mhurhangee/ep-ind-claims huggingface dataset:
A processor implemented method for enabling network aware applications and applications aware networks by a sense analyze decide respond, SADR, framework deployed using a middle layer placed between a network and an application, comprising: sensing, via one or more hardware processors, signals pertaining to at least one application parameter and at least one network parameter to obtain a plurality of sensed information, wherein the plurality of sensed information is a multi-time scaled data set obtained for the application; analyzing, via the one or more hardware processors, the plurality of sensed information to generate a plurality of derived parameters, wherein the derived parameters corresponds to statistics of the at least one application parameter, the at least one network parameter and tuned parameter of a protocol; determining, via the one or more hardware processors, a plurality of rules based on the plurality of derived parameters; validating, via the one or more hardware processors, the plurality of rules to obtain a plurality of decisions, wherein the plurality of decisions are made based on application requirement and network behavior using artificial intelligence based modules and wherein the validation is performed by an emulator based testing, wherein the sensed information and synthetic data generated by emulation are used for making the plurality of decisions; and provisioning, via the one or more hardware processors, at least one of (i) thenetwork, (ii) the application and (iii) the protocol based on the plurality of decisions. sensing, via one or more hardware processors, signals pertaining to at least one application parameter and at least one network parameter to obtain a plurality of sensed information, wherein the plurality of sensed information is a multi-time scaled data set obtained for the application; analyzing, via the one or more hardware processors, the plurality of sensed information to generate a plurality of derived parameters, wherein the derived parameters corresponds to statistics of the at least one application parameter, the at least one network parameter and tuned parameter of a protocol; determining, via the one or more hardware processors, a plurality of rules based on the plurality of derived parameters; validating, via the one or more hardware processors, the plurality of rules to obtain a plurality of decisions, wherein the plurality of decisions are made based on application requirement and network behavior using artificial intelligence based modules and wherein the validation is performed by an emulator based testing, wherein the sensed information and synthetic data generated by emulation are used for making the plurality of decisions; and provisioning, via the one or more hardware processors, at least one of (i) thenetwork, (ii) the application and (iii) the protocol based on the plurality of decisions.
A multi-voltage on-board power supply system for a motor vehicle having a hybrid or electric drive, comprising a DC-DC converter (DCDC), by means of which a high-voltage level having a higher DC voltage different from ground and at least one first energy storage device is connected to a low-voltage level having a lower voltage different from ground and at least one second energy storage device, characterised in that the multi-voltage on-board power supply system comprises a charging interface for charging external devices, in that at least one converter phase of the DC-DC voltage converter can be separated from the low-voltage level and can be connected instead to the charging interface, in that a third energy storage device can be plugged into the charging interface in order to supply the third energy storage device, in the plugged state, with the lower voltage and so as to enable a charging of the third energy storage device by energy flow from the first energy storage device to the third energy storage device.
An arrangement for influencing magnetic particles in a region of action, which arrangement has: a) means for generating a magnetic field having a pattern in space of its magnetic field strength such that a first sub-zone having a low magnetic field strength and a second sub-zone having a higher magnetic field strength are formed in the region of action, b) means for changing the position in space of the two sub-zones in the region of action so that the magnetization of the particles changes locally, c) means for acquiring signals, which signals depend on the magnetization in the region of action, which magnetization is influenced by the change in the position in space, d) an analyzing unit for obtaining information, from the signals, on the magnetic particles in the region of action, e) a control unit for controlling the means in such a way that - in a first mode of operation, the position of the two sub-zones is changed, the signals resulting therefrom are acquired, and information on the spatial distribution of the magnetic particles in the region of action is determined from the signals, - in a second mode of operation, the position in space of the two sub-zones is changed for so long, and at a frequency such, that a region, which has been selected for heating-up and is at least part of the region of action, is thereby heated up. a) means for generating a magnetic field having a pattern in space of its magnetic field strength such that a first sub-zone having a low magnetic field strength and a second sub-zone having a higher magnetic field strength are formed in the region of action, b) means for changing the position in space of the two sub-zones in the region of action so that the magnetization of the particles changes locally, c) means for acquiring signals, which signals depend on the magnetization in the region of action, which magnetization is influenced by the change in the position in space, d) an analyzing unit for obtaining information, from the signals, on the magnetic particles in the region of action, e) a control unit for controlling the means in such a way that - in a first mode of operation, the position of the two sub-zones is changed, the signals resulting therefrom are acquired, and information on the spatial distribution of the magnetic particles in the region of action is determined from the signals, - in a second mode of operation, the position in space of the two sub-zones is changed for so long, and at a frequency such, that a region, which has been selected for heating-up and is at least part of the region of action, is thereby heated up. - in a first mode of operation, the position of the two sub-zones is changed, the signals resulting therefrom are acquired, and information on the spatial distribution of the magnetic particles in the region of action is determined from the signals, - in a second mode of operation, the position in space of the two sub-zones is changed for so long, and at a frequency such, that a region, which has been selected for heating-up and is at least part of the region of action, is thereby heated up.
A bioreactor system, comprising: a. at least one first cell module defining a first cell culture chamber, an inlet, an outlet, and a port opening, wherein the port opening is on one end of the cell culture chamber; b. at least one second cell module defining a second cell culture chamber, an inlet, an outlet, and a port opening, wherein the port opening is on one end of the cell culture chamber; and c. a membrane positioned between the open port of said first cell module and the open port of said second cell module, wherein the first cell module and second cell module are sealingly engaged by securing the membrane between the first and second module, and wherein the cell modules comprises an engagement means that can be engaged using a press and twisting motion, the engagement means comprising a male compression fitting comprising an indentation that when aligned with a raised portion of a female fitting forms a lock. a. at least one first cell module defining a first cell culture chamber, an inlet, an outlet, and a port opening, wherein the port opening is on one end of the cell culture chamber; b. at least one second cell module defining a second cell culture chamber, an inlet, an outlet, and a port opening, wherein the port opening is on one end of the cell culture chamber; and c. a membrane positioned between the open port of said first cell module and the open port of said second cell module,
A Non-Volatile Memory Express, abbreviated NVMe, data reading/writing method, wherein a device performing the method comprises an NVMe device, and the NVMe device comprises a solid state drive, abbreviated SSD, controller, a memory, a transceiver, a submission queue, abbreviated SQ, cache, and a completion queue, abbreviated CQ, cache, wherein an SQ control module configured to manage an SQ and a CQ control module configured to manage a CQ are disposed in the SSD controller, the SQ cache is configured to store the SQ, the CQ cache is configured to store the CQ, and the method comprises: receiving, by the transceiver, an NVMe command written by a host into the SQ; when detecting that the SQ in the SQ cache changes, sending, by the SQ control module, the NVMe command in the SQ to the SSD controller; executing, by the SSD controller, the NVMe command, and writing a generated NVMe command response into the CQ by using the CQ control module; and instructing, by the SSD controller by triggering an interrupt, the host to read the NVMe command response in the CQ. receiving, by the transceiver, an NVMe command written by a host into the SQ; when detecting that the SQ in the SQ cache changes, sending, by the SQ control module, the NVMe command in the SQ to the SSD controller; executing, by the SSD controller, the NVMe command, and writing a generated NVMe command response into the CQ by using the CQ control module; and instructing, by the SSD controller by triggering an interrupt, the host to read the NVMe command response in the CQ.
A switch assembly, comprising: a wireless switch, comprising: a control switch; a wireless transmitter, connected with the control switch for transmitting a corresponding control signal according to an instruction from the control switch; a first identification card, pluggably mounted in the wireless switch and connected with the wireless transmitter; and a wireless receiver, connected with a controller of a controlled component, communicating with the wireless switch via a RF signal or an optical signal, and having a second identification card pluggably mounted in the wireless receiver, wherein corresponding identity codes are set in the first identification card and the second identification card respectively, the wireless receiver is configured to first determine whether an identity code carried by the control signal matches an identity code set in the second identification card after receiving the control signal from the wireless switch, and only when the identity code carried by the control signal matches the identity code set in the second identification card, the wireless receiver feeds the control signal to the controller and the controller controls the controlled component according to the control signal. a wireless switch, comprising: a control switch; a wireless transmitter, connected with the control switch for transmitting a corresponding control signal according to an instruction from the control switch; a first identification card, pluggably mounted in the wireless switch and connected with the wireless transmitter; and a control switch; a wireless transmitter, connected with the control switch for transmitting a corresponding control signal according to an instruction from the control switch; a first identification card, pluggably mounted in the wireless switch and connected with the wireless transmitter; and a wireless receiver, connected with a controller of a controlled component, communicating with the wireless switch via a RF signal or an optical signal, and having a second identification card pluggably mounted in the wireless receiver, wherein corresponding identity codes are set in the first identification card and the second identification card respectively, the wireless receiver is configured to first determine whether an identity code carried by the control signal matches an identity code set in the second identification card after receiving the control signal from the wireless switch, and only when the identity code carried by the control signal matches the identity code set in the second identification card, the wireless receiver feeds the control signal to the controller and the controller controls the controlled component according to the control signal.
Radar sensor for driver assistance systems in motor vehicles, having a transmitting and receiving device with a plurality of transmitting and receiving channels (16a, 16b) for transmitting and receiving radar signals, an electronic evaluation device for evaluating the received signals, an electronic control device for controlling operating functions of the radar sensor, a self-monitoring device (22, 24, 26) for detecting operating parameters of the radar sensor, wherein one of the detected operating parameters is the amplitude difference, measured using amplitude measuring circuits, or the phase difference, measured using phase measuring circuits, between the signals transmitted on two of the transmitting and receiving channels, and for comparing the detected operating parameters with respective target values, an actuating device for changing at least one of the detected operating parameters, and a control loop for controlling this operating parameter to its target value, characterized in that the self-monitoring device (22, 24, 26) is designed to supply a test signal to the receiving channels for the purpose of calibrating the amplitude or phase measuring circuits (46, 52), with the result that the detected operating parameter is controlled to its target value.
A pressure sensor including a circuit, comprising: a membrane having a sensitivity of less than 4.0 mV/V/1"H 2 O, (approximately 16mV/V/ kPa) wherein mV/V/1"H 2 O means the change in output voltage per unit of supply voltage per inch (1") of hydraulic pressure (H 2 O), wherein unit of the supply voltage is V and unit of the output voltage is mV; two or more sense elements on the membrane connected in a bridge configuration to form a sense bridge, wherein the sense bridge has an output; an amplifier having an input coupled to the output of the sense bridge, the amplifier also having an output wherein the output of the amplifier has a span that is greater than two times the sensitivity wherein in addition to sense bridge, a second bridge or trim bridge is applied to circuit, for trimming sense bridge. a membrane having a sensitivity of less than 4.0 mV/V/1"H 2 O, (approximately 16mV/V/ kPa) wherein mV/V/1"H 2 O means the change in output voltage per unit of supply voltage per inch (1") of hydraulic pressure (H 2 O), wherein unit of the supply voltage is V and unit of the output voltage is mV; two or more sense elements on the membrane connected in a bridge configuration to form a sense bridge, wherein the sense bridge has an output; an amplifier having an input coupled to the output of the sense bridge, the amplifier also having an output wherein the output of the amplifier has a span that is greater than two times the sensitivity wherein in addition to sense bridge, a second bridge or trim bridge is applied to circuit, for trimming sense bridge.
Method for burning a methanol-oxygen mixture in a submarine and intended for heating a methanol reformer located in the submarine, in which a sub-stoichiometric methanol-oxygen mixture is fed to a first catalyst and is catalytically burnt in the catalyst, with excess methanol being converted into a product gas containing carbon monoxide and hydrogen and the product gas being fed to at least one further catalyst (2b, 2c, 2d, 2e, 2f) where it is burnt with introduction of oxygen and the combustion proceeding substoichiometrically in a plurality of catalysts (2a, 2b, 2c, 2d, 2e) arranged in series and stoichiometrically in a last catalyst and the offgas from the last catalyst being released into seawater for dissolution, characterized in that the first catalyst and thus the methanol-oxygen mixture present therein is electrically heated until the temperature required for triggering the oxidation process has been reached and the amount of oxygen fed to a further catalyst (2b, 2c, 2d, 2e) is set on the basis of the temperature of the product gas on the exit side of the catalyst (2b, 2c, 2d, 2e).
An electrochemical device comprising: a first conductive connection member; a second conductive connection member different from the first conductive connection member; and a bonding layer for bonding and electrically connecting the first conductive connection member to the second conductive connection member, characterized in that the bonding layer contains a transition metal oxide having a spinel-type crystal structure, and the first conductive connection member includes an outer layer which is bonded to the bonding layer and which has a manganese-containing perovskite structure. a first conductive connection member; a second conductive connection member different from the first conductive connection member; and a bonding layer for bonding and electrically connecting the first conductive connection member to the second conductive connection member, characterized in that the bonding layer contains a transition metal oxide having a spinel-type crystal structure, and the first conductive connection member includes an outer layer which is bonded to the bonding layer and which has a manganese-containing perovskite structure.
A carbon dioxide gas sensor comprising an insulating substrate (3, 13) and a gas sensing layer (1, 11) formed on one major surface of the insulating substrate (3, 13) so as to partially cover electrodes (2, 12a) provided on the same major surface of the insulating substrate (3, 13), wherein the gas sensing layer (1, 11) comprises: one rare earth metal oxycarbonate represented by Ln 2 O 2 CO 3, wherein Ln is La, and wherein at least 95% of the rare earth metal oxycarbonate has hexagonal crystal structure.
A device for the disassembly of smokers' articles, where the smokers' articles extend along a central axis, the device comprising: feeding means configured to move the smokers' articles along a feed path; cutting means operating along the feed path and configured to make at least one incision on each smokers' article, where the incision defines a separating line between a first half-part and a second half-part of the smokers' article; separating means operatively located downstream of the cutting means along the feed path and configured to separate the first half-part from the second half-part of the smokers' article; characterized in that said separating means comprise at least a first gripping means and a second gripping means located opposite each other and each being configured to receive the first half-part or the second half-part of the smokers' article, respectively, and to move them away from each other; wherein each gripping means (10a, 10b) comprises a first disc and a second disc facing each other and rotatable about respective axes of rotation (R1, R2) inclined to each other in such a way that in a gripping zone, proximal to the feed path, the edges (11a, 12a) of the discs (11, 12) are close to each other so as to apply a gripping action on one side of the respective first half-part or second half-part. feeding means configured to move the smokers' articles along a feed path; cutting means operating along the feed path and configured to make at least one incision on each smokers' article, where the incision defines a separating line between a first half-part and a second half-part of the smokers' article; separating means operatively located downstream of the cutting means along the feed path and configured to separate the first half-part from the second half-part of the smokers' article; characterized in that said separating means comprise at least a first gripping means and a second gripping means located opposite each other and each being configured to receive the first half-part or the second half-part of the smokers' article, respectively, and to move them away from each other; wherein each gripping means (10a, 10b) comprises a first disc and a second disc facing each other and rotatable about respective axes of rotation (R1, R2) inclined to each other in such a way that in a gripping zone, proximal to the feed path, the edges (11a, 12a) of the discs (11, 12) are close to each other so as to apply a gripping action on one side of the respective first half-part or second half-part.
Articulated cell for an inflatable mattress, comprising a static portion not directly fed by an inflation and deflation system, and a dynamic portion directly fed by the inflation and deflation system, wherein said dynamic portion comprises a main body having a first volume, said main body being connected to the inflation and deflation system; wherein a cavity having a second predetermined volume is formed inside said main body, so that said dynamic portion comprises a main chamber having a third volume, said first volume being the sum of the second volume and third volume; wherein the cavity is a through cavity and is open towards the ambient outside the cell so that the cavity has a pressure equal to the atmospheric pressure or to the pressure of the ambient outside the cell; characterized by the fact that the dynamic portion and the static portion are connected to each other through a non-return valve, said non-return valve allowing the passage of air from the dynamic portion to the static portion.
A skeletal muscle periangioblast cell population characterized by expressing the following marker phenotype: CD31 -, CD34 -, CD45 -, CD62L -, CD106 -, CD117 -, CD133 -, CD146 +, CD49b +, CD13 + and CD44 + wherein CD13 and CD44 are expressed at high level.