mhurhangee/ep-ind-claims huggingface dataset:
An aerial system for locking-on to a target object in a target region, the aerial system comprising: a first aircraft equipped with a first radar system and a first communication system, wherein the first radar system comprises a radar transmitter, configured to transmit and receive a radar beam; a second aircraft equipped with a radar reflector and a second communication system, wherein the radar reflector is configured to reflect a radar beam from the radar transmitter to the target region, and wherein the second communication system is configured to communicate bi-directionally with the first communication system; and a user interface operatively coupled with the first communication system, wherein the user interface is configured to receive inputs from a user to control an operation of the second aircraft to reflect the radar beam from the radar transmitter to the target object in the target region, wherein the first aircraft comprises a targeting system to receive location information of the target object from the radar transmitter to achieve a radar lock-on of the target object and, wherein the first aircraft is configured to house the second aircraft and deploy the second aircraft. a first aircraft equipped with a first radar system and a first communication system, wherein the first radar system comprises a radar transmitter, configured to transmit and receive a radar beam; a second aircraft equipped with a radar reflector and a second communication system, wherein the radar reflector is configured to reflect a radar beam from the radar transmitter to the target region, and wherein the second communication system is configured to communicate bi-directionally with the first communication system; and a user interface operatively coupled with the first communication system, wherein the user interface is configured to receive inputs from a user to control an operation of the second aircraft to reflect the radar beam from the radar transmitter to the target object in the target region, wherein the radar reflector is configured to reflect a radar beam from the radar transmitter to the target region, and wherein the second communication system is configured to communicate bi-directionally with the first communication system; and a user interface operatively coupled with the first communication system, wherein the user interface is configured to receive inputs from a user to control an operation of the second aircraft to reflect the radar beam from the radar transmitter to the target object in the target region, wherein the first aircraft comprises a targeting system to receive location information of the target object from the radar transmitter to achieve a radar lock-on of the target object and, wherein the first aircraft is configured to house the second aircraft and deploy the second aircraft.
A method of managing a missed event in an Internet of Things (IoT) environment, the method comprising: determining a sequence of events executed by a user; identifying(S313; S301) a first event among the sequence of events as a critical event; detecting(S315; S302) a missed event among the sequence of events; determining a significance weight of the missed event; and providing a notification indicating non-execution of the missed event during initiation of execution of the first event, based on the significance weight of the missed event. determining a sequence of events executed by a user; identifying(S313; S301) a first event among the sequence of events as a critical event; detecting(S315; S302) a missed event among the sequence of events; determining a significance weight of the missed event; and providing a notification indicating non-execution of the missed event during initiation of execution of the first event, based on the significance weight of the missed event.
Arrangement - having a power converter which has a plurality of electrical parts (5, 7, 9, 11), and - having a housing which surrounds at least one of the parts (9, 11), characterized by - a pressure-increasing device for increasing the pressure of an oxygen-containing gaseous substance in the housing, wherein the gaseous substance has nitrogen and carbon dioxide, wherein the nitrogen concentration is higher than 78% and/or the carbon dioxide concentration is greater than 2%. - having a power converter which has a plurality of electrical parts (5, 7, 9, 11), and - having a housing which surrounds at least one of the parts (9, 11), - a pressure-increasing device for increasing the pressure of an oxygen-containing gaseous substance in the housing, wherein the gaseous substance has nitrogen and carbon dioxide, wherein the nitrogen concentration is higher than 78% and/or the carbon dioxide concentration is greater than 2%.
Meter apparatus for determining parameters of an AC electric signal in first and second wires, the AC electric signal comprising an AC electric current ( I AC) and an AC electric voltage ( V AC), wherein the meter apparatus comprises: a measurement section configured for providing first ( V VS1) and second ( V VS2) measure signals each one indicative of the AC electric voltage ( V AC) based on a first capacitive coupling ( C 1) with the first wire and on a second capacitive coupling ( C 2) with the second wire, the first ( V VS1) and second ( V VS2) measure signals depending on capacitance values of the first ( C 1) and second ( C 2) capacitive couplings, first ( C 1) and second ( C 2) capacitive elements for performing said first and second capacitive couplings, and a control unit configured for: determining said capacitance values of the first ( C 1) and second ( C 2) capacitive couplings according to the first ( V VS1) and second ( V VS2) measure signals, and determining the amplitude of the AC electric voltage ( V AC) according to the first ( V VS1) or second ( V VS2) measure signal, and to the capacitance values of the first ( C 1) and second ( C 2) capacitive couplings, wherein said measurement section further comprises first ( C 3) and second ( C 4) input capacitive elements electrically coupleable to the first ( C 1) and second ( C 2) capacitive elements, respectively, the first ( C 1) and second ( C 2) capacitive elements and, respectively, the first ( C 3) and second ( C 4) input capacitive elements defining, when coupled to each other, an impedance voltage divider ( C 1,C 3; C 2,C 4) for providing said first measure signal ( V VS1) from said AC electric voltage ( V AC), the first measure signal ( V VS1) being in phase with respect to said AC electric voltage ( V AC). a measurement section configured for providing first ( V VS1) and second ( V VS2) measure signals each one indicative of the AC electric voltage ( V AC) based on a first capacitive coupling ( C 1) with the first wire and on a second capacitive coupling ( C 2) with the second wire, the first ( V VS1) and second ( V VS2) measure signals depending on capacitance values of the first ( C 1) and second ( C 2) capacitive couplings, first ( C 1) and second ( C 2) capacitive elements for performing said first and second capacitive couplings, and a control unit configured for: determining said capacitance values of the first ( C 1) and second ( C 2) capacitive couplings according to the first ( V VS1) and second ( V VS2) measure signals, and determining the amplitude of the AC electric voltage ( V AC) according to the first ( V VS1) or second ( V VS2) measure signal, and to the capacitance values of the first ( C 1) and second ( C 2) capacitive couplings, determining said capacitance values of the first ( C 1) and second ( C 2) capacitive couplings according to the first ( V VS1) and second ( V VS2) measure signals, and determining the amplitude of the AC electric voltage ( V AC) according to the first ( V VS1) or second ( V VS2) measure signal, and to the capacitance values of the first ( C 1) and second ( C 2) capacitive couplings,
A heat preservation shell for an analyzer, comprising a cover plate and an enclosure, wherein at least one fluid passage for conveying fluid is embedded in a shell wall of the heat preservation shell, the at least one fluid passage at least comprises a first fluid passage for conveying a fluid and a second fluid passage for conveying another fluid, characterized in that the first fluid passage and the second fluid passage are arranged on different horizontal planes embedded in the cover plate of the heat preservation shell.
A home appliance door, for example a home chiller appliance door, comprising: an inner wall section facing towards a storage space and at least one support unit (14, 15) for support of a door mullion, the support unit (14, 15) being fixated to the inner wall section at least in a form-fit and/or force-fit manner, further comprising the door mullion, wherein the support unit (14, 15) comprises at least one mounting element (32, 33) for mounting the door mullion to the inner wall section, characterized in that the inner wall section is entirely at least substantially flat and that the support unit (14,15) comprises a support element (20, 21) for supporting the door mullion, said support element (20,21) being implemented as a bent piece of sheet metal.
Antimicrobial layer material comprising a layer with a particulate biocidal active ingredient and, on top of that, a plasma-polymeric layer as transport control layer, wherein the transport control layer is depositable or has been deposited in an afterglow PE-CVD method, wherein the substrate is positioned in a parallel plate reactor for a PE-CVD method in such a way that the distance between substrate and plasma electrode is at least thirty times the dark space zone, where the dark space zone is the cathode trap in which the plasma potential drops to the cathode potential.
An ice-cream dispenser machine comprising: a cup-shaped container, which is adapted to contain the handmade ice cream and is provided, on the bottom, with a dispensing nozzle from which the ice cream exits; a piston which is housed in axially sliding manner inside the cup-shaped container; manually-controlled piston displacing means which are adapted to selectively move the piston inside the cup-shaped container in order to push the ice cream out of the container through the dispensing nozzle; an impeller which is located inside the cup-shaped container substantially grazing the bottom of the container, with the capability of rotating about a given rotation axis; and a motor assembly which is adapted to drive into rotation the impeller about said rotation axis; the ice-cream dispenser machine being characterised in that the inlet mouth of a through duct that ends at the dispensing nozzle is located on the bottom of the cup-shaped container at a given distance from the impeller; in that said impeller is provided with at least one radial blade that extends substantially grazing the bottom of the container, up to the inlet mouth of said through duct, thus skimming/grazing said inlet mouth when the impeller is in rotation; in that said blade is dimensioned so as to cover, when arranged over the inlet mouth of the through duct, substantially the whole area of said inlet mouth; and in that the motor assembly is adapted to arrange, when at rest, the impeller so that said blade or one of said blades extends over the inlet mouth of said through duct.
Refrigeration and/or freezer device with at least two compartments for receiving cooled or frozen products and which are divided by one or multiple walls (10, 12, 14, 16), wherein the device comprises adjustment means, by means of which at least one parameter of the air located in the compartments can be adjustment in a manner specific to the compartments, wherein at least one of the walls (10, 12, 14, 16) can be repositioned, so that one common larger compartment is created out of at least two compartments, wherein the adjustment means are configured in such a way that they can be adjusted from the compartment-specific adjustment of the parameter of the air to an adjustment of the parameter of the air in the larger compartment obtained by the repositioning of the wall (10, 12, 14, 16), wherein the device comprises a cooling air channel and each of the compartments is assigned one or more openings or channels, through which cool air from the cooling air channel flows into the compartments, and wherein flaps or other adjustment means are provided in these openings or channels, by means of which the clear cross-section of the opening or of the channel can be altered, wherein the adjustment means are configured in such a way that they have an influence on the position of the flaps or other adjustment means, wherein a sensor is provided, by means of which it can be detected whether a wall (10, 12, 14, 16) is removed, characterized in that the adjustment means are in connection with at least one sensor and are configured in such a way that they autonomously change their mode of operation if it is detected, by the sensor, that a wall (10, 12, 14, 16) has been repositioned.
Rail vehicle (10, 11, 12) with a vehicle-side control facility for controlling the rail vehicle (10, 11, 12), wherein the control facility is based on artificial intelligence and has been trained to control the rail vehicle (10, 11, 12) on at least one predefined route, wherein the rail vehicle (10, 11, 12) is embodied by means of the control facility to travel along a railway track installation fully or at least largely autonomously in a safe manner, characterised in that the rail vehicle (10, 11, 12) has a communication facility for direct communication with other rail vehicles and the control facility has been trained in such a manner that, when controlling the rail vehicle (10, 11, 12), it takes into consideration information regarding other rail vehicles (10, 11, 12) travelling on the route, in particular a rail vehicle (10, 11, 12) travelling ahead, in particular location information, speed information and/or timetable information regarding other rail vehicles (10, 11, 12).
A method for increasing recovery of crude oil from a subterranean hydrocarbon-containing formation, the method comprising injecting an aqueous flooding fluid into a well that is in contact with the subterranean hydrocarbon-containing formation, the aqueous flooding fluid comprising injection water and a mobility control agent, the mobility control agent comprising a crosslinked water-soluble polymer, wherein the water-soluble polymer comprises a carbonyl group, the crosslinking units are derived from the multifunctional hydrazide, and the crosslinks within the crosslinked water-soluble polymer are derived from reaction of the multifunctional hydrazide with the carbonyl group of the water-soluble polymer, wherein the crosslinks are degraded after the aqueous flooding fluid comprising the crosslinked water-soluble polymer is contacted with the hydrocarbon containing formation to form the aqueous flooding fluid comprising the water-soluble polymer having fewer crosslinks; and wherein the water-soluble polymer moves throughout the formation without blocking pores of the formation, thereby providing mobility control of the hydrocarbon fluid in the formation. wherein the water-soluble polymer comprises a carbonyl group, the crosslinking units are derived from the multifunctional hydrazide, and the crosslinks within the crosslinked water-soluble polymer are derived from reaction of the multifunctional hydrazide with the carbonyl group of the water-soluble polymer, wherein the crosslinks are degraded after the aqueous flooding fluid comprising the crosslinked water-soluble polymer is contacted with the hydrocarbon containing formation to form the aqueous flooding fluid comprising the water-soluble polymer having fewer crosslinks; and wherein the water-soluble polymer moves throughout the formation without blocking pores of the formation, thereby providing mobility control of the hydrocarbon fluid in the formation.
An electromagnetic actuating apparatus having two armature means (24, 26, 18, 20) which are designed to exert an actuating force on two tappet units (34, 36) which are extended in the longitudinal direction along a longitudinal movement axis and are guided such that they can be moved adjacent to one another in a common guide section of a housing which accommodates the armature means, wherein the tappet units each have an engagement end (38, 40) which is designed to interact with an actuating groove of a motor vehicle engine adjustment system and projects from the guide section at least in an engaged state, and the common guide section forms a guide end surface in which guide openings which are associated with the two tappet units, in particular guide bores, are open, characterized in that a connecting path which runs through centre axes of the only two guide openings, in particular guide bores, in the guide end surface forms an offset (v) from a surface centre point, in particular a surface centre of gravity, of the guide end surface.
A diaphragm cloth for a water electrolyzer, characterized in that the diaphragm cloth is a plain cloth or knitted fabric composed of alkali-resistant fiber at a common use temperature of no less than 150°C; the average pore size of the diaphragm cloth is no less than 3μm to less than 10 μm; and under the condition of pressure of 3 kPa at 23°C and 50% RH, the venting quality of the diaphragm cloth is 2 L/cm 2 /min or less, and the common use temperature is a temperature at which the strength of the fiber is reduced by half after exposure for 100,000 hours; wherein said alkali-resistant fiber is polyphenylene sulfide fiber containing hydrophilic groups on its surface, and wherein pores with a pore size of 0.2-10 μm in the diaphragm cloth take up no less than 60% of all pores, and the content of oxygen element on the fiber surface is 12-40 wt%; and wherein the cover factor of the diaphragm cloth is from 2300 to 3000 if it is a plain cloth and from 0.7 to 1.5 if it is a knitted fabric.
An additive manufacturing apparatus, comprising: a coater (20, 120) comprising: at least one trough (38, 138) including a plurality of side-by- side deposition valves (40, 140); a funnel-shaped collector (48, 148); and a plurality of reservoirs (42, 142) communicating with the at least one trough (38, 138) via the funnel-shaped collector, wherein each reservoir (42, 142) includes a feed valve (44, 144) operable to selectively block or permit flow of a powder from the reservoir (42, 142), via the funnel-shaped collector, to the at least one trough (38, 138). at least one trough (38, 138) including a plurality of side-by- side deposition valves (40, 140); a funnel-shaped collector (48, 148); and a plurality of reservoirs (42, 142) communicating with the at least one trough (38, 138) via the funnel-shaped collector, wherein each reservoir (42, 142) includes a feed valve (44, 144) operable to selectively block or permit flow of a powder from the reservoir (42, 142), via the funnel-shaped collector, to the at least one trough (38, 138).
A method of wireless communications performed by a user equipment, UE, comprising: transmitting a UE band combination constraint information to the base station; receiving, at a modem of the UE from a base station and in response to the transmitting of the UE band combination constraint information, a UE configuration based on the UE band combination constraint information, wherein the UE configuration includes a carrier aggregation combination and baseband processing combination configuration; configuring the UE, by a processor of the UE, according to the carrier aggregation combination and baseband processing combination configuration; performing a communication with the base station, via the modem of the UE, according to the carrier aggregation combination and baseband processing combination configuration; and wherein transmitting the UE band combination constraint information further comprises transmitting, to the base station, a total number of layers supported in a carrier aggregation band combination. transmitting a UE band combination constraint information to the base station; receiving, at a modem of the UE from a base station and in response to the transmitting of the UE band combination constraint information, a UE configuration based on the UE band combination constraint information, wherein the UE configuration includes a carrier aggregation combination and baseband processing combination configuration; configuring the UE, by a processor of the UE, according to the carrier aggregation combination and baseband processing combination configuration; performing a communication with the base station, via the modem of the UE, according to the carrier aggregation combination and baseband processing combination configuration; and wherein transmitting the UE band combination constraint information further comprises transmitting, to the base station, a total number of layers supported in a carrier aggregation band combination.
A stent delivery device, comprising: a delivery catheter having a lumen extending therethrough and an inner diameter; a core wire extending through the lumen of the delivery catheter and movable relative thereto, the core wire having an outer diameter that is less than the inner diameter of the delivery catheter and an engaging surface region on at least a portion of an outer surface thereof; a capture member disposed within the delivery catheter and attached to the core wire at a position proximal to the engaging surface region, the capture member having at least one compression member biased to a non-capturing orientation and configured to be oriented in a capturing orientation in alignment with the engaging surface region by a compressive force; and wherein the engaging surface region comprises an area of higher friction relative to the remainder of the core wire.. a delivery catheter having a lumen extending therethrough and an inner diameter; a core wire extending through the lumen of the delivery catheter and movable relative thereto, the core wire having an outer diameter that is less than the inner diameter of the delivery catheter and an engaging surface region on at least a portion of an outer surface thereof; a capture member disposed within the delivery catheter and attached to the core wire at a position proximal to the engaging surface region, the capture member having at least one compression member biased to a non-capturing orientation and configured to be oriented in a capturing orientation in alignment with the engaging surface region by a compressive force; and