mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: maintaining a first connection between a user equipment and a first network node, and a second connection between the user equipment and a second network node which has a third connection with the first network node; setting, by the user equipment, an indicator in a packet to indicate whether a destination of user data in the packet is the first network node for local breakout or the second network node; and transmitting the packet from the user equipment to the first network node via the first connection, wherein the user data of which the destination is the first network node is protected with a first key, the user data of which the destination is the second network node is protected with a second key independent from the first key, and the indicator being for handling the packet by the first network node, said handling the packet comprising: breaking out the packet at the first network node locally by deciphering the user data protected with a first key, if the indicator indicates that the destination of the user data is the first network node; and forwarding the packet to the second network node via the third connection without deciphering the user data protected with a second key, if the indicator indicates that the destination of the user data is the second network node. maintaining a first connection between a user equipment and a first network node, and a second connection between the user equipment and a second network node which has a third connection with the first network node; setting, by the user equipment, an indicator in a packet to indicate whether a destination of user data in the packet is the first network node for local breakout or the second network node; and transmitting the packet from the user equipment to the first network node via the first connection, wherein the user data of which the destination is the first network node is protected with a first key, the user data of which the destination is the second network node is protected with a second key independent from the first key, and the indicator being for handling the packet by the first network node, said handling the packet comprising: breaking out the packet at the first network node locally by deciphering the user data protected with a first key, if the indicator indicates that the destination of the user data is the first network node; and forwarding the packet to the second network node via the third connection without deciphering the user data protected with a second key, if the indicator indicates that the destination of the user data is the second network node.
A flexible electrode comprising a porous current collector having a plurality of pores, and an electrode active material layer formed in the pores and on the surface of the porous current collector, wherein the porous current collector and the flexible electrode have a thickness ratio of 1:1.05-1:1.2, and wherein the whole electrode including the porous current collector and the electrode active material layer has a porosity of 10-50%, wherein Porosity = volume of pores present in the electrode per unit weight / (specific volume + pore volume per unit weight), wherein the specific volume is the volume occupied by an object having a unit weight and the inverse number of density and the pore volume is calculated by the BJH method.
A method for deployment of mesh-operated access points comprising the steps of: - obtaining, channel strengths between access points, APs, and areas covered by the APs; - determining from the obtained channel strengths, propagation losses between the areas (211; 212; 213; 214; 221; 222; 230; 240); characterized in that the method further comprises the steps of: - identifying first pairs of areas with lower propagation losses and second pairs of areas with higher propagation losses; - selecting, from the first pairs of areas, candidate areas for deploying mesh-operated APs; and - determining, for the second pairs of areas, coverage by the respective mesh-operated APs when deployed in one or more of the candidate areas. - obtaining, channel strengths between access points, APs, and areas covered by the APs; - determining from the obtained channel strengths, propagation losses between the areas (211; 212; 213; 214; 221; 222; 230; 240); - identifying first pairs of areas with lower propagation losses and second pairs of areas with higher propagation losses; - selecting, from the first pairs of areas, candidate areas for deploying mesh-operated APs; and - determining, for the second pairs of areas, coverage by the respective mesh-operated APs when deployed in one or more of the candidate areas.
A method for marking a mattress to allow for visual identification of a characteristic of the mattress, comprising: providing a mattress cover assembly including a first cover having a foot panel, a head panel two opposing side panels (36, 38), and a top panel, the first cover defining a cavity for enclosing a mattress, and a second cover removably attached to the first cover, the second cover having a top surface, the second cover positioned over and dimensionally-sized to cover the top panel, an upper half of each opposing side panel (36, 38), an upper edge of the foot panel, and an upper edge of the head panel of the first cover, such that the second cover extends a distance over the upper half of each opposing side panel (36, 38) that is greater than a distance the second cover extends over the upper edge of the foot panel and the upper edge of the head panel; and marking the top surface of the second cover with a first indicia indicative of a first characteristic of the mattress assembly. providing a mattress cover assembly including a first cover having a foot panel, a head panel two opposing side panels (36, 38), and a top panel, the first cover defining a cavity for enclosing a mattress, and a second cover removably attached to the first cover, the second cover having a top surface, the second cover positioned over and dimensionally-sized to cover the top panel, an upper half of each opposing side panel (36, 38), an upper edge of the foot panel, and an upper edge of the head panel of the first cover, such that the second cover extends a distance over the upper half of each opposing side panel (36, 38) that is greater than a distance the second cover extends over the upper edge of the foot panel and the upper edge of the head panel; and a first cover having a foot panel, a head panel two opposing side panels (36, 38), and a top panel, the first cover defining a cavity for enclosing a mattress, and a second cover removably attached to the first cover, the second cover having a top surface, the second cover positioned over and dimensionally-sized to cover the top panel, an upper half of each opposing side panel (36, 38), an upper edge of the foot panel, and an upper edge of the head panel of the first cover, such that the second cover extends a distance over the upper half of each opposing side panel (36, 38) that is greater than a distance the second cover extends over the upper edge of the foot panel and the upper edge of the head panel; and marking the top surface of the second cover with a first indicia indicative of a first characteristic of the mattress assembly.
An audio decoder (200; 800) for providing a decoded audio information (212; 812) on the basis of an encoded audio information (210; 810), the audio decoder comprising: an arithmetic decoder (230; 820) for providing a plurality of decoded spectral values (232; 822) on the basis of an arithmetically encoded representation (222; 821) of the spectral values comprised in the encoded audio information (210; 810); and a frequency-domain-to-time-domain converter (260; 830) for providing a time-domain audio representation (262; 812) using the decoded spectral values (232; 822), in order to obtain the decoded audio information (212; 812); wherein the arithmetic decoder (230; 820) is configured to select a mapping rule (297; cum_freq[]) describing a mapping of a code value (acod_m; value) of the arithmetically-encoded representation of spectral values onto a symbol code (symbol) representing one or more of the decoded spectral values, or at least a portion of one or more of the decoded spectral values in dependence on a context state (s) described by a numeric current context value (c); wherein the arithmetic decoder (230; 820) is configured to determine the numeric current context value (c) in dependence on a plurality of previously decoded spectral values; wherein the arithmetic decoder is configured to evaluate a hash table (ari_hash_m[]), entries of which define both significant state values amongst the numeric context values and boundaries of intervals of non-significant state values amongst the numeric context values, in order to select the mapping rule, wherein a mapping rule index value is individually associated to a numeric context value being a significant state value, and wherein a common mapping rule index value is associated to different numeric context values laying within one of said intervals bounded by said interval boundaries. an arithmetic decoder (230; 820) for providing a plurality of decoded spectral values (232; 822) on the basis of an arithmetically encoded representation (222; 821) of the spectral values comprised in the encoded audio information (210; 810); and a frequency-domain-to-time-domain converter (260; 830) for providing a time-domain audio representation (262; 812) using the decoded spectral values (232; 822), in order to obtain the decoded audio information (212; 812);
Method of operating a wind farm comprising at least two wind turbine generator systems (WEA1, WEA2, WEA3, WEA4, WEA5), which is intended for connection to an electric power network, in which for each of the at least two wind turbine generator systems (WEA1, WEA2... WEA5) at least one actual value (vt1,..., vt1) for a wind speed and/or for a parameter associated with wind speed is determined, the at least two wind turbine generator systems (WEA1, WEA2, WEA3, WEA4, WEA5) are divided, at least temporarily, into at least two predeterminable groups (G1, G2, G3), and each wind turbine generator system of the first group is assigned at least one first disconnect value (At1 and each wind turbine generator system of the second group is assigned at least one second disconnect value (At1, which is different from the at least one first disconnect value (At1, and the at least one actual value (vt1,..., vt1) is assigned to one of the disconnect values (At1,..., At1), and the actual values (vt1,..., vt1) are compared with the assigned disconnect values (At1,..., At1), and if the assigned actual value (vt1,..., vt1) exceeds a disconnect value (At1,..., At1), the wind turbine generator system or group of wind turbine generator systems (G1, G2, G3) which is assigned to the disconnect value (At1,..., At1) is automatically disconnected and the sets of different disconnect values ((At1,..., At1) assigned to the at least two groups (G1, G2, G3) are rearranged between the at least two groups (G1, G2, G3), in order to minimize a long-term overload of one group (G1, G2, G3) of wind turbine generator systems (WEA1, WEA2,..., WEA5) by selecting particulary high disconnect values (At1,..., At1).
A tamper detection device comprising an integrated circuit chip comprising at least four terminals, the device further comprising an antenna and a tamper loop which may be in an open or closed state, wherein the tamper loop is coupled between the first and second terminal (8,9) of the IC chip, and the antenna is coupled between the third and fourth terminal (10,11) of the IC chip, and wherein the IC chip comprises power supply circuitry, wireless communication circuitry for receiving and sending signals through the antenna, and tamper detection circuitry for detecting the status of the tamper loop, characterized in that: - the device further comprises a light emitting diode coupled also between the first and second terminals (8,9), and - the IC chip comprises circuitry for activating or deactivating the supply of current to the diode, following a command signal received by the antenna, - the device is configured so that: ∘ a signal transmitted to the device effective to activate the supply of current to the diode causes the diode to be lit when the tamper loop is in a predefined state, ∘ said signal fails to light the diode, when the tamper loop is in the state opposite to the predefined state. - the device further comprises a light emitting diode coupled also between the first and second terminals (8,9), and - the IC chip comprises circuitry for activating or deactivating the supply of current to the diode, following a command signal received by the antenna, - the device is configured so that: ∘ a signal transmitted to the device effective to activate the supply of current to the diode causes the diode to be lit when the tamper loop is in a predefined state, ∘ said signal fails to light the diode, when the tamper loop is in the state opposite to the predefined state. ∘ a signal transmitted to the device effective to activate the supply of current to the diode causes the diode to be lit when the tamper loop is in a predefined state, ∘ said signal fails to light the diode, when the tamper loop is in the state opposite to the predefined state.
An elastic hinge for quick-assembly leg comprising: a double-tooth of hinge; a screw; a spring core assembly; and a leg; wherein the spring core assembly comprise a elastic buckle, a single frame which is inserted in a cavity of the elastic buckle, a core pin sleeved in a cavity of the elastic buckle which is formed after the single tooth frame is assembled into the elastic buckle, and a spring sleeved on the core pin; the elastic buckle being provided with a fastening part and the leg is formed with a locking part to be engaged with the fastening part, and wherein the removable part of the leg and the elastic hinge are assembled together; the elastic buckle comprising: a first elastic plate; a second elastic plate which is parallel to the first elastic plate; a backpart which is collected together and shaped as a unibody from the first elastic plate and the second elastic plate; the cavity being formed between the first elastic plate and the second elastic plate; a slot opened along the centre line at the backpart of the cavity of the elastic buckle, which is configured for the groove of the single-tooth frame to be inserted thereto and being communicated with the cavity; a cantilever vertically protruded from the second elastic plate towards the opening of the cavity, being inserted in the rectangle through-hole of the single-tooth frame for positioning the core pin; the fastening part protruding outward from the first elastic plate near its opening end; and a L-type male fasterner molded by the end of the fastening part, being resisted against a female fastener at the opening end of leg housing. a double-tooth of hinge; a screw; a spring core assembly; and a leg; a first elastic plate; a second elastic plate which is parallel to the first elastic plate; a backpart which is collected together and shaped as a unibody from the first elastic plate and the second elastic plate; the cavity being formed between the first elastic plate and the second elastic plate; a slot opened along the centre line at the backpart of the cavity of the elastic buckle, which is configured for the groove of the single-tooth frame to be inserted thereto and being communicated with the cavity; a cantilever vertically protruded from the second elastic plate towards the opening of the cavity, being inserted in the rectangle through-hole of the single-tooth frame for positioning the core pin; the fastening part protruding outward from the first elastic plate near its opening end; and a L-type male fasterner molded by the end of the fastening part, being resisted against a female fastener at the opening end of leg housing.
A signal transmission processing method, comprising: obtaining at least one channel of Common Public Radio Interface, CPRI, signals, that are sent by one of a Base Band Unit, BBU, and a Remote Radio Unit, RRU, of the distributed base station; characterized by further comprising: performing optical transport network, OTN, electrical layer multiplexing for the obtained at least one channel of CPRI signals by encapsulating the obtained at least one channel of CPRI signals into OTN signal frames that are optical transport unit x, OTUx, signal frames, wherein the x equals to at least one of 1, 2, 3 and 4 that represent different transmission capacities, and wherein the OTUx signal frames' containers are selected according to a rate of the obtained at least one channel of CPRI signals; and performing electro-optic conversion for the signals obtained through the OTN electrical layer multiplexing to generate a channel of optical signals and transmitting the optical signals. obtaining at least one channel of Common Public Radio Interface, CPRI, signals, that are sent by one of a Base Band Unit, BBU, and a Remote Radio Unit, RRU, of the distributed base station; characterized by further comprising: performing optical transport network, OTN, electrical layer multiplexing for the obtained at least one channel of CPRI signals by encapsulating the obtained at least one channel of CPRI signals into OTN signal frames that are optical transport unit x, OTUx, signal frames, wherein the x equals to at least one of 1, 2, 3 and 4 that represent different transmission capacities, and wherein the OTUx signal frames' containers are selected according to a rate of the obtained at least one channel of CPRI signals; and performing electro-optic conversion for the signals obtained through the OTN electrical layer multiplexing to generate a channel of optical signals and transmitting the optical signals.
Method for determining qualitatively and quantitatively the presence of an anticoagulant in a sample using prothrombinase-induced clotting time (PiCT), wherein the presence of anticoagulants in the sample dose-dependently prolongs the time to clot, said method comprising: the use of standard PiCT comprising adding to the sample a defined amount of PiCT activator, incubation at 37°C for specific period of time, adding the start reagent, and measuring the time to clot in said reaction mixture; the use of an adapted version such as inverted PiCT comprising adding to the sample the start reagent, incubation at 37°C for a specific period of time, adding a defined amount of PiCT activator, and measuring the time to clot in said reaction mixture; the use of reference ranges which are adapted to the detection system and the testing method, wherein the reference ranges are compared with the clotting times in the reaction mixture and wherein clotting times out of range in the reaction mixture indicate the presence of anticoagulants; and confirmation of the clotting times in the reaction mixture using activated partial thrombin time (aPTT) and prothrombin time to identify the nature of the anticoagulant; wherein the sample is selected from blood or plasma and the anticoagulants are selected from direct or indirect FIIa or FXa anticoagulants. the use of standard PiCT comprising adding to the sample a defined amount of PiCT activator, incubation at 37°C for specific period of time, adding the start reagent, and measuring the time to clot in said reaction mixture; the use of an adapted version such as inverted PiCT comprising adding to the sample the start reagent, incubation at 37°C for a specific period of time, adding a defined amount of PiCT activator, and measuring the time to clot in said reaction mixture; the use of reference ranges which are adapted to the detection system and the testing method, wherein the reference ranges are compared with the clotting times in the reaction mixture and wherein clotting times out of range in the reaction mixture indicate the presence of anticoagulants; and confirmation of the clotting times in the reaction mixture using activated partial thrombin time (aPTT) and prothrombin time to identify the nature of the anticoagulant;
Sealing inner sleeve for insertion in pipes in order to seal leakage points therein, with an expandable strip bent into a ring and preferably made of sheet steel, the strip parts of which overlap at least partially in the circumferential direction, and with a locking device which allows an increase in diameter of the sealing inner sleeve but blocks it in the opposite direction, wherein the sealing inner sleeve has two end portions (14, 15) and an intermediate portion connecting these together into a cohesive component, and wherein a plurality of longitudinal slots are arranged in the intermediate portion spaced apart from each other in the circumferential direction and separated from each other by longitudinal webs, wherein the longitudinal slots (30, 130) and longitudinal webs (40, 140) are arranged on the circumference of the sealing inner sleeve with a predefined angular offset obliquely to a centre axis of the sealing inner sleeve, wherein a first group of longitudinal slots and longitudinal webs is provided with an angular offset in a range from around 5° to 20°, and at least one second group of longitudinal slots and longitudinal webs is provided with an angular offset to the central axis in a range from around greater than 45° to less than 90°.
Method for testing a mechanical connection of a heatsink retention part of a heat sink assembly, having a heatsink and at least one component which needs to be cooled, with a printed circuit board, comprising the steps a) providing, in or on the printed circuit board, a first electrical contact and a second electrical contact, with which the heatsink retention part can be linked, b) providing an evaluation unit with a voltage output, which is connected to the first electrical contact, and with an analogue or digital input, which is connected to the second electrical contact, c) generating a first pulsed output voltage signal at the voltage output, said signal having at least one flank change, d) testing, whether the electrical voltage at the analogue or digital input has the at least one flank change of the first pulsed output voltage signal, e) generating a second pulsed output voltage signal at the voltage output, said signal having at least one flank change, which is different from the flank change of the first pulsed output voltage signal, f) testing, whether the electrical voltage at the analogue or digital input comprises the at least one flank change of the second pulsed output voltage signal. a) providing, in or on the printed circuit board, a first electrical contact and a second electrical contact, with which the heatsink retention part can be linked, b) providing an evaluation unit with a voltage output, which is connected to the first electrical contact, and with an analogue or digital input, which is connected to the second electrical contact, c) generating a first pulsed output voltage signal at the voltage output, said signal having at least one flank change, d) testing, whether the electrical voltage at the analogue or digital input has the at least one flank change of the first pulsed output voltage signal, e) generating a second pulsed output voltage signal at the voltage output, said signal having at least one flank change, which is different from the flank change of the first pulsed output voltage signal, f) testing, whether the electrical voltage at the analogue or digital input comprises the at least one flank change of the second pulsed output voltage signal.