mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a system hosting a monotonic counter, the system comprising a volatile memory for maintaining a current counter value and a non-volatile memory for holding a saved counter value, said method comprising: maintaining a current counter value in the volatile memory, the current counter value being a monotonic count value; saving the current counter value of the volatile memory to the non-volatile memory as the saved counter value in response to a detected shutdown event relating to a controlled shutdown of the system; on startup of the system, retrieving the saved counter value of the monotonic counter from the non-volatile memory of the system; on startup of the system, detecting whether a previous shutdown of the system was an unexpected uncontrolled shutdown, whereby the current counter value was not saved to the non-volatile memory as the saved counter value; on startup of the system: (i) when the previous unexpected uncontrolled shutdown is not detected, providing the retrieved saved counter value to the volatile memory as the current counter value; (ii) when the previous uncontrolled shutdown is detected, adjusting the retrieved counter value in accordance with a step size, and providing the adjusted counter value to the volatile memory as the current counter value. maintaining a current counter value in the volatile memory, the current counter value being a monotonic count value; saving the current counter value of the volatile memory to the non-volatile memory as the saved counter value in response to a detected shutdown event relating to a controlled shutdown of the system; on startup of the system, retrieving the saved counter value of the monotonic counter from the non-volatile memory of the system; on startup of the system, detecting whether a previous shutdown of the system was an unexpected uncontrolled shutdown, whereby the current counter value was not saved to the non-volatile memory as the saved counter value; on startup of the system: (i) when the previous unexpected uncontrolled shutdown is not detected, providing the retrieved saved counter value to the volatile memory as the current counter value; (ii) when the previous uncontrolled shutdown is detected, adjusting the retrieved counter value in accordance with a step size, and providing the adjusted counter value to the volatile memory as the current counter value. (i) when the previous unexpected uncontrolled shutdown is not detected, providing the retrieved saved counter value to the volatile memory as the current counter value; (ii) when the previous uncontrolled shutdown is detected, adjusting the retrieved counter value in accordance with a step size, and providing the adjusted counter value to the volatile memory as the current counter value.
A method for detecting focal epileptiform activity, the method comprising the steps of: obtaining a plurality of brain wave signals (CH1-CH4) from a subject; decomposing the brain wave signals into subbands so that at least one of the subbands corresponds to the epileptic waveforms of interest; determining (32A I -32B N) a signal-specific quantitative measure indicative of the degree of epileptiform activity for at least some of the plurality of brain wave signals, whereby a plurality of signal-specific measures are obtained, a first measure being indicative of the entropy of a subband and a second measure being indicative of the fourth or higher normalized central moment of a subband; and providing (12, 13, 15) an indication of the presence of focal epileptiform activity based on the plurality of signal-specific measures, wherein the providing step includes a sub-step of comparing at least some of the plurality of signal-specific measures with each other. obtaining a plurality of brain wave signals (CH1-CH4) from a subject; decomposing the brain wave signals into subbands so that at least one of the subbands corresponds to the epileptic waveforms of interest; determining (32A I -32B N) a signal-specific quantitative measure indicative of the degree of epileptiform activity for at least some of the plurality of brain wave signals, whereby a plurality of signal-specific measures are obtained, a first measure being indicative of the entropy of a subband and a second measure being indicative of the fourth or higher normalized central moment of a subband; and providing (12, 13, 15) an indication of the presence of focal epileptiform activity based on the plurality of signal-specific measures, wherein the providing step includes a sub-step of comparing at least some of the plurality of signal-specific measures with each other.
A spool for a turbine section of a gas turbine engine, the spool comprising: a first rotor stage having a first set of blades extending from a first blade platform and connected to a first rotor disk at a first blade attachment; a second rotor stage having a second set of blades extending from a second blade platform and connected to a second rotor disk at a second blade attachment; an arm connecting the first rotor stage to the second rotor stage; and a first cover plate having an upstream edge adjacent a downstream side of the first blade platform and a downstream edge adjacent an upstream side of the second blade platform, the first cover plate extending from a downstream side of the first blade attachment to an upstream side of the second blade attachment, wherein an inner surface of the first cover plate is spaced from the first rotor disk, the arm, and the second rotor disk such that the first cover plate conforms to the first rotor disk, the arm, and the second rotor disk so as to define a flow path from the first blade attachment to the second blade attachment. a first rotor stage having a first set of blades extending from a first blade platform and connected to a first rotor disk at a first blade attachment; a second rotor stage having a second set of blades extending from a second blade platform and connected to a second rotor disk at a second blade attachment; an arm connecting the first rotor stage to the second rotor stage; and a first cover plate having an upstream edge adjacent a downstream side of the first blade platform and a downstream edge adjacent an upstream side of the second blade platform, the first cover plate extending from a downstream side of the first blade attachment to an upstream side of the second blade attachment, wherein an inner surface of the first cover plate is spaced from the first rotor disk, the arm, and the second rotor disk such that the first cover plate conforms to the first rotor disk, the arm, and the second rotor disk so as to define a flow path from the first blade attachment to the second blade attachment.
A vascular model(111;131;141;151), comprising: a flow path forming portion(181; 181b;181c;181f,182; 182f) for forming a fluid flow path extending in an extension direction of the vascular model; and a diffusion portion(186; 186a;186b;186c;186e) formed with a porous body(187;187e) and disposed so as to face the fluid flow path, the diffusion portion(186;186a;186b; 186c;186e) being for excreting a fluid flowing through the fluid flow path from pores of the porous body(187;187e) to the outside in a diffused manner; characterized by the pores of the porous body in the diffusion portion(186; 186a;186b;186c;186e) are filled with an elastic body. a flow path forming portion(181; 181b;181c;181f,182; 182f) for forming a fluid flow path extending in an extension direction of the vascular model; and a diffusion portion(186; 186a;186b;186c;186e) formed with a porous body(187;187e) and disposed so as to face the fluid flow path, the diffusion portion(186;186a;186b; 186c;186e) being for excreting a fluid flowing through the fluid flow path from pores of the porous body(187;187e) to the outside in a diffused manner; characterized by the pores of the porous body in the diffusion portion(186; 186a;186b;186c;186e) are filled with an elastic body.
A method, comprising: at a receiver, measuring first Received Signal Strength Indications, RSSIs, in respective first communication channels, which are located in a given frequency band and which each have a first channel bandwidth; computing, based on the first RSSIs, second RSSIs for respective second communication channels, which are located in the given frequency band and which each have a second channel bandwidth that is larger than the first channel bandwidth wherein computing the second RSSIs comprises calculating a second RSSI for a respective second communication channel by summing the first RSSIs measured on a subset of the first communication channels overlapping the second communication channel; and selecting, using the first and second RSSIs, at least one of the first and second communication channels over which to receive signals at the receiver, characterized in that summing the first RSSIs comprises multiplying a sum of the first RSSIs in the subset by a factor that depends on respective first and second channel filter shapes of the first and second communication channels. at a receiver, measuring first Received Signal Strength Indications, RSSIs, in respective first communication channels, which are located in a given frequency band and which each have a first channel bandwidth; computing, based on the first RSSIs, second RSSIs for respective second communication channels, which are located in the given frequency band and which each have a second channel bandwidth that is larger than the first channel bandwidth wherein computing the second RSSIs comprises calculating a second RSSI for a respective second communication channel by summing the first RSSIs measured on a subset of the first communication channels overlapping the second communication channel; and selecting, using the first and second RSSIs, at least one of the first and second communication channels over which to receive signals at the receiver, characterized in that summing the first RSSIs comprises multiplying a sum of the first RSSIs in the subset by a factor that depends on respective first and second channel filter shapes of the first and second communication channels.
A confinement structure comprising one or more open cells for confinement, in use, of particulate fill materials such as soil, sand, or aggregate, each of the one or more open cells comprising one or more walls, the one or more walls including an external wall and an internal wall, the external wall comprising a composite material having a polymeric grid layer laminated to a fabric layer.
A medical device comprising: an elongate body having a proximal portion and a distal portion, the proximal portion of the elongate body terminating in a free end; the distal portion of the elongate body forming a loop; the loop including a first plurality of anchors (18a', 18b') disposed along a surface of the loop; and a pledget disposed adjacent a proximal portion of the loop; characterized in that: the pledget is a separate device which is placed over the elongate body adjacent the proximal portion of the loop. an elongate body having a proximal portion and a distal portion, the proximal portion of the elongate body terminating in a free end; the distal portion of the elongate body forming a loop; the loop including a first plurality of anchors (18a', 18b') disposed along a surface of the loop; and a pledget disposed adjacent a proximal portion of the loop;
A bioreactor, the bioreactor being in the form of a tower, wherein: the bioreactor is filled with a suspended carrier, the suspended carrier is polyethylene, a biofilm is formed on the suspended carrier, a density of the suspended carrier without the biofilm is between 0.97 and 0.98 g/cm 3, and a density of the suspended carrier with the biofilm is 1 g/cm 3; a ratio of a height to a diameter of the bioreactor is between 3 and 10; a water inlet pipe, an air inlet pipe, and a first microporous aerator are arranged at a bottom of the bioreactor; the water inlet pipe is connected to a water distributor; the air inlet pipe is connected to the first microporous aerator; a gas inlet pipe and a second microporous aerator are arranged at a middle part of the bioreactor and are connected with each other; and a gas outlet pipe is arranged at a top of the bioreactor; characterized in that: an annular overflow weir is arranged at an upper part of the bioreactor and is connected to a water outlet pipe; and the bioreactor further comprises a net cover disposed on the annular overflow weir. the bioreactor is filled with a suspended carrier, the suspended carrier is polyethylene, a biofilm is formed on the suspended carrier, a density of the suspended carrier without the biofilm is between 0.97 and 0.98 g/cm 3, and a density of the suspended carrier with the biofilm is 1 g/cm 3; a ratio of a height to a diameter of the bioreactor is between 3 and 10; a water inlet pipe, an air inlet pipe, and a first microporous aerator are arranged at a bottom of the bioreactor; the water inlet pipe is connected to a water distributor; the air inlet pipe is connected to the first microporous aerator; a gas inlet pipe and a second microporous aerator are arranged at a middle part of the bioreactor and are connected with each other; and a gas outlet pipe is arranged at a top of the bioreactor; an annular overflow weir is arranged at an upper part of the bioreactor and is connected to a water outlet pipe; and the bioreactor further comprises a net cover disposed on the annular overflow weir.
An illumination device comprising: - a base; - a U-shaped yoke connected to and rotatable relative to said base, said U-shaped yoke comprise two upstanding arms (106a, 106b); - a head mounted between said upstanding arms (106a, 106b) of said U-shaped yoke and rotatable relative to said yoke, said head comprises at least one light source generating a light; characterized in that said U-shaped yoke comprises at least two interlocked U-shaped yoke shell parts (131a, 131b); and a metal frame whereto at least one of said two U-shaped yoke shell parts (131 a, 131b) is connected. - a base; - a U-shaped yoke connected to and rotatable relative to said base, said U-shaped yoke comprise two upstanding arms (106a, 106b); - a head mounted between said upstanding arms (106a, 106b) of said U-shaped yoke and rotatable relative to said yoke, said head comprises at least one light source generating a light;
A method for computing a group key for a group of machine type communication devices in an apparatus, comprising: computing an intermediate group key based on unique identifications of each member device of the group of machine type communication devices, the method further characterized by: sending a random value to member devices of the group not acting as a gateway device performing authentication and key agreement procedure for the group, wherein the random value is generated on the basis of an authentication vector computed from the intermediate group key: at the member devices computing key material based on the received random value and on a unique identification of the member devices; receiving the key materials from the member devices and computing the group key from the key materials of the member devices and the unique identification of the gateway device, wherein communication between the apparatus and a network application function is performed by using a session identification of the group, and/or by using a session identification of a member device of the group, generated based on the session identification of the group and the unique identification of the member device. computing an intermediate group key based on unique identifications of each member device of the group of machine type communication devices, the method further characterized by: sending a random value to member devices of the group not acting as a gateway device performing authentication and key agreement procedure for the group, wherein the random value is generated on the basis of an authentication vector computed from the intermediate group key: at the member devices computing key material based on the received random value and on a unique identification of the member devices; receiving the key materials from the member devices and computing the group key from the key materials of the member devices and the unique identification of the gateway device, wherein communication between the apparatus and a network application function is performed by using a session identification of the group, and/or by using a session identification of a member device of the group, generated based on the session identification of the group and the unique identification of the member device. at the member devices computing key material based on the received random value and on a unique identification of the member devices; receiving the key materials from the member devices and computing the group key from the key materials of the member devices and the unique identification of the gateway device, wherein communication between the apparatus and a network application function is performed by using a session identification of the group, and/or by using a session identification of a member device of the group, generated based on the session identification of the group and the unique identification of the member device.
A method for transmitting reference signals through a transparent relay node in a relay communication system, the method comprising: allocating, by a base station, a plurality of antenna ports in a mutually exclusive manner so that the antenna port of the base station and the antenna port of a peripheral relay node do not overlap each other; transmitting, from the base station and the relay node, reference signals to a terminal through the respective antenna ports mutually exclusively allocated; and obtaining by the base station, from the terminal, channel state information relating to the link between the base station and the terminal and channel state information relating to the link between the relay node and the terminal. allocating, by a base station, a plurality of antenna ports in a mutually exclusive manner so that the antenna port of the base station and the antenna port of a peripheral relay node do not overlap each other; transmitting, from the base station and the relay node, reference signals to a terminal through the respective antenna ports mutually exclusively allocated; and obtaining by the base station, from the terminal, channel state information relating to the link between the base station and the terminal and channel state information relating to the link between the relay node and the terminal.
A cooking appliance comprising: a housing including at least one outer wall defining a heating cavity, the heating cavity configured to receive a cooking vessel; a stirring tower having a supporting foot, the stirring tower being selectively removable from the housing; a foot receptacle disposed in a base of the housing for selectively receiving the supporting foot when the stirring tower is in an engaged position; a mixing arm hingedly removably coupled to the stirring tower; at least one mixing wand removably engaged with the mixing arm; and a lid pivotally coupled to the mixing arm and operable between an open position and a closed position in which the lid covers the heating cavity. a housing including at least one outer wall defining a heating cavity, the heating cavity configured to receive a cooking vessel; a stirring tower having a supporting foot, the stirring tower being selectively removable from the housing; a foot receptacle disposed in a base of the housing for selectively receiving the supporting foot when the stirring tower is in an engaged position; a mixing arm hingedly removably coupled to the stirring tower; at least one mixing wand removably engaged with the mixing arm; and a lid pivotally coupled to the mixing arm and operable between an open position and a closed position in which the lid covers the heating cavity.
A method for controlling operation of a communications network based on predicting a value of a first Key Performance Indicator, KPI, the method comprising: - maintaining a plurality of machine-learning processes, wherein an individual machine-learning process operates based on a data model and decision-making rules, wherein the plurality of machine-learning processes operate based on a plurality of different data models and a plurality of different decision-making rules; - receiving a stream of values of Key Performance Indicators, KPIs, obtained from network elements of the communications network; - predicting by the plurality of machine-learning processes, based on previously received values of KPIs and using the data models and decision-making rules, a plurality of future values of said first KPI, wherein the plurality of future values of said first KPI refer to a same point in time; - combining the plurality of future values of the first KPI that refer to the same point in time into a single predicted value of the first KPI, wherein the single predicted value of the first KPI is calculated as a weighted average, wherein a weight of a particular one of the plurality of future values depends at least on a confidence level of the particular one of the plurality of future values; and - triggering a network management operation if the single predicted value of the first KPI is equal to or exceeds a first threshold. - maintaining a plurality of machine-learning processes, wherein an individual machine-learning process operates based on a data model and decision-making rules, wherein the plurality of machine-learning processes operate based on a plurality of different data models and a plurality of different decision-making rules; - receiving a stream of values of Key Performance Indicators, KPIs, obtained from network elements of the communications network; - predicting by the plurality of machine-learning processes, based on previously received values of KPIs and using the data models and decision-making rules, a plurality of future values of said first KPI, wherein the plurality of future values of said first KPI refer to a same point in time; - combining the plurality of future values of the first KPI that refer to the same point in time into a single predicted value of the first KPI, wherein the single predicted value of the first KPI is calculated as a weighted average, wherein a weight of a particular one of the plurality of future values depends at least on a confidence level of the particular one of the plurality of future values; and - triggering a network management operation if the single predicted value of the first KPI is equal to or exceeds a first threshold.