mhurhangee/ep-ind-claims huggingface dataset:
A distributed ordnance system, comprising: a plurality of ordnance controllers (122, 224, 324,424), and a plurality of firing units (330, 430), each firing unit configured to receive a plurality of electronic safe and arm power signals from an associated ordnance controller for both arming and charging the firing unit prior to discharge, wherein each ordnance controller of the plurality of ordnance controller: is operably coupled with at least one firing unit of the plurality of firing units; is configured to provide the plurality of ESA power signals to the at least one firing unit coupled therewith; is configured to communicate with the at least one firing unit for initiation of an ordnance event; characterised in that the ordnance controller includes a safety plug (318, 418) configured to manually disconnect the plurality of ESA power signals for the associated ordnance controller. a plurality of ordnance controllers (122, 224, 324,424), and a plurality of firing units (330, 430), each firing unit configured to receive a plurality of electronic safe and arm power signals from an associated ordnance controller for both arming and charging the firing unit prior to discharge, wherein each ordnance controller of the plurality of ordnance controller: is operably coupled with at least one firing unit of the plurality of firing units; is configured to provide the plurality of ESA power signals to the at least one firing unit coupled therewith; is configured to communicate with the at least one firing unit for initiation of an ordnance event; is operably coupled with at least one firing unit of the plurality of firing units; is configured to provide the plurality of ESA power signals to the at least one firing unit coupled therewith; is configured to communicate with the at least one firing unit for initiation of an ordnance event; characterised in that the ordnance controller includes a safety plug (318, 418) configured to manually disconnect the plurality of ESA power signals for the associated ordnance controller.
Electrically, in particular battery-electrically, operated industrial truck having at least one electrical assembly which can be operated as a generator and which is electrically connected to at least one electrical resistor for converting electrical energy into thermal energy, and having a working and/or control hydraulics system which has a hydraulic liquid circuit, wherein the electrical resistor is operatively connected to the hydraulic liquid circuit for transferring the thermal energy to the hydraulic liquid of the hydraulic liquid circuit, wherein the electrical assembly is formed by an electric traction motor of the industrial truck and wherein the industrial truck has a traction battery which is electrically connected to the electrical assembly and to the electrical resistor, wherein an electronic vehicle control device is provided, which is operatively connected to the electric traction motor, the traction battery and a temperature sensor in the hydraulic liquid circuit and allows the electrical energy generated in the electric traction motor during electrical braking of the industrial truck to be fed into the traction battery and/or into the electrical resistor depending on the state of charge of the traction battery and allows the electrical resistor to be energized with energy from the traction battery depending on the temperature of the hydraulic liquid.
Method for rolling up definite lengths of mats in a unidirectional rolled mat roll, where mats are advanced one after another into a rolling mechanism in flattened out condition and released from the mechanism in rolled up condition, wherein a rolled up mat is ejected from the rolling mechanism and caused to roll out therefrom on top of a succeeding flattened out mat which advances towards the rolling mechanism.
A method for optimizing the rank of channel matrix and being applied to a wireless base to which a plurality of mobile stations (110,120) are connected, wherein the method comprises: obtaining the historical state data of the plurality of mobile stations; determining the optimal rank of channel matrix of a first mobile station of the plurality of mobile stations according to the obtained historical state data of the plurality of mobile stations; and transmitting to the first mobile station the optimal rank indicator indicating the optimal rank so as to cause the first mobile station to set its rank of channel matrix to be the optimal rank indicated by the optimal rank indicator; wherein said determining, the optimal rank of channel matrix of a first mobile station of the plurality of mobile stations is further based on that, a sum of throughputs of the first mobile station in plurality of mobile station pairs, is the maximum when the rank of channel matrix of the first mobile station is the optimal rank; wherein the plurality of mobile station pairs are pairs between the first mobile station and the other mobile stations of the plurality of mobile stations; and wherein the mobile stations in each mobile station pair share same time and/or frequency resources. obtaining the historical state data of the plurality of mobile stations; determining the optimal rank of channel matrix of a first mobile station of the plurality of mobile stations according to the obtained historical state data of the plurality of mobile stations; and transmitting to the first mobile station the optimal rank indicator indicating the optimal rank so as to cause the first mobile station to set its rank of channel matrix to be the optimal rank indicated by the optimal rank indicator; wherein said determining, the optimal rank of channel matrix of a first mobile station of the plurality of mobile stations is further based on that, a sum of throughputs of the first mobile station in plurality of mobile station pairs, is the maximum when the rank of channel matrix of the first mobile station is the optimal rank; wherein the plurality of mobile station pairs are pairs between the first mobile station and the other mobile stations of the plurality of mobile stations; and wherein the mobile stations in each mobile station pair share same time and/or frequency resources.
A medical device having a processor, comprising: an acceleration sensor configured to generate acceleration data, the acceleration data comprising a plurality of acceleration measurements; and a memory having embodied thereon computer-executable instructions that are configured to, when executed by the processor, cause the processor to: obtain the acceleration data from the acceleration sensor; generate a slope of the acceleration data, the slope comprising axis values for at least two axes against time; apply a moving mean filter across the acceleration data to generate a first smoothed set of axis data corresponding to a first axis and a second smoothed set of axis data corresponding to a second axis; identify an intersection between the first smoothed set of axis data and the second smoothed set of axis data; and determine, based on the identified intersection, that the medical device has flipped, wherein the medical device is an implantable medical device. an acceleration sensor configured to generate acceleration data, the acceleration data comprising a plurality of acceleration measurements; and a memory having embodied thereon computer-executable instructions that are configured to, when executed by the processor, cause the processor to: obtain the acceleration data from the acceleration sensor; generate a slope of the acceleration data, the slope comprising axis values for at least two axes against time; apply a moving mean filter across the acceleration data to generate a first smoothed set of axis data corresponding to a first axis and a second smoothed set of axis data corresponding to a second axis; identify an intersection between the first smoothed set of axis data and the second smoothed set of axis data; and determine, based on the identified intersection, that the medical device has flipped, obtain the acceleration data from the acceleration sensor; generate a slope of the acceleration data, the slope comprising axis values for at least two axes against time; apply a moving mean filter across the acceleration data to generate a first smoothed set of axis data corresponding to a first axis and a second smoothed set of axis data corresponding to a second axis; identify an intersection between the first smoothed set of axis data and the second smoothed set of axis data; and determine, based on the identified intersection, that the medical device has flipped, wherein the medical device is an implantable medical device.
A method for retrieving and using Profiles, Demographics, and Interests data, including a PDI-Q questionnaire, at a reception apparatus, said method comprising the following steps: receiving a broadcast stream, which includes: content from a content source, and metadata (PDI-FC) associated with said content, said metadata describing the available content; extracting from the received broadcast stream a Uniform Resource Identifier and a URI type that is associated with said URI; determining if the URI is a PDI locator based on the extracted URI type; determining the location of the PDI data associated with the received content based on the PDI locator identifying a location of the PDI data in a File Delivery over Unidirectional Transport, FLUTE, carousel extracted from a Transport Stream carrying the content; retrieving, by the reception apparatus, the PDI data including said PDI-Q questionnaire using the extracted URI when the extracted URI type indicates that the extracted URI is a PDI locator; generating PDI-A answers to said retrieved PDI-Q questionnaire; filtering the received content based on said PDI-A answers and said metadata (PDI-FC); and outputting the filtered content for display. receiving a broadcast stream, which includes: content from a content source, and metadata (PDI-FC) associated with said content, said metadata describing the available content; extracting from the received broadcast stream a Uniform Resource Identifier and a URI type that is associated with said URI; determining if the URI is a PDI locator based on the extracted URI type; determining the location of the PDI data associated with the received content based on the PDI locator identifying a location of the PDI data in a File Delivery over Unidirectional Transport, FLUTE, carousel extracted from a Transport Stream carrying the content; retrieving, by the reception apparatus, the PDI data including said PDI-Q questionnaire using the extracted URI when the extracted URI type indicates that the extracted URI is a PDI locator; generating PDI-A answers to said retrieved PDI-Q questionnaire; filtering the received content based on said PDI-A answers and said metadata (PDI-FC); and outputting the filtered content for display.
Hob operating device having an operating means support unit (10a-10g), which has at least one function field (12a-12g) which is provided for coupling to a removable operating means (14a-14g), characterised in that the operating means support unit (10a-10g) has at least one resistance reduction means (46a-50a; 46b, 48b; 46c, 48c; 46d-50d; 46e-50e; 46f, 48f; 46g, 48g) which is provided to reduce signal resistance and/or retention force resistance for a retention force which is provided for holding the removable operating means (14a-14g) on the operating means support unit (10a-10g) in a functional position and/or in an idle position in at least one defined rotational position, wherein the resistance reduction means (46a-50a; 46b, 48b; 46c, 48c; 46d-50d; 46e-50e; 46f, 48f; 46g, 48g) is formed by at least one recess (52a-58a; 52b-56b; 52c, 56c; 52d-58d; 52e-58e; 52f, 56f; 52g, 56g), wherein the recess (52a-58a; 52b-56b; 52c, 56c; 52d-58d; 52e-58e; 52f, 56f; 52g, 56g) is a region having a reduced material strength compared to an adjacent region, and/or wherein the operating means support unit is formed from different materials, wherein the resistance reduction means (46a-50a; 46b, 48b; 46c, 48c; 46d-50d; 46e-50e; 46f, 48f; 46g, 48g) is formed from the material with a lower signal resistance and/or retention force resistance.
An aerosol generating system comprising: an aerosol generating device comprising an induction coil configured to perform a heating operation for heating a susceptor arranged in a cigarette insertion portion and a charging operation for receiving electric power to charge a power supply, a charging device comprising a transmission coil configured to transmit electric power to the induction coil, and a heating impedance matching portion having a first impedance value for applying a magnetic field to the susceptor during the heating operation, and a reception impedance matching portion having a second impedance value for receiving electric power from the charging device during the charging operation. an aerosol generating device comprising an induction coil configured to perform a heating operation for heating a susceptor arranged in a cigarette insertion portion and a charging operation for receiving electric power to charge a power supply, a charging device comprising a transmission coil configured to transmit electric power to the induction coil, and a heating impedance matching portion having a first impedance value for applying a magnetic field to the susceptor during the heating operation, and a reception impedance matching portion having a second impedance value for receiving electric power from the charging device during the charging operation.
A fluid-operated control device for double-acting actuators, characterized in that it comprises a valve body which integrates a first overcenter valve in which the inlet is connected to a distribution device by means of a first connecting branch and the outlet is connectable to a first chamber of at least one fluid-operated cylinder, said valve body further integrating a second overcenter valve in which the inlet is connected to said distribution device by means of a second connecting branch and the outlet is connectable to a second chamber of said fluid-operated cylinder, said first overcenter valve being actuatable by means of a first control branch which is connected to said second connecting branch with the interposition of a check valve and of a first choke and to said first connecting branch with the interposition of a second choke, said second overcenter valve being actuatable by means of a second control branch connected to said first connecting branch, said distribution device being provided with a control chamber and being automatically switchable between a first operating condition, in which said first connecting branch is connected to a delivery branch of a working fluid and said second connecting branch is connected to a return branch of said working fluid and said control chamber is connected to said return branch by means of a unidirectional throttle valve, and a second operating condition, in which said first connecting branch is connected to said return branch by means of said unidirectional throttle valve and said second connecting branch is connected to said delivery branch, the switching between said first operating condition and said second operating condition being controlled by an overpressure valve integrated in said valve body and having the inlet connected to said first connecting branch by means of a third control branch and the outlet connected to said control chamber.
A method for producing a fiber-reinforced composite material, wherein a fiber-reinforced prepreg, obtained by impregnating reinforcing fibers with an epoxy resin composition comprising a triphenylmethane-type epoxy compound represented by the following formula 1, N,N,N',N'-tetraglycidyldiaminodiphenylmethane and diaminodiphenylsulfone, is subjected to primary curing at 110-130°C, and then to secondary curing at a temperature which is at least as high as the primary curing temperature.
Composite electrode for low-voltage surge arrester with multiple spark gaps in series, the composite electrode comprising a main electrode made of a non-metallic or alloy conducting material and an auxiliary electrode made of a metallic conducting material, characterised in that the auxiliary electrode is embedded in a hollow space of the main electrode and is in electrical contact on one side with a surface of the main electrode, the auxiliary electrode being configured to come into contact on the other side with a flexible separation insulator to form a spark gap, the auxiliary electrode comprising the part in contact with the main electrode and a connection lug for the link with a high-voltage triggering circuit.
An aluminum-based alloy plated steel sheet, comprising: a base steel sheet; an interfacial alloy layer; and an aluminum-based plated layer comprising a magnesium-silicon (Mg-Si)-based alloy phase, wherein b/a is 1 to 5 when an area ratio of the Mg-Si based alloy phase contained in the aluminum-based plated layer is a and an area ratio of a Mg-Si based alloy phase contained in a region of a lower 20% of the aluminum-based plated layer in a thickness direction is b. a base steel sheet; an interfacial alloy layer; and an aluminum-based plated layer comprising a magnesium-silicon (Mg-Si)-based alloy phase, wherein b/a is 1 to 5 when an area ratio of the Mg-Si based alloy phase contained in the aluminum-based plated layer is a and an area ratio of a Mg-Si based alloy phase contained in a region of a lower 20% of the aluminum-based plated layer in a thickness direction is b.
A device for guiding the insertion of an instrument having a longitudinal axis into a body of a patient at a targeted point of entry and along a path at a targeted insertion angle, comprising: a base component comprising a proximal surface, a distal surface and a lumen extending therethrough, the base component configured to be oriented and fixed in a first position, wherein the first position corresponds to the targeted point of entry; a guide assembly, the assembly having a first element cooperating with the base component to orient the instrument with respect to the first position, a second element configured to be oriented and fixed in a second position, wherein the second position corresponds to the targeted insertion angle, and a third element configured to translate the insertion angle to the instrument as it guides the instrument along the longitudinal axis into the body; the second element further comprising a moveable mechanism; wherein the second element and the proximal surface of the base component comprise a ball and socket arrangement; and wherein the moveable mechanism is configured to be pushed or pulled to frictionally fix the ball at the second position, wherein the moveable mechanism is a pull tab, wherein the base component comprises a stationary housing portion and a pull tab housing portion, wherein the pull tab is recessed within the pull tab housing portion of the base component, wherein the pull tab is configured to be pulled radially away from the ball along the pull tab housing portion to frictionally fix a position of the ball with respect to the socket. a base component comprising a proximal surface, a distal surface and a lumen extending therethrough, the base component configured to be oriented and fixed in a first position, wherein the first position corresponds to the targeted point of entry; a guide assembly, the assembly having a first element cooperating with the base component to orient the instrument with respect to the first position, a second element configured to be oriented and fixed in a second position, wherein the second position corresponds to the targeted insertion angle, and a third element configured to translate the insertion angle to the instrument as it guides the instrument along the longitudinal axis into the body; the second element further comprising a moveable mechanism; wherein the second element and the proximal surface of the base component comprise a ball and socket arrangement; and wherein the moveable mechanism is configured to be pushed or pulled to frictionally fix the ball at the second position, wherein the moveable mechanism is a pull tab, wherein the base component comprises a stationary housing portion and a pull tab housing portion, wherein the pull tab is recessed within the pull tab housing portion of the base component, wherein the pull tab is configured to be pulled radially away from the ball along the pull tab housing portion to frictionally fix a position of the ball with respect to the socket.
Method for producing a sealing ring comprising at least one sealing body made of an extruded sealing material, the sealing ring being intended to be arranged between a pointed end and a bell socket of two plug-socket-connected concrete pipes, and comprising a sealing portion and which is made of a first sealing material and forms a contact surface for an end that is to be sealed of a concrete pipe that is to be positioned, and a support portion that is radially spaced apart from said sealing portion and is made of a second sealing material, characterised in that the second sealing material is added to the granulated recyclate of an elastomer of the first and/or the second sealing material as the filler component, which recyclate has been obtained in that the sealing ring material produced as waste during the earlier production of sealing rings has been shredded.
Method for handling build material for an apparatus for additively manufacturing three-dimensional objects, comprising coupling a build material handling unit with a powder module and characterized by controlling the gas pressure inside the powder chamber for leveling and/or compacting the volume of build material arranged inside the powder chamber of the powder module, iteratively and alternatingly filling a volume of build material into the powder chamber and controlling the gas pressure in the powder chamber for levelling and/or compacting the volume of build material in the powder chamber, the method comprising reducing the gas pressure and again increasing the gas pressure before the next volume of build material is filled into the powder chamber.
A method for entering an idle mode, which is used in a Worldwide Interoperability for Microwave Access system, the method comprising: during the procedure of a terminal enter to idle mode from active mode, the paging agent of the terminal sending mobility restriction parameters of the terminal to a mobility restriction parameter storage network element; the mobility restriction parameter storage network element saving the mobility restriction parameters; the mobility restriction parameter storage network element being an anchor paging controller, or an anchor authenticator, or a function entity including a function of the anchor paging controller and a function of the anchor authenticator. during the procedure of a terminal enter to idle mode from active mode, the paging agent of the terminal sending mobility restriction parameters of the terminal to a mobility restriction parameter storage network element; the mobility restriction parameter storage network element saving the mobility restriction parameters; the mobility restriction parameter storage network element being an anchor paging controller, or an anchor authenticator, or a function entity including a function of the anchor paging controller and a function of the anchor authenticator.