mhurhangee/ep-ind-claims huggingface dataset:
A method for supporting X2 handover between a source home enhanced nodeB, HeNB, and a target HeNB by an HeNB gateway, GW,, the method characterized by comprising: transmitting, to the source HeNB, an identifier of a mobile management entity, MME, serving a user equipment, UE,; receiving, from the target HeNB, a path switch request message including the identifier of the MME; and transmitting the path switch request message to the MME based on the identifier of the MME. transmitting, to the source HeNB, an identifier of a mobile management entity, MME, serving a user equipment, UE,; receiving, from the target HeNB, a path switch request message including the identifier of the MME; and transmitting the path switch request message to the MME based on the identifier of the MME.
A coherent optical mixer circuit (300, 812, 912) including a multimode interference circuit having a first waveguide in which the multimode interference circuit has two odd-numbered or even-numbered inputs that are connected to an input mechanism of externally-inputted signal light and reference light via input waveguides (301, 302) and the four outputs of the multimode interference circuit are all connected to an output mechanism to the exterior via output waveguides, wherein: the other two inputs of the multimode interference circuit are connected to two monitor waveguides (305, 306, 309, 310), one of the monitor waveguides (306, 310) is longer than the other of the monitor waveguides (305, 309) to configure a light delay circuit, the monitor waveguides constituting the light delay circuit are connected to respective outputs of a 2-branched light splitter, and the 2-branched light splitter has an input connected to a monitor light input mechanism from the exterior via a monitor input waveguide, characterized in that the multimode interference circuit is a 4-input-and-4-output multimode interference circuit; the first waveguide is a silicon waveguide; at least a part (309, 310) of each of the two monitor waveguides is formed by a respective silicon waveguide, the remaining portion (305, 306) of each of the two monitor waveguides, the 2-branched light splitter, and the monitor light input mechanism are formed by light waveguides formed in another layer having a larger mode field diameter than that of the silicon waveguides, and for each of the two monitor waveguides, the respective part (309, 310) formed by the respective silicon waveguide and the respective remaining portion (305, 306) formed in the another layer are interlayer-coupled. the other two inputs of the multimode interference circuit are connected to two monitor waveguides (305, 306, 309, 310), one of the monitor waveguides (306, 310) is longer than the other of the monitor waveguides (305, 309) to configure a light delay circuit, the monitor waveguides constituting the light delay circuit are connected to respective outputs of a 2-branched light splitter, and the 2-branched light splitter has an input connected to a monitor light input mechanism from the exterior via a monitor input waveguide, characterized in that the multimode interference circuit is a 4-input-and-4-output multimode interference circuit; the first waveguide is a silicon waveguide; at least a part (309, 310) of each of the two monitor waveguides is formed by a respective silicon waveguide, the remaining portion (305, 306) of each of the two monitor waveguides, the 2-branched light splitter, and the monitor light input mechanism are formed by light waveguides formed in another layer having a larger mode field diameter than that of the silicon waveguides, and for each of the two monitor waveguides, the respective part (309, 310) formed by the respective silicon waveguide and the respective remaining portion (305, 306) formed in the another layer are interlayer-coupled.
Valve device for a motor vehicle, having a housing, a flow channel located in the housing, and a flap arranged in the flow channel for closing the flow channel, wherein the flap has regions in which a shaft penetrating the flap is fastened, and the shaft is rotatably supported in the housing, characterized in that the flap has a spherical elevation in the form of a hemisphere at least on one side.
An implantable cardioverter defibrillator system comprising: a sensing circuit configured to receive a cardiac electrical signal via a sensing electrode vector and sense cardiac events from the cardiac electrical signal; a therapy delivery circuit configured to deliver electrical pacing pulses to a heart of a patient via a pacing electrode vector; and a control circuit coupled to the sensing circuit and the therapy delivery circuit and configured to automatically switch between a sensing without pacing mode and a temporary pacing mode, and further configured to: detect asystole based on the cardiac electrical signal while operating in the sensing without pacing mode, and automatically switch to the temporary pacing mode in response to detecting the asystole. a sensing circuit configured to receive a cardiac electrical signal via a sensing electrode vector and sense cardiac events from the cardiac electrical signal; a therapy delivery circuit configured to deliver electrical pacing pulses to a heart of a patient via a pacing electrode vector; and a control circuit coupled to the sensing circuit and the therapy delivery circuit and configured to automatically switch between a sensing without pacing mode and a temporary pacing mode, and further configured to: detect asystole based on the cardiac electrical signal while operating in the sensing without pacing mode, and automatically switch to the temporary pacing mode in response to detecting the asystole. detect asystole based on the cardiac electrical signal while operating in the sensing without pacing mode, and automatically switch to the temporary pacing mode in response to detecting the asystole.
A lithium-ion capacitor comprising: a positive electrode (13, 23), a negative electrode (12, 22) and an electrolyte having an aprotic organic solvent of a lithium salt, wherein a negative electrode active material is a graphite in which the particle size distribution follows the condition defined by the following formula: D 90 − D 10 ≤ 7.0 μm, with the D 10 value and the D 90 value indicating the values at which 100% and 90% by volume of the particles in the measured samples have a particle diameter smaller than or equal to these values, and the D 10 value and the D 90 value measured by a laser diffraction particle size distribution measuring instrument from a water dispersion of the graphite, wherein D 50 of the graphite is given by D 50 ≤ 4.0 μm, with the D 50 value indicating the value at which 50% by volume of the particles in the measured samples have a particle diameter smaller than or equal to this value and the D 50, value measured by a laser diffraction particle size distribution measuring instrument from a water dispersion of the graphite, characterised in that an average distance between 002 lattice planes of the graphite, measured by X-ray diffraction, is within a range from 0.335 nm to 0.337 nm. a positive electrode (13, 23), a negative electrode (12, 22) and an electrolyte having an aprotic organic solvent of a lithium salt, wherein a negative electrode active material is a graphite in which the particle size distribution follows the condition defined by the following formula: D 90 − D 10 ≤ 7.0 μm, with the D 10 value and the D 90 value indicating the values at which 100% and 90% by volume of the particles in the measured samples have a particle diameter smaller than or equal to these values, and the D 10 value and the D 90 value measured by a laser diffraction particle size distribution measuring instrument from a water dispersion of the graphite, wherein D 50 of the graphite is given by D 50 ≤ 4.0 μm, with the D 50 value indicating the value at which 50% by volume of the particles in the measured samples have a particle diameter smaller than or equal to this value and the D 50, value measured by a laser diffraction particle size distribution measuring instrument from a water dispersion of the graphite, characterised in that an average distance between 002 lattice planes of the graphite, measured by X-ray diffraction, is within a range from 0.335 nm to 0.337 nm.
An ablation device, comprising: an antenna configured to deliver ablation energy and having a proximal portion and a distal portion; and a trocar including: a shaft with a distal tip operably associated with the distal portion of the antenna; first electrode disposed on a proximal portion of the shaft; and a second electrode forming the distal tip of the trocar and configured for insertion into tissue, wherein the first and second electrodes are longitudinally spaced from one another along a longitudinal axis defined by the shaft. an antenna configured to deliver ablation energy and having a proximal portion and a distal portion; and a trocar including: a shaft with a distal tip operably associated with the distal portion of the antenna; first electrode disposed on a proximal portion of the shaft; and a second electrode forming the distal tip of the trocar and configured for insertion into tissue, wherein the first and second electrodes are longitudinally spaced from one another along a longitudinal axis defined by the shaft. a shaft with a distal tip operably associated with the distal portion of the antenna; first electrode disposed on a proximal portion of the shaft; and a second electrode forming the distal tip of the trocar and configured for insertion into tissue, wherein the first and second electrodes are longitudinally spaced from one another along a longitudinal axis defined by the shaft.
A rotary compressor (10, 110) comprising: a driving element (14, 114) which is provided inside a sealed container (12, 112); and a rotary compression element (18, 118) which is provided inside the sealed container (12, 112) so as to be located below the driving element (14, 114) and to be driven by a rotary shaft (16, 116) of the driving element (14, 114), wherein a refrigerant discharge pipe (96, 196) is inserted from a side surface of the sealed container (12, 112) above the driving element (14, 114) into the sealed container (12, 112), and is opened in the horizontal direction, wherein a refrigerant compressed by the rotary compression element (18, 118) is discharged from a discharge hole (65, 165) into the sealed container (12, 112), and is discharged from the refrigerant discharge pipe (96, 196) to the outside of the sealed container (12, 112), and characterised in that the position of the discharge hole (65, 165) is set to a position below an area (A1, A3) on the opposite side of the opening direction of the refrigerant discharge pipe (96, 196) from a line (L1, L2; L3; S1) passing an opening surface of the refrigerant discharge pipe (96, 196) and perpendicular to the opening direction of the refrigerant discharge pipe (96, 196). a driving element (14, 114) which is provided inside a sealed container (12, 112); and a rotary compression element (18, 118) which is provided inside the sealed container (12, 112) so as to be located below the driving element (14, 114) and to be driven by a rotary shaft (16, 116) of the driving element (14, 114), wherein a refrigerant discharge pipe (96, 196) is inserted from a side surface of the sealed container (12, 112) above the driving element (14, 114) into the sealed container (12, 112), and is opened in the horizontal direction, wherein a refrigerant compressed by the rotary compression element (18, 118) is discharged from a discharge hole (65, 165) into the sealed container (12, 112), and is discharged from the refrigerant discharge pipe (96, 196) to the outside of the sealed container (12, 112), and characterised in that the position of the discharge hole (65, 165) is set to a position below an area (A1, A3) on the opposite side of the opening direction of the refrigerant discharge pipe (96, 196) from a line (L1, L2; L3; S1) passing an opening surface of the refrigerant discharge pipe (96, 196) and perpendicular to the opening direction of the refrigerant discharge pipe (96, 196).
An object recognition device configured to recognize an object by using measurement results of a laser distance measurement sensor, the object recognition device comprising: an acquisition unit configured to acquire the measurement results of the laser distance measurement sensor; a time-series data creation unit configured to create time-series data of the measurement results by arranging the measurement results in time series, said time-series data being an occupancy grid map for each measurement time, said occupancy grid map for each measurement time being a time-series map of the measurement results created associating the measurement results with grid-shaped cells indicating coordinates in a space in time series; and a recognition unit configured to recognize a position and a size of the object indicated by the measurement results by grouping the measurement results close to each other on the grids described by the time-series data, wherein the time-series data creation unit is further configured to create the time-series data by retaining the measurement result described by the time-series data for a predetermined time and deleting the measurement result which is not updated continuously for the predetermined time or more, characterized in that the object recognition device further includes a reliability calculation unit configured to calculate reliability of the position and size of the object recognized by the recognition unit, and the time-series data creation unit is further configured to change a time for retaining the measurement result on the time-series data according to the reliability. an acquisition unit configured to acquire the measurement results of the laser distance measurement sensor; a time-series data creation unit configured to create time-series data of the measurement results by arranging the measurement results in time series, said time-series data being an occupancy grid map for each measurement time, said occupancy grid map for each measurement time being a time-series map of the measurement results created associating the measurement results with grid-shaped cells indicating coordinates in a space in time series; and a recognition unit configured to recognize a position and a size of the object indicated by the measurement results by grouping the measurement results close to each other on the grids described by the time-series data, wherein the time-series data creation unit is further configured to create the time-series data by retaining the measurement result described by the time-series data for a predetermined time and deleting the measurement result which is not updated continuously for the predetermined time or more, characterized in that the object recognition device further includes a reliability calculation unit configured to calculate reliability of the position and size of the object recognized by the recognition unit, and the time-series data creation unit is further configured to change a time for retaining the measurement result on the time-series data according to the reliability.
Airplane seat device with at least one functional unit (20a; 20b; 20c; 20d; 20e; 20g; 20h) which is configured at least for a locking, a controlling and/or a movement of at least one airplane seat element (14a; 14b; 14c; 14e; 14g; 14h), the functional unit (20a; 20b; 20c; 20d; 20e; 20g; 20h) comprising at least one actuatable shape-memory element (22a, 24a, 26a, 28a; 22b, 24b, 26b; 22c; 22d; 22e; 22g; 22h, 24h), characterised in that the functional unit (20b; 20c) comprises at least one locking element (42b, 44b, 46b; 42c, 44c) which is traversable between at least two positions and is adjustable at least substantially by the at least one actuatable shape-memory element (22b, 24b, 26b; 22c), the at least one shape-memory element (22b, 24b, 26b; 22c) being configured for a locking of the airplane seat element (14b; 14c) that is embodied as a dining table. with at least one functional unit (20a; 20b; 20c; 20d; 20e; 20g; 20h) which is configured at least for a locking, a controlling and/or a movement of at least one airplane seat element (14a; 14b; 14c; 14e; 14g; 14h), the functional unit (20a; 20b; 20c; 20d; 20e; 20g; 20h) comprising at least one actuatable shape-memory element (22a, 24a, 26a, 28a; 22b, 24b, 26b; 22c; 22d; 22e; 22g; 22h, 24h), characterised in that the functional unit (20b; 20c) comprises at least one locking element (42b, 44b, 46b; 42c, 44c) which is traversable between at least two positions and is adjustable at least substantially by the at least one actuatable shape-memory element (22b, 24b, 26b; 22c), the at least one shape-memory element (22b, 24b, 26b; 22c) being configured for a locking of the airplane seat element (14b; 14c) that is embodied as a dining table.
A process for splitting an interlayer film for laminated glass wherein the interlayer film comprises at least one layer A, comprising at least one polyvinyl butyral resin A and at least one plasticizer PA and at least one layer B, comprising at least one polyvinyl butyral resin B and at least one plasticizer PB, wherein polyvinyl butyral resin A and B are chemically different characterized in that the films are cut with a cutting means in form of a band and wherein a. the cutting means splits the film within layer B at a thickness of 50 to 99%, wherein 1 to 50% of layer B remain at layer A, or b. the cutting means splits the film within layer A at a thickness of 50 to 99%, wherein 1 to 50% of layer A remain at layer B. a. the cutting means splits the film within layer B at a thickness of 50 to 99%, wherein 1 to 50% of layer B remain at layer A, or b. the cutting means splits the film within layer A at a thickness of 50 to 99%, wherein 1 to 50% of layer A remain at layer B.
A computer system for creating a fingerprint for a device, the computer system comprising a device management system operatively coupled to a merchant system, the device management system comprising at least one hardware processor configured to: receive a first payload corresponding to the device from the merchant system, the first payload comprising data in a particular format and an identifier used for identifying the device; parse the first payload to extract the identifier; create a fingerprint associated with the identifier, wherein the fingerprint is created by: parsing the particular format of the first payload into one or more distinct sections of the particular format; and creating a record of a section format of each of the one or more distinct sections; and compare a format of each subsequent payload that corresponds to the device to the fingerprint for the device to determine whether the device has been compromised. receive a first payload corresponding to the device from the merchant system, the first payload comprising data in a particular format and an identifier used for identifying the device; parse the first payload to extract the identifier; create a fingerprint associated with the identifier, wherein the fingerprint is created by: parsing the particular format of the first payload into one or more distinct sections of the particular format; and creating a record of a section format of each of the one or more distinct sections; and parsing the particular format of the first payload into one or more distinct sections of the particular format; and creating a record of a section format of each of the one or more distinct sections; and compare a format of each subsequent payload that corresponds to the device to the fingerprint for the device to determine whether the device has been compromised.
Installation for spreading the mixture of a liquid and a first fluid, comprising: - a vessel comprising the liquid, - a tank for storing in its interior space the first fluid, said tank being encased in the vessel, - a cover arranged to close the tank, - a delivery means arranged such that it allows the delivery of the first fluid from the tank to the vessel, and - a means for spreading the mixture of the liquid and the first fluid when the pressure in the vessel exceeds a predetermined pressure threshold, said installation being characterized in that: - the cover comprises an inlet arranged to introduce into the tank compressed air in order to pressurise the interior space of the tank, - and the delivery means is a conduit in the form of a gooseneck which delivers the first fluid from the tank to the vessel when the interior space of the tank is pressurised after the introduction of compressed air through the inlet in order that the liquid is mixed under pressure with the first fluid. - a vessel comprising the liquid, - a tank for storing in its interior space the first fluid, said tank being encased in the vessel, - a cover arranged to close the tank, - a delivery means arranged such that it allows the delivery of the first fluid from the tank to the vessel, and - a means for spreading the mixture of the liquid and the first fluid when the pressure in the vessel exceeds a predetermined pressure threshold, said installation being characterized in that: - the cover comprises an inlet arranged to introduce into the tank compressed air in order to pressurise the interior space of the tank, - and the delivery means is a conduit in the form of a gooseneck which delivers the first fluid from the tank to the vessel when the interior space of the tank is pressurised after the introduction of compressed air through the inlet in order that the liquid is mixed under pressure with the first fluid.
An amine derivative, which is N-[1-((6-chloropyridin-3-yl)methyl)pyridin-2 -ylidene]-2,2,2-trifluoroacetamide and exhibits a melting point of 155 to 158°C in differential scanning calorimetry measured in a temperature rise rate of 10°C/min.