mhurhangee/ep-ind-claims huggingface dataset:
A method (600, 700) comprising: determining a number of drops of a plurality of messages sent to a first node within a mesh network of a plurality of nodes; based at least in part on a determination that a number of the plurality of messages have been dropped within a time period, decrementing a first rating assigned to the first node to a second rating; determining that the second rating assigned to the first node is below a rating threshold; based at least in part on the second rating being below the rating threshold, determining (608, 702) that the first node is a potentially malicious node, receiving first location information indicating a first location of the first node; receiving second location information indicating a second location of a second node; determining a distance threshold based at least in part on a second distance indicated by the second location information; determining, using the first location information, that a first distance to the first node is greater than or equal to the distance threshold; and based at least in part on the first distance to the first node being larger than the distance threshold, identifying that the first node is a malicious node. determining a number of drops of a plurality of messages sent to a first node within a mesh network of a plurality of nodes; based at least in part on a determination that a number of the plurality of messages have been dropped within a time period, decrementing a first rating assigned to the first node to a second rating; determining that the second rating assigned to the first node is below a rating threshold; based at least in part on the second rating being below the rating threshold, determining (608, 702) that the first node is a potentially malicious node, receiving first location information indicating a first location of the first node; receiving second location information indicating a second location of a second node; determining a distance threshold based at least in part on a second distance indicated by the second location information; determining, using the first location information, that a first distance to the first node is greater than or equal to the distance threshold; and based at least in part on the first distance to the first node being larger than the distance threshold, identifying that the first node is a malicious node.
A method of decoding a bitstream of encoded video by reconstructing significant-coefficient flags for a transform unit, the transform unit comprising a sequence of block-based coefficient groups, each coefficient group corresponding to a significant-coefficient-group flag and a set of significant-coefficient flags encoded in the bitstream, the method comprising: determining a coefficient group for which the corresponding significant-coefficient-group flag is set; determining a context for each significant-coefficient flag in the set of significant-coefficient flags corresponding to said coefficient group, wherein determining the context for at least one of the significant-coefficient flags is at least partly based on a significant-coefficient-group flag of a coefficient group neighboring that coefficient group; and decoding each significant-coefficient flag of the set of significant-coefficient flags corresponding to that coefficient group, using the respective determined context, wherein each significant-coefficient-group flag indicates whether its associated coefficient group is presumed to contain at least one non-zero significant-coefficient flag; and wherein decoding comprises context-adaptive entropy decoding. determining a coefficient group for which the corresponding significant-coefficient-group flag is set; determining a context for each significant-coefficient flag in the set of significant-coefficient flags corresponding to said coefficient group, wherein determining the context for at least one of the significant-coefficient flags is at least partly based on a significant-coefficient-group flag of a coefficient group neighboring that coefficient group; and decoding each significant-coefficient flag of the set of significant-coefficient flags corresponding to that coefficient group, using the respective determined context,
A spray gun, comprising: a spray gun main body, having an air intake passage, a first air outlet passage, a second air outlet passage, and a mounting hole defined therein, the mounting hole being in communication with the air intake passage, the first air outlet passage and the second air outlet passage; and an adjustment valve, mounted to the spray gun main body and located in the mounting hole, the adjustment valve including a first operating member and a second operating member, the first operating member being movable relative to the spray gun main body for adjusting an outflow passing through the air intake passage and the first air outlet passage, the second operating member being movably mounted on the first operating member and corresponding to the second air outlet passage for adjusting an outflow passing through the second air outlet passage wherein the adjustment valve further comprises a valve seat, characterized in that the valve seat has a pivot trough defined therein, the first operating member comprises a cylinder, and the cylinder is pivotally connected to the pivot trough of the valve seat, and in that the valve seat has a first opening and a second opening which are in communication with the pivot trough, the first opening and the second opening are in communication with the air intake passage and the first air outlet passage respectively, the cylinder of the first operating member has at least one perforation (2111, 2112), and the perforation (2111, 2112) is staggered or communicated with the first opening or the second opening by turning the cylinder. a spray gun main body, having an air intake passage, a first air outlet passage, a second air outlet passage, and a mounting hole defined therein, the mounting hole being in communication with the air intake passage, the first air outlet passage and the second air outlet passage; and an adjustment valve, mounted to the spray gun main body and located in the mounting hole, the adjustment valve including a first operating member and a second operating member, the first operating member being movable relative to the spray gun main body for adjusting an outflow passing through the air intake passage and the first air outlet passage, the second operating member being movably mounted on the first operating member and corresponding to the second air outlet passage for adjusting an outflow passing through the second air outlet passage wherein the adjustment valve further comprises a valve seat, characterized in that the valve seat has a pivot trough defined therein, the first operating member comprises a cylinder, and the cylinder is pivotally connected to the pivot trough of the valve seat, and in that the valve seat has a first opening and a second opening which are in communication with the pivot trough, the first opening and the second opening are in communication with the air intake passage and the first air outlet passage respectively, the cylinder of the first operating member has at least one perforation (2111, 2112), and the perforation (2111, 2112) is staggered or communicated with the first opening or the second opening by turning the cylinder.
Handling device for drill pipes of a drilling device for creating a deep borehole, having at least one pipe rack which is arranged vertically on a working plane of the drilling device and has an open portion through which the drill pipes can be introduced into the pipe rack or removed from the pipe rack, wherein the pipe rack is provided with a guide element by means of which a handling space delimited by the guide element on the one hand and the pipe rack on the other hand is created in the region of the open portion, wherein the handling device has at least one gripping element for gripping the drill pipe, wherein the gripping element is movable horizontally and vertically, and wherein the drill pipe can be moved by way of the gripping element in the region of the handling space and from the handling space to a well centre of the drilling device, or vice versa, wherein the handling device has a lower portion and a spatially separately arranged upper portion, and wherein the gripping element is arranged on the lower portion, wherein the handling device has a holding element which is arranged on the upper portion and which encloses the drill pipe in the horizontal direction with a holding action, wherein the holding element is configured in such a way that, in the holding state, it allows a vertical movement of the drill pipe.
A method of facilitating reacting programming, comprising: employing at least one processor configured to execute computer-executable instructions stored in memory to perform the following acts: receiving a non-reactive expression; generating a reactive expression as a function of the non-reactive expression, wherein the reactive expression is a reactive version of the non-reactive expression; dynamically generating an optimized version of the reactive expression that minimizes computational work upon input sequence of a data source changes, wherein the dynamically generating the optimized version of the reactive expression comprises: computing a frequency of change of the data source, wherein the reactive expression accounts for the frequency of change of said data source; determining whether a threshold is met based on the computed frequency; if the threshold is met, optimizing the reactive expression based on the frequency of data source change, wherein the reactive expression is represented in an expression tree, and optimization comprises rebalancing the reactive expression for the frequency change such that a data source associated with the greatest frequency of change is positioned with the shortest path length within the expression tree. receiving a non-reactive expression; generating a reactive expression as a function of the non-reactive expression, wherein the reactive expression is a reactive version of the non-reactive expression; dynamically generating an optimized version of the reactive expression that minimizes computational work upon input sequence of a data source changes, wherein the dynamically generating the optimized version of the reactive expression comprises: computing a frequency of change of the data source, wherein the reactive expression accounts for the frequency of change of said data source; determining whether a threshold is met based on the computed frequency; if the threshold is met, optimizing the reactive expression based on the frequency of data source change, wherein the reactive expression is represented in an expression tree, and optimization comprises rebalancing the reactive expression for the frequency change such that a data source associated with the greatest frequency of change is positioned with the shortest path length within the expression tree. computing a frequency of change of the data source, wherein the reactive expression accounts for the frequency of change of said data source; determining whether a threshold is met based on the computed frequency; if the threshold is met, optimizing the reactive expression based on the frequency of data source change, wherein the reactive expression is represented in an expression tree, and optimization comprises rebalancing the reactive expression for the frequency change such that a data source associated with the greatest frequency of change is positioned with the shortest path length within the expression tree.
A medical instrument tracking system, comprising: a medical instrument including a handle and different rigid interchangeable heads for individual insertion into the handle, the handle having a handle position-tracking transducer disposed thereon, different respective ones of the interchangeable heads having differently positioned respective head position-tracking transducers disposed thereon so as when the different respective ones of the interchangeable heads are inserted into the handle, the different respective head position-tracking transducers define different respective positions relative to the handle position-tracking transducer; and processing circuitry configured to: receive signals generated by the handle position-tracking transducer and the respective head position-tracking transducer of a respective one of the interchangeable heads inserted into the handle; compute a relative position between the handle position-tracking transducer and the head position-tracking transducer of the inserted interchangeable head responsively to the received signals; and identify which one of the interchangeable heads is inserted into the handle responsively to the computed relative position. a medical instrument including a handle and different rigid interchangeable heads for individual insertion into the handle, the handle having a handle position-tracking transducer disposed thereon, different respective ones of the interchangeable heads having differently positioned respective head position-tracking transducers disposed thereon so as when the different respective ones of the interchangeable heads are inserted into the handle, the different respective head position-tracking transducers define different respective positions relative to the handle position-tracking transducer; and processing circuitry configured to: receive signals generated by the handle position-tracking transducer and the respective head position-tracking transducer of a respective one of the interchangeable heads inserted into the handle; compute a relative position between the handle position-tracking transducer and the head position-tracking transducer of the inserted interchangeable head responsively to the received signals; and identify which one of the interchangeable heads is inserted into the handle responsively to the computed relative position. receive signals generated by the handle position-tracking transducer and the respective head position-tracking transducer of a respective one of the interchangeable heads inserted into the handle; compute a relative position between the handle position-tracking transducer and the head position-tracking transducer of the inserted interchangeable head responsively to the received signals; and identify which one of the interchangeable heads is inserted into the handle responsively to the computed relative position.
Communication method allowing the interaction of at least two virtual machines (10, 11) hosted by heterogeneous virtualization solutions, said method comprising the following steps: • encapsulation of network streams (30, 31) originating from interfaces (20, 21) of said virtual machines (10, 11); • redirection of said network streams (30, 31) onto a physical device comprising at least one processor and a memory; • de-encapsulation of said network streams (30, 31) by said physical device; • establishment by said physical device of a link between said network streams (30, 31); said method being characterized in that: • said heterogeneous virtualization solutions, which are incompatible with one another, are virtualization solutions of type 1, termed "native" hypervisor, and of type 2, termed "hosted" hypervisor; • the encapsulation of said network streams (30, 31) is carried out in a centralized manner whatever its virtualization solution comprising a virtualization of type 1, termed "native" hypervisor, and of type 2, termed "hosted" hypervisor, on each virtualization solution; • said physical device is a third-party device; • the establishment by said third-party physical device of a link between said network streams (30, 31) is a function of the desired network arrangement; • once the link between said network streams (30, 31) is established, said streams (30, 31) are networked. • encapsulation of network streams (30, 31) originating from interfaces (20, 21) of said virtual machines (10, 11); • redirection of said network streams (30, 31) onto a physical device comprising at least one processor and a memory; • de-encapsulation of said network streams (30, 31) by said physical device; • establishment by said physical device of a link between said network streams (30, 31); • said heterogeneous virtualization solutions, which are incompatible with one another, are virtualization solutions of type 1, termed "native" hypervisor, and of type 2, termed "hosted" hypervisor; • the encapsulation of said network streams (30, 31) is carried out in a centralized manner whatever its virtualization solution comprising a virtualization of type 1, termed "native" hypervisor, and of type 2, termed "hosted" hypervisor, on each virtualization solution; • said physical device is a third-party device; • the establishment by said third-party physical device of a link between said network streams (30, 31) is a function of the desired network arrangement; • once the link between said network streams (30, 31) is established, said streams (30, 31) are networked.
A method of fluid content imaging of a sample by imaging at least a portion of the sample using a spin-echo single-point imaging (SE-SPI) pulse sequence characterized by: (a) providing an excitation pulse; (b) separately phase encoding individual echoes in a multi-echo acquisition wherein the phase encoding for each said echo is added by a gradient pulse before each echo and immediately removed by an identical gradient pulse of altered sign immediately following each echo, and wherein said gradient pulses increase in amplitude with each successive encoding and removal; (c) acquiring k-space data points from the echoes acquired in step (b) beginning with a k-space origin data point at a near zero evolution time from the free induction decay following the excitation pulse; (d) introducing a delay between step (c) and step (e) to ensure full longitudinal magnetization recovery; (e) repeating steps (a) to (c) with the signs of the phase encoding and phase removing gradient pulses in step (b) reversed; (f) combining the two sets of k-space data points acquired in step (c) and averaging the k-space origin data points; and (g) generating a spatially resolved fluid content image of at least a portion of the sample by transforming the combined k-space data points with the averaged k-space origin data point from step (f) using Fourier transform. (a) providing an excitation pulse; (b) separately phase encoding individual echoes in a multi-echo acquisition wherein the phase encoding for each said echo is added by a gradient pulse before each echo and immediately removed by an identical gradient pulse of altered sign immediately following each echo, and wherein said gradient pulses increase in amplitude with each successive encoding and removal; (c) acquiring k-space data points from the echoes acquired in step (b) beginning with a k-space origin data point at a near zero evolution time from the free induction decay following the excitation pulse; (d) introducing a delay between step (c) and step (e) to ensure full longitudinal magnetization recovery; (e) repeating steps (a) to (c) with the signs of the phase encoding and phase removing gradient pulses in step (b) reversed; (f) combining the two sets of k-space data points acquired in step (c) and averaging the k-space origin data points; and (g) generating a spatially resolved fluid content image of at least a portion of the sample by transforming the combined k-space data points with the averaged k-space origin data point from step (f) using Fourier transform.
A method carried out by a user equipment, UE, the method comprising: establishing a unicast Evolved Packet Service, EPS, bearer in a Long-Term Evolution, LTE, network for group communication, wherein the UE belongs to a communication group having a group ID; and receiving access information from the network for monitoring a multicast Multimedia Broadcast Multicast Service, MBMS, bearer to receive DL multicast traffic of the DL group communication, characterized by the method further comprising: monitoring DL traffic of the communication group both via the multicast MBMS bearer and the unicast EPS bearer, and de-multiplexing (1514, 1903) DL traffic received at any given time either from the multicast MBMS bearer or from the unicast EPS bearer into a single group communication application. establishing a unicast Evolved Packet Service, EPS, bearer in a Long-Term Evolution, LTE, network for group communication, wherein the UE belongs to a communication group having a group ID; and receiving access information from the network for monitoring a multicast Multimedia Broadcast Multicast Service, MBMS, bearer to receive DL multicast traffic of the DL group communication, characterized by the method further comprising: monitoring DL traffic of the communication group both via the multicast MBMS bearer and the unicast EPS bearer, and de-multiplexing (1514, 1903) DL traffic received at any given time either from the multicast MBMS bearer or from the unicast EPS bearer into a single group communication application. monitoring DL traffic of the communication group both via the multicast MBMS bearer and the unicast EPS bearer, and de-multiplexing (1514, 1903) DL traffic received at any given time either from the multicast MBMS bearer or from the unicast EPS bearer into a single group communication application.
A fluid path set for a fluid delivery system, comprising: a manifold comprising a plurality of fluid control valves in series fluid communication, a first fluid control valve comprising a first port, a second port, and a third port, the third port of the first fluid control valve in fluid connection with a first port of a second fluid control valve; a low pressure hand-operated syringe in fluid connection with the first port of the first fluid control valve; a power injector operated high pressure syringe in fluid connection with the second port of the first fluid control valve; and wherein the plurality of fluid control valves and the high pressure syringe can withstand pressures of 6.9-8.3 MPa (1000-1200 psi). a manifold comprising a plurality of fluid control valves in series fluid communication, a first fluid control valve comprising a first port, a second port, and a third port, the third port of the first fluid control valve in fluid connection with a first port of a second fluid control valve; a low pressure hand-operated syringe in fluid connection with the first port of the first fluid control valve; a power injector operated high pressure syringe in fluid connection with the second port of the first fluid control valve; and wherein the plurality of fluid control valves and the high pressure syringe can withstand pressures of 6.9-8.3 MPa (1000-1200 psi).