mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a vector thruster of a marine vehicle at least partially submerged in a liquid comprising a body and the vector thruster, the vector thruster comprising two collective and cyclic pitch counter-rotating propellers (AV, AR), each propeller (AV, AR) comprising blades intended to turn about a rotation axis of said propeller (AV, AR) that is fixed relative to the body of the vehicle, the method comprising a step of low-speed maneuver controlling, during which the vector thruster is controlled in such a way that each propeller (AV, AR) generates a flow directed toward the flow generated by the other propeller and reaching the flow generated by the other propeller, wherein the distance between the propellers (AV, AR) lies between a non-zero threshold distance and triple the diameter of the larger of the two propellers (AV, AR)
A powdered composition [composition, hereinafter] suitable for producing a simulant composition of an explosive compound, said composition has an effective atomic number [Zeff, hereinafter] between 6.5 and 7.5 and comprises, relative to the total weight of the composition, a) at least 25.0 % by weight (wt. %) and at most 75.0 wt. % of solid particles of at least one inert organic compound [compound, hereinafter], having a general formula: [R 1 -FG] x M x+ wherein FG is a functional group selected from the group consisting of carboxylate group, a sulfate group, a sulfonate group, a benzylsulfonate ether groups, a phosphate group, an isethionate group, a sulphosuccinate group, an acyl citrate group, an acyl taurate group, an sarcosinate group, an amino carboxylate group; and wherein M is a metal M selected from the group consisting of alkali metals, alkali-earth metals and transition metals and x is 1, 2 or 3; and R 1 is hydrocarbon radicals comprising from 6 to 24 carbon atoms; and b) at least 25.0 % by weight (wt. %) and at most 75.0 wt. % of solid particles of at least one inert compound comprising at least C, H and O elements [compound, hereinafter] wherein said compound has a density of below 2.4 g/cm 3 and a melting point of at least 40 oC. a) at least 25.0 % by weight (wt. %) and at most 75.0 wt. % of solid particles of at least one inert organic compound [compound, hereinafter], having a general formula: [R 1 -FG] x M x+ wherein FG is a functional group selected from the group consisting of carboxylate group, a sulfate group, a sulfonate group, a benzylsulfonate ether groups, a phosphate group, an isethionate group, a sulphosuccinate group, an acyl citrate group, an acyl taurate group, an sarcosinate group, an amino carboxylate group; and wherein M is a metal M selected from the group consisting of alkali metals, alkali-earth metals and transition metals and x is 1, 2 or 3; and R 1 is hydrocarbon radicals comprising from 6 to 24 carbon atoms; and b) at least 25.0 % by weight (wt. %) and at most 75.0 wt. % of solid particles of at least one inert compound comprising at least C, H and O elements [compound, hereinafter] wherein said compound has a density of below 2.4 g/cm 3 and a melting point of at least 40 oC.
Use of an electrically conductive composition as a hardenable electrically conductive adhesive for the adhesive bonding of an electronic component having a contact surface to a substrate having a contact surface via said contact surfaces, wherein the electrically conductive composition comprises 5 to 20 vol.-% of electrically conductive particles having an average particle size in the range of 1 to 25 μm and exhibiting an aspect ratio in the range of 5 to 30: 1, 8 to 50 vol.-% of non-metallic particles having an average particle size in the range of 1 to 25 μm and exhibiting an aspect ratio in the range of 1 to 3: 1, 30 to 70 vol.-% of a curable resin system, 0.05 to 10 vol.-% of at least one compound selected from the group consisting of metal oxides, metal hydroxides and metal salts of C 1 -C 18 -carboxylic acids, wherein the metal is selected from the group consisting of copper, zinc and tin, and 0 to 10 vol.-% of at least one additive, wherein the sum of the vol.-% of particles and totals 25 to 55 vol.-%, characterized in that at least one of the contact surfaces is a tin contact surface. 5 to 20 vol.-% of electrically conductive particles having an average particle size in the range of 1 to 25 μm and exhibiting an aspect ratio in the range of 5 to 30: 1, 8 to 50 vol.-% of non-metallic particles having an average particle size in the range of 1 to 25 μm and exhibiting an aspect ratio in the range of 1 to 3: 1, 30 to 70 vol.-% of a curable resin system, 0.05 to 10 vol.-% of at least one compound selected from the group consisting of metal oxides, metal hydroxides and metal salts of C 1 -C 18 -carboxylic acids, wherein the metal is selected from the group consisting of copper, zinc and tin, and 0 to 10 vol.-% of at least one additive,
A switch panel, in particular for a medium voltage, comprising at least one busbar terminal which is connectable to at least one cable connector via a switchgear having a disconnecting function, wherein a grounding switch is provided in the switch panel for grounding the cable connector and its actuation is prevented by a blocking mechanism when the switchgear is in its operating position, characterized in that a release device (F1-F5) is provided for deactivating the blocking mechanism and also enables an actuation of the grounding switch when the switchgear is in its operating position; and the blocking mechanism has a segmented blocking slider (22, 22a, 22b) which as part of the release device (F1-F5) has a pivotable, rotatable or displaceable segment.
A scheduling method for controlling wireless transmission of an electrical data signal by an apparatus (1 to 6) deployed within a predefined area, comprising controlling transmission of the data signal according to a preset policy such that, while a human belonging to a specific predetermined category is present within the predefined area, transmission of the data signal is suspended unless it is, or becomes, urgent, said suspension being based on the determination of a tracking system that is adapted to determine the presence and location of humans and to determine who said humans are; wherein the specific predetermined category is one of a plurality of predetermined categories consisting of (i) a category for people with certain health conditions, (ii) a category for people who are potentially more vulnerable, (iii) a category for people with a recent history of high EMF exposure, and (iv) a category for people with a daily EMF exposure level aggregated from multiple locations.
A DC circuit breaker arrangement for interrupting a direct current on a line, comprising: - n DC circuit breakers (1 1, 1 2, 1 3) connected in parallel, where n > 2, which parallel connection of DC circuit breakers is connected in series with said line, said direct current of said line being divided between said n DC circuit breakers (1 1, 1 2, 1 3), where each DC circuit breaker (1 1, 1 2, 1 3) comprises an interrupter (2 1, 2 2, 2 3), the DC circuit breaker arrangement being characterized in that each DC circuit breaker comprises a resonant LC branch (3 1, 3 2, 3 3, 4 1, 4 2, 4 3) and a non-linear resistor (5 1, 5 2, 5 3) connected in parallel with said interrupter (2 1, 2 2, 2 3), and in that the DC circuit breaker arrangement further comprises - n reactors, each reactor being connected to one of the DC circuit breakers (1 1, 1 2, 1 3), for preserving said current division during current interruption when one of the interrupters breaks its current while the others are in the process of extinguishing their arcs. - n DC circuit breakers (1 1, 1 2, 1 3) connected in parallel, where n > 2, which parallel connection of DC circuit breakers is connected in series with said line, said direct current of said line being divided between said n DC circuit breakers (1 1, 1 2, 1 3), where each DC circuit breaker (1 1, 1 2, 1 3) comprises an interrupter (2 1, 2 2, 2 3), the DC circuit breaker arrangement being characterized in that each DC circuit breaker comprises a resonant LC branch (3 1, 3 2, 3 3, 4 1, 4 2, 4 3) and a non-linear resistor (5 1, 5 2, 5 3) connected in parallel with said interrupter (2 1, 2 2, 2 3), and in that the DC circuit breaker arrangement further comprises - n reactors, each reactor being connected to one of the DC circuit breakers (1 1, 1 2, 1 3), for preserving said current division during current interruption when one of the interrupters breaks its current while the others are in the process of extinguishing their arcs.
An ink-jet printing apparatus comprising: an ink-jet printing head that ejects a water-based ink onto a resin printing medium that is transported in a feeding direction thereof; a pair of support rolls for supporting the printing medium; and an under heater that is disposed between one of the pair of support rolls and the other of the pair of support rolls in the feeding direction of the printing medium and that heats the printing medium from a rear side surface of the printing medium opposed to a front side surface thereof which faces to the ink-jet printing head, characterized in that, upon printing, the under heater is disposed at a position spaced apart from a tangential plane to both of an outer cylindrical side surface of the one of the pair of support rolls and an outer cylindrical side surface of the other of the pair of support rolls and the under heater is disposed at a position spaced at a distance of not less than 0.05 mm and not more than 3.0 mm apart from the rear side surface of the printing medium. an ink-jet printing head that ejects a water-based ink onto a resin printing medium that is transported in a feeding direction thereof; a pair of support rolls for supporting the printing medium; and an under heater that is disposed between one of the pair of support rolls and the other of the pair of support rolls in the feeding direction of the printing medium and that heats the printing medium from a rear side surface of the printing medium opposed to a front side surface thereof which faces to the ink-jet printing head, characterized in that, upon printing, the under heater is disposed at a position spaced apart from a tangential plane to both of an outer cylindrical side surface of the one of the pair of support rolls and an outer cylindrical side surface of the other of the pair of support rolls and the under heater is disposed at a position spaced at a distance of not less than 0.05 mm and not more than 3.0 mm apart from the rear side surface of the printing medium.
A delivery assembly suitable for depositing a gasket made of polymeric material within a seat having a predefined shape provided within a product, the delivery assembly comprising: at least one working head provided with a nozzle for dispensing said polymeric material in the liquid state whereby an increase in volume is associated with said polymeric material at the phase transition from liquid to solid to form an expanded gasket, due to the increase in volume, and to define by interference a stable coupling with the seat; an automatic and reprogrammable movement apparatus for said head, which is adapted to define for said nozzle a trajectory that replicates the profile of the seat; two elastically deformable joints for the connection of said movement apparatus to a support of said nozzle, said support being constituted by a first plate, which supports said head and said nozzle, said first plate being connected to a second plate, which is jointly connected to said movement apparatus, by means of said two elastically deformable joints, which act elastically along respectively two mutually perpendicular directions in order to allow relative movements of said nozzle with respect to said apparatus along said two mutually perpendicular directions. at least one working head provided with a nozzle for dispensing said polymeric material in the liquid state whereby an increase in volume is associated with said polymeric material at the phase transition from liquid to solid to form an expanded gasket, due to the increase in volume, and to define by interference a stable coupling with the seat; an automatic and reprogrammable movement apparatus for said head, which is adapted to define for said nozzle a trajectory that replicates the profile of the seat; two elastically deformable joints for the connection of said movement apparatus to a support of said nozzle, said support being constituted by a first plate, which supports said head and said nozzle, said first plate being connected to a second plate, which is jointly connected to said movement apparatus, by means of said two elastically deformable joints, which act elastically along respectively two mutually perpendicular directions in order to allow relative movements of said nozzle with respect to said apparatus along said two mutually perpendicular directions.
Method for producing a layer composite, comprising the following method steps: a) providing at least one layer made of a refractory metal, as well as at least one layer of another metal and/or a metal alloy, which with a refractory metal form a mixed crystal, b) laying the layers in an alternating manner, in each case with one layer of a refractory metal and one layer of another metal and/or a metal alloy, which with a refractory metal form a mixed crystal, to form a layer stack with contiguous contact surfaces, c) diffusion welding of the layers in the layer stack in the absence of an oxidizing atmosphere at a temperature between 0.4 and 0.9 times the melting temperature of the metal and at a pressure with a directional component oriented orthogonally to the contact surfaces, and characterised in that d) during the diffusion welding the pressure changes its level in a dynamic pressure guidance process. a) providing at least one layer made of a refractory metal, as well as at least one layer of another metal and/or a metal alloy, which with a refractory metal form a mixed crystal, b) laying the layers in an alternating manner, in each case with one layer of a refractory metal and one layer of another metal and/or a metal alloy, which with a refractory metal form a mixed crystal, to form a layer stack with contiguous contact surfaces, c) diffusion welding of the layers in the layer stack in the absence of an oxidizing atmosphere at a temperature between 0.4 and 0.9 times the melting temperature of the metal and at a pressure with a directional component oriented orthogonally to the contact surfaces, and characterised in that d) during the diffusion welding the pressure changes its level in a dynamic pressure guidance process.
A Radio Frequency, RF, receiver comprising: a lower-order phase shift keying, PSK, demodulation circuit configured to generate at least one locking parameter when performing a lower-order PSK demodulation of an RF receive signal comprising an interfering PSK signal component, the locking parameter comprising at least one of a carrier frequency of the RF receive signal and a symbol rate of the RF receive signal, wherein the lower-order PSK demodulation includes at least one of a binary phase shift keying, BPSK, and quadrature phase shift keying, QPSK, demodulation; and a higher-order PSK demodulation circuit, having a higher order than the lower-order PSK demodulation circuit, and configured to lock to the RF receive signal using the at least one locking parameter from the lower-order PSK demodulation circuit, perform the higher-order PSK demodulation of the RF receive signal based upon locking to the RF receive signal to determine the interfering PSK signal component, wherein the higher-order PSK demodulation includes at least one of a 8 PSK and 16 PSK and a 16 quadrature amplitude modulation, QAM, and a 64 QAM and a 128 QAM and a 256 QAM demodulation. a lower-order phase shift keying, PSK, demodulation circuit configured to generate at least one locking parameter when performing a lower-order PSK demodulation of an RF receive signal comprising an interfering PSK signal component, the locking parameter comprising at least one of a carrier frequency of the RF receive signal and a symbol rate of the RF receive signal, wherein the lower-order PSK demodulation includes at least one of a binary phase shift keying, BPSK, and quadrature phase shift keying, QPSK, demodulation; and a higher-order PSK demodulation circuit, having a higher order than the lower-order PSK demodulation circuit, and configured to lock to the RF receive signal using the at least one locking parameter from the lower-order PSK demodulation circuit, perform the higher-order PSK demodulation of the RF receive signal based upon locking to the RF receive signal to determine the interfering PSK signal component, wherein the higher-order PSK demodulation includes at least one of a 8 PSK and 16 PSK and a 16 quadrature amplitude modulation, QAM, and a 64 QAM and a 128 QAM and a 256 QAM demodulation.
A hollowed-out non-pneumatic tire with reinforcing ribs, comprising a tire body, a row of through holes or multiple rows of through holes which are uniformly and annularly distributed in the tire body, wherein the through holes are uniformly distributed in the tire body in 360 degrees taking a central axis of the tire body as a center, and the through holes are configured to transversely penetrate through two sides of the tire body, the reinforcing ribs are arranged in the through holes, characterized in that the through holes consist of an inner row of holes and an outer row of holes, each hole of the inner row of holes is arranged at a corresponding position between two neighboring holes of the outer row of holes to form an inverted-triangle structure, and the reinforcing ribs in the inner row of holes and the outer row of holes are distributed at a consistent angle and in opposite directions.
A method of removing stent islands, the method comprising: positioning a stent(10, 120) over a first tube, the stent comprising a pattern of stent struts (11, 12, 13, 14, 15) formed by laser cutting of a second tube, the stent further comprising removable islands, which are removable portions of tubing material of the second tube attached to the stent struts, wherein the islands remain attached to the stent struts after laser cutting and are not intended to be part of the pattern, wherein the first tube includes at least one opening on the surface of the first tube; conveying a pressurized gas into the first tube, wherein the pressurized gas exits through the at least one opening, and wherein the exiting pressurized gas facilitates removal of at least one of the islands from the stent pattern. positioning a stent(10, 120) over a first tube, the stent comprising a pattern of stent struts (11, 12, 13, 14, 15) formed by laser cutting of a second tube, the stent further comprising removable islands, which are removable portions of tubing material of the second tube attached to the stent struts, wherein the islands remain attached to the stent struts after laser cutting and are not intended to be part of the pattern, wherein the first tube includes at least one opening on the surface of the first tube; conveying a pressurized gas into the first tube, wherein the pressurized gas exits through the at least one opening, and wherein the exiting pressurized gas facilitates removal of at least one of the islands from the stent pattern.
A method implemented by a user equipment (200, 1530) of receiving precoder matrix indication from a base station (100, 1520) in a wireless communication network, said user equipment being configured to transmit over multiple antenna ports, said method comprising: receiving a control message from a base station (100, 1520) including a precoding matrix indication field configurable to at least a first and second configuration, wherein the first configuration of the precoding matrix indication field identifies precoding matrices in both a first set and a second set of precoding matrices, where the first and second set of precoding matrices correspond to a requirement for a first and second transmission coherence of the user equipment, respectively; and wherein the second configuration of the precoding matrix indication field occupies fewer information bits than the first configuration and identifies precoding matrices in the second set of precoding matrices, but not the first set of precoding matrices. receiving a control message from a base station (100, 1520) including a precoding matrix indication field configurable to at least a first and second configuration, wherein the first configuration of the precoding matrix indication field identifies precoding matrices in both a first set and a second set of precoding matrices, where the first and second set of precoding matrices correspond to a requirement for a first and second transmission coherence of the user equipment, respectively; and wherein the second configuration of the precoding matrix indication field occupies fewer information bits than the first configuration and identifies precoding matrices in the second set of precoding matrices, but not the first set of precoding matrices.
A treatment planning method for generating a treatment plan for radiation therapy in which a collimator (27, 41) is used to shape the radiation beam, where the radiation is planned to be delivered from at least one beam direction, said method comprising • obtaining a first fluence map for each beam direction, • for each first fluence map, determining a first and a second value of a delivery parameter for the fluence map for a first and a second possible collimator angle, respectively, the delivery parameter being based on delivery time or monitor units for the fluence map for the respective combination of beam direction and collimator angle, • obtaining an optimization problem comprising an objective function that depends on the delivery parameter, • performing an optimization with respect to the optimization problem, said optimization comprising selecting at least one of the possible collimator angles for each beam direction, on the basis of the first and second values of the delivery parameter, an output from the optimization being a collimator angle trajectory, • using the result of the optimization to generate a treatment plan that will follow the collimator angle trajectory. • obtaining a first fluence map for each beam direction, • for each first fluence map, determining a first and a second value of a delivery parameter for the fluence map for a first and a second possible collimator angle, respectively, the delivery parameter being based on delivery time or monitor units for the fluence map for the respective combination of beam direction and collimator angle, • obtaining an optimization problem comprising an objective function that depends on the delivery parameter, • performing an optimization with respect to the optimization problem, said optimization comprising selecting at least one of the possible collimator angles for each beam direction, on the basis of the first and second values of the delivery parameter, an output from the optimization being a collimator angle trajectory, • using the result of the optimization to generate a treatment plan that will follow the collimator angle trajectory.