mhurhangee/ep-ind-claims huggingface dataset:
A system for controlling the dispensing of fuel comprising at least one dispensing assembly, at least one mobile processing device operated by a respective driver user, and a central remote processing device, said at least one dispensing assembly and said at least one mobile processing device being mutually connectable by means of a short-range wireless communication network, said at least one mobile processing device and said central remote device being mutually connectable by means of a telematic communication network, characterized in that said at least one mobile processing device comprises: - mobile storage means configured to store a list of driver users who are registered and authorized at said at least one dispensing assembly; and - an authorization verification module configured to enable the dispensing of fuel as a consequence of the connection between said at least one mobile processing device and said at least one dispensing assembly, by virtue of respective short-range wireless communication modules (26, 36), if said driver user is included in said list of driver users registered and authorized at said dispensing assembly wherein said enabling of the dispensing of fuel performed by said authorization verification module comprises the sending of a dispensing start command from said at least one mobile processing device toward said at least one dispensing assembly via said short-range wireless communication network. - mobile storage means configured to store a list of driver users who are registered and authorized at said at least one dispensing assembly; and - an authorization verification module configured to enable the dispensing of fuel as a consequence of the connection between said at least one mobile processing device and said at least one dispensing assembly, by virtue of respective short-range wireless communication modules (26, 36), if said driver user is included in said list of driver users registered and authorized at said dispensing assembly wherein said enabling of the dispensing of fuel performed by said authorization verification module comprises the sending of a dispensing start command from said at least one mobile processing device toward said at least one dispensing assembly via said short-range wireless communication network.
A method for routing a data packet toward a destination end point over a virtual network, VN, pre-configured on a network, performed by a virtual router, v-router, associated with a VN node of the VN, the VN node being associated with a particular physical network node, NN, of the network, wherein the method comprises: • receiving a data packet associated with the VN and specifying a name identifier of the destination end point (step 210); • obtaining a location corresponding to the name identifier (step 215), wherein the obtaining the location comprises a transmission of a location resolution request including the name identifier to a connection management entity operative on the VN, and receiving a location resolution response including the location, wherein the location resolution request is transmitted after checking an end point routing table to obtain the location corresponding to the name identifier and determining that at least one of the name identifier or the location is not available in the end point routing table; • obtaining an indication of a destination VN node corresponding to the obtained location (step 220); • obtaining an indication of a next VN node on a pre-configured path between the virtual router and the destination VN node (step 225); • inserting the indication of the next VN node into the data packet to produce a routed data packet (step 230); and, • submitting the routed data packet to the associated NN (step 235). • receiving a data packet associated with the VN and specifying a name identifier of the destination end point (step 210); • obtaining a location corresponding to the name identifier (step 215), wherein the obtaining the location comprises a transmission of a location resolution request including the name identifier to a connection management entity operative on the VN, and receiving a location resolution response including the location, wherein the location resolution request is transmitted after checking an end point routing table to obtain the location corresponding to the name identifier and determining that at least one of the name identifier or the location is not available in the end point routing table; • obtaining an indication of a destination VN node corresponding to the obtained location (step 220); • obtaining an indication of a next VN node on a pre-configured path between the virtual router and the destination VN node (step 225); • inserting the indication of the next VN node into the data packet to produce a routed data packet (step 230); and, • submitting the routed data packet to the associated NN (step 235).
A process for increasing the hydrophobicity of a porous product by treating the product, or a composition providing for the product, with a water repellent material, characterised in that the porous product or a composition providing the product is treated with an aqueous suspension of microcapsules where the microcapsules comprise a water repellent organosilicon core material selected from the group consisting of an organosilane, a partially condensed organosilane, and a branched siloxane resin, and a shell of a silicon-based network polymer comprising silica units wherein the product is selected from the group consisting of cementitious substrates, cementitious compositions, clay-based bricks, clay-based compositions, gypsum-based substrates, lime-based substrates, and wood-based substrates.
A UTP cable assembly, comprising; at least two UTP cables (C1, C2, C3, C4), in each of which wire pairs (P1 to P4, P5 to P8, P9 to P12, P 13 to P16), each having two insulator-coated wires (100, 101) twisted in a spiral manner, are aggregated in a sheath; and a web member interposed between the UTP cables (C1, C2, C3, C4) to interconnect the adjacent UTP cables (C1, C2, C3, C4) and keep a space between the adjacent UTP cables (C1, C2, C3, C4), characterized in that: the web member has a width of 0.2 mm to 2.0 mm, and among the wire pairs arranged at corresponding positions in the UTP cables, at least one wire pair has different pitch values. the web member has a width of 0.2 mm to 2.0 mm, and among the wire pairs arranged at corresponding positions in the UTP cables, at least one wire pair has different pitch values.
Method for the encryption of plain data, wherein the plain data is mixed with a key (Code$) to form encoded data, characterized in that the method comprises the following steps: a) providing a main key (Mutter$), b) generating a random session key (ZZ$), c) generating an auxiliary key (Code$) from the main key (Mutter$) and the session key (ZZ$), wherein the main key (Mutter$) is split into two parts and the parts are mixed, wherein one part contains only characters or bit strings contained in the session key (ZZ$), and the other part contains only characters or bit strings not contained in the session key (ZZ$), or generating an auxiliary key (Code$) from the main key (Mutter$) and the session key (ZZ$), wherein prior to the generation of the auxiliary key (Code$) one or multiple working keys (A$ I, A$ II) are generated from the main key (Mutter$), wherein one of the keys from the group including the main key (Mutter$) and the working keys (A$1, A$II) is split into two parts and the parts are mixed, wherein one part contains only characters or bit strings contained in the session key (ZZ$), and the other part contains only characters or bit strings not contained in the session key (ZZ$), d) mixing the auxiliary key (Code$) and the plain data to form the encoded data, and e) forming a cyphertext from the encoded data and the session key (ZZ$), wherein the cyphertext includes information about the session key (ZZ$), so that the cyphertext can be decrypted into the plain data using the main key (Mutter$). a) providing a main key (Mutter$), b) generating a random session key (ZZ$), c) generating an auxiliary key (Code$) from the main key (Mutter$) and the session key (ZZ$), wherein the main key (Mutter$) is split into two parts and the parts are mixed, wherein one part contains only characters or bit strings contained in the session key (ZZ$), and the other part contains only characters or bit strings not contained in the session key (ZZ$), or generating an auxiliary key (Code$) from the main key (Mutter$) and the session key (ZZ$), wherein prior to the generation of the auxiliary key (Code$) one or multiple working keys (A$ I, A$ II) are generated from the main key (Mutter$), wherein one of the keys from the group including the main key (Mutter$) and the working keys (A$1, A$II) is split into two parts and the parts are mixed, wherein one part contains only characters or bit strings contained in the session key (ZZ$), and the other part contains only characters or bit strings not contained in the session key (ZZ$), d) mixing the auxiliary key (Code$) and the plain data to form the encoded data, and e) forming a cyphertext from the encoded data and the session key (ZZ$), wherein the cyphertext includes information about the session key (ZZ$), so that the cyphertext can be decrypted into the plain data using the main key (Mutter$).
A composite body, comprising at least two styrene polymer foam boards and a hot-melt adhesive composition therebetween, optionally cross-linked, characterized in that the hot-melt adhesive composition comprises at least a thermoplastic, silane-grafted poly-α-olefin, which is solid at 25°C, and which optionally was subsequently cross-linked.
A UV-protective composition comprising one or more Lanthanum-Modified Bismuth Titanate crystals each independently having the chemical formula Bi (4-x) La (x) Ti (3-y) Fe (y) O 12 as an ultraviolet-absorbing agent, wherein x is between 0.1 and 1.5; and wherein y is between >0 and 2, wherein the BLT crystals are in the form of nanoparticles consisting of one or more said crystals, at least 50% of the total number of said nanoparticles having at least one dimension of up to 200 nm.
A computer-implemented method comprising: initializing a communication link associated with data transfer to a connected state between participants associated with the communication link, wherein initializing the communication link further comprises associating the communication link with a first Input/Output, IO, completion port; re-initializing the communication link to a general state and retain the connected state between at least some participants associated with the communication link, said method being characterised by re-initializing the communication link to a general state further comprises disassociating the communication link with the first IO completion port; and transferring the communication link in the connected state to at least one other participant for use. initializing a communication link associated with data transfer to a connected state between participants associated with the communication link, wherein initializing the communication link further comprises associating the communication link with a first Input/Output, IO, completion port; re-initializing the communication link to a general state and retain the connected state between at least some participants associated with the communication link, said method being characterised by re-initializing the communication link to a general state further comprises disassociating the communication link with the first IO completion port; and transferring the communication link in the connected state to at least one other participant for use.
Emergency power supply unit for operating an emergency lighting means, preferably comprising at least one LED; wherein the emergency power supply unit comprises: - an energy storage unit, preferably a rechargeable battery; - a charging unit comprising a first actively switched converter with at least a first switch and at least a first energy storage, wherein the first actively switched converter is configured to charge the energy storage unit with electrical energy from an external electrical energy source; - a driving unit comprising a second actively switched converter with at least a second switch and at least a second energy storage, wherein the second actively switched converter is configured to supply the emergency lighting means with electrical energy from the energy storage unit; and - a control unit configured to operate - the first actively switched converter based on feedback information fed back from the first actively switched converter and - the second actively switched converter based on feedback information fed back from the second actively switched converter; characterized in that - the control unit is configured to receive via a single first pin the feedback information fed back from the first actively switched converter and the feedback information fed back from the second actively switched converter. - an energy storage unit, preferably a rechargeable battery; - a charging unit comprising a first actively switched converter with at least a first switch and at least a first energy storage, wherein the first actively switched converter is configured to charge the energy storage unit with electrical energy from an external electrical energy source; - a driving unit comprising a second actively switched converter with at least a second switch and at least a second energy storage, wherein the second actively switched converter is configured to supply the emergency lighting means with electrical energy from the energy storage unit; and - a control unit configured to operate - the first actively switched converter based on feedback information fed back from the first actively switched converter and - the second actively switched converter based on feedback information fed back from the second actively switched converter; characterized in that - the first actively switched converter based on feedback information fed back from the first actively switched converter and - the second actively switched converter based on feedback information fed back from the second actively switched converter; - the control unit is configured to receive via a single first pin the feedback information fed back from the first actively switched converter and the feedback information fed back from the second actively switched converter.
A steering control device configured to control a steering system including a turning actuator that turns steered wheels of a vehicle, the steering system assisting turning of the steered wheels in accordance with steering of a steering wheel, the turning actuator including a motor, the steering control device comprising: a command value setting processing portion configured to set a current command value (iq0*) based on a detection value of steering torque (Trq); a feedback processing portion configured to control a voltage applied to the motor so as to control through feedback a current (iq) flowing through the motor to the current command value (iq*), based on an output value of an integral element obtained by using, as an input, a difference between the current (iq) flowing through the motor and the current command value (iq*); an end determination processing portion configured to determine whether a turning angle of the steered wheels has reached a limit angle determined by a structure of the steering system; and an end-time limit processing portion configured to perform correction to increase a magnitude of the difference between the current (iq) flowing through the motor and the current command value (iq*), when the end determination processing portion determines that the turning angle has reached the limit angle, the difference between the current (iq) flowing through the motor and the current command value (iq*) being input to the feedback processing portion; characterized in that the end-time limit processing portion configured to perform the correction based on a degree of a decrease in a magnitude of a rotational speed of the motor. a command value setting processing portion configured to set a current command value (iq0*) based on a detection value of steering torque (Trq); a feedback processing portion configured to control a voltage applied to the motor so as to control through feedback a current (iq) flowing through the motor to the current command value (iq*), based on an output value of an integral element obtained by using, as an input, a difference between the current (iq) flowing through the motor and the current command value (iq*); an end determination processing portion configured to determine whether a turning angle of the steered wheels has reached a limit angle determined by a structure of the steering system; and an end-time limit processing portion configured to perform correction to increase a magnitude of the difference between the current (iq) flowing through the motor and the current command value (iq*), when the end determination processing portion determines that the turning angle has reached the limit angle, the difference between the current (iq) flowing through the motor and the current command value (iq*) being input to the feedback processing portion; characterized in that the end-time limit processing portion configured to perform the correction based on a degree of a decrease in a magnitude of a rotational speed of the motor.
Headphones to enable active noise cancellation, comprising: left and right speakers (12, 14) contained in left and right speaker housings; at least one microphone (16, 212) in the left speaker housing and at least one microphone (18, 214) in the right speaker housing, each microphone (16, 18, 212, 214) producing a respective microphone signal; an analog multiplexer for multiplexing the respective microphone signals into a combined signal, wherein the analog multiplexer comprises a frequency-domain multiplexer, wherein the frequency-domain multiplexer includes a phase-locked loop (302, 306) to receive an input frequency and to produce a mixing signal at a set frequency, and a voltage-controlled oscillator (304, 308) to receive one of the respective microphone signals and to frequency-modulate said one of the respective microphone signals on a carrier at the set frequency, wherein the set frequency is in the range of 1 to 4 MHz; and a multi-wire cord having a ground wire, a left speaker signal wire coupled to the left speaker, a right speaker signal wire coupled to the right speaker, and a microphone output wire coupled to the analog multiplexer to receive the combined signal, wherein the multi-wire cord terminates in an audio plug, and wherein the input frequency received at the phase-locked loop (302, 306) is supplied from the left speaker signal wire or the right speaker signal wire. left and right speakers (12, 14) contained in left and right speaker housings; at least one microphone (16, 212) in the left speaker housing and at least one microphone (18, 214) in the right speaker housing, each microphone (16, 18, 212, 214) producing a respective microphone signal; an analog multiplexer for multiplexing the respective microphone signals into a combined signal, wherein the analog multiplexer comprises a frequency-domain multiplexer, wherein the frequency-domain multiplexer includes a phase-locked loop (302, 306) to receive an input frequency and to produce a mixing signal at a set frequency, and a voltage-controlled oscillator (304, 308) to receive one of the respective microphone signals and to frequency-modulate said one of the respective microphone signals on a carrier at the set frequency, wherein the set frequency is in the range of 1 to 4 MHz; and a multi-wire cord having a ground wire, a left speaker signal wire coupled to the left speaker, a right speaker signal wire coupled to the right speaker, and a microphone output wire coupled to the analog multiplexer to receive the combined signal, wherein the multi-wire cord terminates in an audio plug, and wherein the input frequency received at the phase-locked loop (302, 306) is supplied from the left speaker signal wire or the right speaker signal wire.
A method for reducing a noise influence in a sensor measurement system, comprising: performing digital conversion measurements of a signal provided by a capacitive touch sensor wherein the signal represents a capacitance of the capacitive touch sensor, detecting that the signal provided by the capacitive sensor is affected by noise, wherein detecting that the signal provided by the capacitive sensor is affected by noise comprises performing noise scans on the signal, wherein a noise scan comprises subsequent sets of a plurality of capacitance measurements, each set of capacitance measurements providing a mean capacitive value and for each set calculating a difference between its mean capacitive value and a mean capacitive value of a preceding set of capacitive measurements, and summing the differences to form a summed mean difference, identifying whether noise affects the signal based on the summed mean difference, wherein a distinction between destructive and non-destructive noise is made based on a value of the summed mean difference; dynamically modifying sampling times between subsequent capacitance measurements based on the determination whether destructive noise affects the signal. performing digital conversion measurements of a signal provided by a capacitive touch sensor wherein the signal represents a capacitance of the capacitive touch sensor, detecting that the signal provided by the capacitive sensor is affected by noise, wherein detecting that the signal provided by the capacitive sensor is affected by noise comprises performing noise scans on the signal, wherein a noise scan comprises subsequent sets of a plurality of capacitance measurements, each set of capacitance measurements providing a mean capacitive value and for each set calculating a difference between its mean capacitive value and a mean capacitive value of a preceding set of capacitive measurements, and summing the differences to form a summed mean difference, identifying whether noise affects the signal based on the summed mean difference, wherein a distinction between destructive and non-destructive noise is made based on a value of the summed mean difference; dynamically modifying sampling times between subsequent capacitance measurements based on the determination whether destructive noise affects the signal.
Method for post-harvest treating citrus fruit comprising a step of washing citrus fruit, characterized in that said step of washing citrus fruit comprises: a) a step of bringing water into contact with citrus fruit; b) a step of electrolyzing said water which has been brought into contact with citrus fruit; and c) a step of using said electrolyzed water as washing water of the citrus fruit. a) a step of bringing water into contact with citrus fruit; b) a step of electrolyzing said water which has been brought into contact with citrus fruit; and c) a step of using said electrolyzed water as washing water of the citrus fruit.