure using the shifted result to identify either a symbol or the second data structure; if the second data structure is identified using the first data structure: subtract the second offset value from the codeword of H bits; right shift the result by the second shift value; and address the second data structure using the shifted result to identify either a symbol or a third data structure representing a third, different level of the Huffman coding tree used to encode the bitstream. a memory for storing a plurality of data structures representing the Huffman coding tree of height H including at least a first data structure representing a first level of the Huffman coding tree used to encode the bitstream and having an associated first offset value and an associated first shift value and a second data structure representing a second, different level of the Huffman coding tree used to encode the bitstream and having an associated second offset value and an associated second shift value; and a processor configured to: subtract the first offset value from a codeword of H bits taken from the bitstream; right shift the result by the first shift value; and address the first data structure using the shifted result to identify either a symbol or the second data structure; subtract the first offset value from a codeword of H bits taken from the bitstream; right shift the result by the first shift value; and address the first data structure using the shifted result to identify either a symbol or the second data structure; if the second data structure is identified using the first data structure: subtract the second offset value from the codeword of H bits; right shift the result by the second shift value; and address the second data structure using the shifted result to identify either a symbol or a third data structure representing a third, different level of the Huffman coding tree used to encode the bitstream. subtract the second offset value from the codeword of H bits; right shift the result by the second shift value; and address the second data structure using the shifted result to identify either a symbol or a third data structure representing a third, different level of the Huffman coding tree used to encode the bitstream.
A dilation system comprising: an elongate tubular member extending from a proximal portion to a distal portion; a handle assembly operatively coupled to the elongate tubular member, the handle assembly configured to proximally pull the elongate tubular member; and an expandable dilation balloon disposed about the elongate tubular member at the distal portion, wherein the dilation balloon is configurable in an expanded state and in an unexpanded state, and when in the expanded state, comprises a proximally-tapered portion and a distally-tapered portion, the proximally-tapered portion comprising a longitudinal length in a range of 25 mm to 230 mm and comprising a plurality of stages over the longitudinal length, each stage comprising a proximally-tapered section and a constant-diameter portion to provide a plurality of constant-diameter portions comprising a maximum diameter portion (326) and a proximal portion proximal to the maximum diameter portion (326), the proximal portion having a smaller diameter than the maximum diameter portion (326), wherein the maximum diameter portion (326) has a diameter in a range of 8 mm to 20 mm; wherein the dilation balloon does not have a diameter smaller than a diameter of the proximal portion over a longitudinal length extending from the proximal portion to the maximum diameter portion (326), and wherein the handle assembly is further configured to axially rotate the elongate tubular member causing the dilation balloon to axially rotate about a central longitudinal axis when the elongate tubular member is proximally pulled. an elongate tubular member extending from a proximal portion to a distal portion; a handle assembly operatively coupled to the elongate tubular member, the handle assembly configured to proximally pull the elongate tubular member; and an expandable dilation balloon disposed about the elongate tubular member at the distal portion, wherein the dilation balloon is configurable in an expanded state and in an unexpanded state, and when in the expanded state, comprises a proximally-tapered portion and a distally-tapered portion, the proximally-tapered portion comprising a longitudinal length in a range of 25 mm to 230 mm and comprising a plurality of stages over the longitudinal length, each stage comprising a proximally-tapered section and a constant-diameter portion to provide a plurality of constant-diameter portions comprising a maximum diameter portion (326) and a proximal portion proximal to the maximum diameter portion (326), the proximal portion having a smaller diameter than the maximum diameter portion (326), wherein the maximum diameter portion (326) has a diameter in a range of 8 mm to 20 mm; wherein the dilation balloon does not have a diameter smaller than a diameter of the proximal portion over a longitudinal length extending from the proximal portion to the maximum diameter portion (326), and wherein the handle assembly is further configured to axially rotate the elongate tubular member causing the dilation balloon to axially rotate about a central longitudinal axis when the elongate tubular member is proximally pulled.
A fishing reel attached to a fishing rod for releasing and winding a fishing line, comprising: a reel unit; a spool being rotatably attached to the reel unit, the spool being configured to wind the fishing line thereon; a handle being mounted to the reel unit, the handle being configured to rotate the spool; a tension detection section being configured to detect tension applied on the fishing line by converting the tension into an electric signal, the tension detection section including a torque sensor being configured to detect the torque applied on the spool, wherein the tension detection section includes a magnetostrictive element being configured to change a magnetic permeability thereof on the basis of the torque applied on the spool, and a detection coil being disposed in a surrounding area of the magnetostrictive element, where the detection coil is configured to detect electrically a change in the magnetic permeability; characterized in that the fishing reel comprises a temperature detection section being disposed in a vicinity of the tension detection section, and disposed to detect temperature of the tension detection section; a detected tension correction section being configured to correct the tension after being detected on the basis of the temperature of the tension detection section after being detected; and a corrected tension output section being configured to output the tension after being corrected by the detected tension correction section, wherein the temperature detection section is disposed on the both sides of the detection coil.. a reel unit; a spool being rotatably attached to the reel unit, the spool being configured to wind the fishing line thereon; a handle being mounted to the reel unit, the handle being configured to rotate the spool; a tension detection section being configured to detect tension applied on the fishing line by converting the tension into an electric signal, the tension detection section including a torque sensor being configured to detect the torque applied on the spool, wherein the tension detection section includes a magnetostrictive element being configured to change a magnetic permeability thereof on the basis of the torque applied on the spool, and a detection coil being disposed in a surrounding area of the magnetostrictive element, where the detection coil is configured to detect electrically a change in the magnetic permeability;
A training projectile (10, 20) comprising a cartridge shell having a propulsion chamber with a propellant charge and a hollow projectile body inserted in the cartridge shell, the projectile body having a central axis of rotation and comprising: (a) a projectile head designed to withstand the forces applied when the projectile is fired from a weapon and having a frangible ogive designed to burst when the projectile strikes a target; (b) a plurality of first, frangible, compartments (24, 26) made of foil and disposed in said head substantially symmetrically about the central axis of rotation, said first compartments (24, 26) being designed to be broken by the centrifugal forces on the projectile when the projectile is fired from a weapon; (c) at least one marking agent disposed in the head for marking the position of the target upon its release when the ogive has burst, said marking agent comprising a plurality of first chemical components each disposed in a separate one of said first compartments (24, 26) in the head, said first components being mixed and reacting chemically with each other when the first compartments (24, 26) are broken, causing the mixed components to substantially react by the time the projectile strikes the target; and (d) a plurality of masses (34, 36), each disposed in a separate one of said first (24, 26) compartments together with a respective one of said first components, each (34, 36) mass being denser than said respective first component in said first compartment (24, 26) and serving to break the first compartment (24, 26) within which it resides due to the centrifugal forces on the projectile when the projectile is fired from a weapon. (a) a projectile head designed to withstand the forces applied when the projectile is fired from a weapon and having a frangible ogive designed to burst when the projectile strikes a target; (b) a plurality of first, frangible, compartments (24, 26) made of foil and disposed in said head substantially symmetrically about the central axis of rotation, said first compartments (24, 26) being designed to be broken by the centrifugal forces on the projectile when the projectile is fired from a weapon; (c) at least one marking agent disposed in the head for marking the position of the target upon its release when the ogive has burst, said marking agent comprising a plurality of first chemical components each disposed in a separate one of said first compartments (24, 26) in the head, said first components being mixed and reacting chemically with each other when the first compartments (24, 26) are broken, causing the mixed components to substantially react by the time the projectile strikes the target; and (d) a plurality of masses (34, 36), each disposed in a separate one of said first (24, 26) compartments together with a respective one of said first components, each (34, 36) mass being denser than said respective first component in said first compartment (24, 26) and serving to break the first compartment (24, 26) within which it resides due to the centrifugal forces on the projectile when the projectile is fired from a weapon.
A method for moving a vehicle along a predetermined path, wherein a current location on the predetermined path and a direction of travel (θ) of the vehicle present at this location is cyclically determined by a state observer by merging odometry data of the vehicle with data on the vehicle location from a wireless distance measurement and subsequently, a course correction for the vehicle is determined from the obtained location with the obtained direction of travel in a trajectory control system, characterized in that processing values are provided with one predetermined basic value respectively for the processing of the odometry data on the one hand and, on the other hand, for the processing of data of the distance measurement in the state observer, and at least one of the processing values is changed with respect to its predetermined basic value depending on the characteristics of the predetermined path at the current location determined so that precise navigation is achieved.
A method, performed by a device, of authenticating an application in an execution environment of a trust zone, the method comprising: executing a client application, CA, in a normal world; receiving a request for receiving, in the normal world, a service of a trusted application, TA, of a secure world from the CA; acquiring, when the request is received in the normal world, source information of the CA loaded in a memory of the device, wherein the acquiring of the source information comprises acquiring data for a source code of the CA from a binary file of the CA; acquiring, in the normal world, first hash information from the source information by calculating a hash value from the source information based on a predetermined hash algorithm; providing, to the secure world, the first hash information together with signature information and a sub certificate included in the CA; and authenticating, in the secure world, the CA based on the sub certificate and a root certificate of the TA, wherein the root certificate of the TA is matched with a plurality of sub certificates which are corresponding to a plurality of different client applications, CAs, and the sub certificate in the CA is one of the plurality of sub certificates. executing a client application, CA, in a normal world; receiving a request for receiving, in the normal world, a service of a trusted application, TA, of a secure world from the CA; acquiring, when the request is received in the normal world, source information of the CA loaded in a memory of the device, wherein the acquiring of the source information comprises acquiring data for a source code of the CA from a binary file of the CA; acquiring, in the normal world, first hash information from the source information by calculating a hash value from the source information based on a predetermined hash algorithm; providing, to the secure world, the first hash information together with signature information and a sub certificate included in the CA; and authenticating, in the secure world, the CA based on the sub certificate and a root certificate of the TA, wherein the root certificate of the TA is matched with a plurality of sub certificates which are corresponding to a plurality of different client applications, CAs, and the sub certificate in the CA is one of the plurality of sub certificates.
A system for at least partly covering a structure on a seabed, comprising a resilient covering element, a suspension device, and a plurality of connection means, the connection means are releasably connected to the suspension device and the resilient covering element, characterized in that the plurality of connection means are arranged in at least three rows on the suspension device, a middle portion of the resilient covering element is suspended by a central row, and a cavity is formed underneath at least a portion of the resilient covering element.
Method for automatically controlling at least one following vehicle, in which a scout trajectory is generated for a scout vehicle, and the scout vehicle is driven along the scout trajectory, wherein scout environmental data are acquired by means of scout sensors, a target trajectory for the following vehicle is generated, and following vehicle environmental data are acquired by means of following vehicle sensors, reference trajectory data are generated on the basis of the scout trajectory, and reference environmental data are generated on the basis of the scout environmental data, the reference trajectory data and the reference environmental data are transmitted to the following vehicle, a trajectory similarity is determined via a trajectory comparison based upon the generated target trajectory and the transmitted reference trajectory data, wherein it is quantified whether and how starkly the target trajectory and the scout trajectory differ, an environmental similarity is determined by an environmental data comparison based upon the acquired following vehicle environmental data and the transmitted reference environmental data, and an automatic control of the following vehicle along the target trajectory is activated depending on the trajectory similarity and the environmental similarity. a scout trajectory is generated for a scout vehicle, and the scout vehicle is driven along the scout trajectory, wherein scout environmental data are acquired by means of scout sensors, a target trajectory for the following vehicle is generated, and following vehicle environmental data are acquired by means of following vehicle sensors, reference trajectory data are generated on the basis of the scout trajectory, and reference environmental data are generated on the basis of the scout environmental data, the reference trajectory data and the reference environmental data are transmitted to the following vehicle, a trajectory similarity is determined via a trajectory comparison based upon the generated target trajectory and the transmitted reference trajectory data, wherein it is quantified whether and how starkly the target trajectory and the scout trajectory differ, an environmental similarity is determined by an environmental data comparison based upon the acquired following vehicle environmental data and the transmitted reference environmental data, and an automatic control of the following vehicle along the target trajectory is activated depending on the trajectory similarity and the environmental similarity.
A dispensing system, comprising: a bottle including a proximal end and a distal end separated by a side wall which has a portion that is flexible, the proximal end including an opening; a valve cap liquid-tightly attached to the opening of the bottle, the valve cap including a valve in fluid communication with the opening of the bottle; and a dosing cap attached to the valve cap, including a closed end and an open end; wherein the valve cap allows a flowable product to be dispensed from the bottle into the dosing cap when the dosing cap is locked on the valve cap and the bottle is in an inverted position with the opening disposed below the distal end, wherein the valve cap further includes a venting aperture to allow air flow into and out of the dosing cap, characterized in that the venting aperture allows air to flow into and out of a gap located between the side wall of the bottle and the valve cap. a bottle including a proximal end and a distal end separated by a side wall which has a portion that is flexible, the proximal end including an opening; a valve cap liquid-tightly attached to the opening of the bottle, the valve cap including a valve in fluid communication with the opening of the bottle; and a dosing cap attached to the valve cap, including a closed end and an open end; wherein the valve cap allows a flowable product to be dispensed from the bottle into the dosing cap when the dosing cap is locked on the valve cap and the bottle is in an inverted position with the opening disposed below the distal end, wherein the valve cap further includes a venting aperture to allow air flow into and out of the dosing cap, characterized in that the venting aperture allows air to flow into and out of a gap located between the side wall of the bottle and the valve cap.