mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting and receiving information signals having a plurality of symbol vectors associated therewith, the method comprising: precoding said symbol vectors, each comprising two or more symbols, by multiplying, in the following order, said symbol vectors with: a first column subset of a unitary matrix which spreads symbols in said symbol vectors across all virtual transmit antennas, a second diagonal cyclic delay diversity, CDD, matrix which changes a phase of the symbols spread across said virtual transmit antennas, and a third precoding matrix which distributes transmit energy across a plurality of physical transmit antennas, further processing said precoded symbol vectors to generate said information signals; transmitting said information signals; receiving the transmitted information signals and estimating the symbol vectors associated therewith. precoding said symbol vectors, each comprising two or more symbols, by multiplying, in the following order, said symbol vectors with: a first column subset of a unitary matrix which spreads symbols in said symbol vectors across all virtual transmit antennas, a second diagonal cyclic delay diversity, CDD, matrix which changes a phase of the symbols spread across said virtual transmit antennas, and a third precoding matrix which distributes transmit energy across a plurality of physical transmit antennas, a first column subset of a unitary matrix which spreads symbols in said symbol vectors across all virtual transmit antennas, a second diagonal cyclic delay diversity, CDD, matrix which changes a phase of the symbols spread across said virtual transmit antennas, and a third precoding matrix which distributes transmit energy across a plurality of physical transmit antennas, further processing said precoded symbol vectors to generate said information signals; transmitting said information signals; receiving the transmitted information signals and estimating the symbol vectors associated therewith.
Water-conducting household appliance, in particular dishwasher, with a sensor apparatus for determining an ion profile of a liquid, wherein the ion profile comprises an item of information relating to the concentration of different types of ion contained in the liquid, wherein the sensor apparatus has a pipeline section to allow the liquid to pass through, a first electrode, a second electrode and a number of sensor elements, wherein the first electrode, the second electrode and the pipeline section are arranged relative to one another so that by applying a voltage between the first electrode and the second electrode, an electrical field forms in at least one part of the pipeline section, and wherein the sensor elements are arranged on an edge of the pipeline section and are designed to ascertain a local liquid property in order to determine the ion profile of the liquid routed through the pipeline section.
A drug mixing system comprising: a housing comprising a fluid channel disposed between a first chamber and a second chamber, wherein a dry medicament is initially in the fluid channel or outside the fluid channel out still contained within a dry medicament storage assembly in a movable body, and wherein the first chamber is configured to store a wet component; a delivery assembly the movable body comprising the fluid channel and a pair of plungers (120, 122) disposed between the first and second chambers (112, 114); an actuation device and a stored energy source both configured to cause movement of the movable body, relative to the first and second chambers (112, 114), wherein during a first actuation process, the actuation device is arranged to move the movable body relative to the first chamber causing the first plunger to move away from the delivery assembly and into the first chamber thus creating fluid communication between the fluid channel and the first and second chambers (112, 114), to thereby force a portion of the wet component from the first chamber through the fluid channel into the second chamber; and wherein during a second actuation process, the stored energy source is arranged to move the movable body relative to the second chamber allowing the second plunger to move into the second chamber, the movement of the second plunger into the second chamber being toward the delivery assembly to thereby force the combined wet component and dry medicament into the delivery assembly. a housing comprising a fluid channel disposed between a first chamber and a second chamber, wherein a dry medicament is initially in the fluid channel or outside the fluid channel out still contained within a dry medicament storage assembly in a movable body, and wherein the first chamber is configured to store a wet component; a delivery assembly the movable body comprising the fluid channel and a pair of plungers (120, 122) disposed between the first and second chambers (112, 114); an actuation device and a stored energy source both configured to cause movement of the movable body, relative to the first and second chambers (112, 114), wherein during a first actuation process, the actuation device is arranged to move the movable body relative to the first chamber causing the first plunger to move away from the delivery assembly and into the first chamber thus creating fluid communication between the fluid channel and the first and second chambers (112, 114), to thereby force a portion of the wet component from the first chamber through the fluid channel into the second chamber; and wherein during a second actuation process, the stored energy source is arranged to move the movable body relative to the second chamber allowing the second plunger to move into the second chamber, the movement of the second plunger into the second chamber being toward the delivery assembly to thereby force the combined wet component and dry medicament into the delivery assembly.
A simulation facility comprising: an operational model facility (30, 40) of a real infrastructure facility (200, 300) that mimics at least in part operations of the real infrastructure facility and comprises equipment that corresponds to and mimics operations of equipment in the real infrastructure facility; attack toolware for use by a first team of people in mounting cyber attacks on the model facility; operations and management toolware for use by a second team of people in operating the model facility and in defending the model facility against the cyber attacks mounted by the first team of people using the attack toolware; and a controller having a memory and operable to acquire and store in the memory a forensic record of cyber attacks mounted by the first team of people on the model facility and defense strategies undertaken by the second team of people to defend the model facility against the cyber attacks, wherein the forensic record comprises data indicative of at least one of human activity of the second team and physiological features of the second team. an operational model facility (30, 40) of a real infrastructure facility (200, 300) that mimics at least in part operations of the real infrastructure facility and comprises equipment that corresponds to and mimics operations of equipment in the real infrastructure facility; attack toolware for use by a first team of people in mounting cyber attacks on the model facility; operations and management toolware for use by a second team of people in operating the model facility and in defending the model facility against the cyber attacks mounted by the first team of people using the attack toolware; and attack toolware for use by a first team of people in mounting cyber attacks on the model facility; operations and management toolware for use by a second team of people in operating the model facility and in defending the model facility against the cyber attacks mounted by the first team of people using the attack toolware; and a controller having a memory and operable to acquire and store in the memory a forensic record of cyber attacks mounted by the first team of people on the model facility and defense strategies undertaken by the second team of people to defend the model facility against the cyber attacks, wherein the forensic record comprises data indicative of at least one of human activity of the second team and physiological features of the second team.
A balloon catheter for insertion into a body lumen with blood flowing therethrough, the balloon catheter comprising: an elongate member defining an inflation lumen, the elongate member having a proximal end and a distal end; and a plurality of balloons coupled to the distal end of the elongate member and connected in fluid communication with the inflation lumen of the elongate member, wherein the balloons are arranged circumferentially about a central axis so as to form a lumen extending along the central axis and wherein the lumen is configured to allow passage of the blood therethrough, wherein each of the balloons comprises a non-circular cross-sectional shape having at least two substantially straight side portions extending radially relative to the central axis, and wherein each substantially straight side portion at least partially abuts the substantially straight side portion of an adjacent one of the balloons, characterized in that the balloon catheter further comprises an elongate, hollow structure having porosity and being coupled to the distal end of the elongate member, the hollow elongate structure extending along the central axis within the lumen and at least partially supporting the balloons, wherein the porosity allows perfusion of blood through the lumen prior to full inflation of the balloons. an elongate member defining an inflation lumen, the elongate member having a proximal end and a distal end; and a plurality of balloons coupled to the distal end of the elongate member and connected in fluid communication with the inflation lumen of the elongate member, wherein the balloons are arranged circumferentially about a central axis so as to form a lumen extending along the central axis and wherein the lumen is configured to allow passage of the blood therethrough, wherein each of the balloons comprises a non-circular cross-sectional shape having at least two substantially straight side portions extending radially relative to the central axis, and wherein each substantially straight side portion at least partially abuts the substantially straight side portion of an adjacent one of the balloons, characterized in that the balloon catheter further comprises an elongate, hollow structure having porosity and being coupled to the distal end of the elongate member, the hollow elongate structure extending along the central axis within the lumen and at least partially supporting the balloons, wherein the porosity allows perfusion of blood through the lumen prior to full inflation of the balloons.
A programmable circuit comprising: a physical interface (402, 450) at an input/output periphery of the programmable circuit; and a partial reconfigurable module, at the input/output periphery of the programmable circuit, characterized in that the programmable circuit is adapted to reconfigure one or more resources of the partial reconfigurable module on the programmable circuit to implement a sequencer unit operable to configure the physical interface (402, 450) during a first time period, and to reconfigure said one or more resources of the partial reconfigurable module on the programmable circuit to implement a controller unit operable to translate commands to the physical interface (402, 450) during another second time period. a physical interface (402, 450) at an input/output periphery of the programmable circuit; and a partial reconfigurable module, at the input/output periphery of the programmable circuit, characterized in that the programmable circuit is adapted to reconfigure one or more resources of the partial reconfigurable module on the programmable circuit to implement a sequencer unit operable to configure the physical interface (402, 450) during a first time period, and to reconfigure said one or more resources of the partial reconfigurable module on the programmable circuit to implement a controller unit operable to translate commands to the physical interface (402, 450) during another second time period.
A motor-generator, comprising: a stator disposed along a centerline including a stator pole, a first stator winding and a second stator winding, wherein the first stator winding is wound on the stator pole and the second stator winding is wound on the stator pole; and at least one rotor axially disposed from the stator along the centerline; wherein the first stator winding is a high voltage stator winding, wherein the second stator winding is a low voltage stator winding; and characterized in that the motor-generator is an axial flux motor-generator, wherein the first stator winding is axially adjacent to the second stator winding along the stator pole. a stator disposed along a centerline including a stator pole, a first stator winding and a second stator winding, wherein the first stator winding is wound on the stator pole and the second stator winding is wound on the stator pole; and at least one rotor axially disposed from the stator along the centerline; wherein the first stator winding is a high voltage stator winding, wherein the second stator winding is a low voltage stator winding; and characterized in that the motor-generator is an axial flux motor-generator, wherein the first stator winding is axially adjacent to the second stator winding along the stator pole.
A wind turbine nacelle for being mounted on a tower of a wind turbine, wherein the wind turbine nacelle comprises a nacelle frame and a drive train comprising a gearbox, the nacelle comprises a tubular part at an end of the nacelle frame furthest away from the tower when mounted on the tower for supporting at least one rotor bearing the gearbox is attachable to a rotor, wherein - the gearbox comprises a gearbox housing which is separate to the nacelle frame, - the gearbox housing is rigidly and axially connected to the nacelle frame by a gearbox flange connected to a nacelle frame flange, whereby a side of the gearbox flange that is located furthest away from the input of the gearbox as seen in a direction along a reference axis from input to output of the gearbox is connected to an end of the nacelle frame flange furthest away from the tower of the wind turbine, - an input shaft of the gearbox is connectable to the rotor hub via a separate connection part, characterized in that - the input shaft is a planet carrier. - the gearbox comprises a gearbox housing which is separate to the nacelle frame, - the gearbox housing is rigidly and axially connected to the nacelle frame by a gearbox flange connected to a nacelle frame flange, whereby a side of the gearbox flange that is located furthest away from the input of the gearbox as seen in a direction along a reference axis from input to output of the gearbox is connected to an end of the nacelle frame flange furthest away from the tower of the wind turbine, - an input shaft of the gearbox is connectable to the rotor hub via a separate connection part, characterized in that - the input shaft is a planet carrier.
A sensor unit comprising a sensor array having at least 100x100 sensor pixels, a fixed focus lens system, and a light transmissive sensor window comprising optical structures, wherein the light transmissive sensor window is configured at a window distance d from said sensor array, wherein the lens system is configured between the sensor array and said sensor window, and wherein an object plane and an image plane defined by said lens system and sensor array have an object-image plane distance d1 selected from the range of 0.1 ∗ d - 2 ∗ d, wherein the optical structures are configured in a pattern, wherein the optical structures have one or more dimensions selected from length, width and diameter selected from the range of 50 μm - 20 mm, and wherein neighboring optical structures have shortest distances selected from the range of 0-50 mm; wherein the lens system is configured to provide said object-image plane d1 selected from the range of 0.1 ∗ d - 2 ∗ d, and wherein said image plane coincides with the sensor array; wherein the optical structures are selected from the group of dots, facets, pyramids, lines, grooves, lamellae, and lenses.
A synergistic antimicrobial composition comprising: (a) a hydroxymethyl-substituted phosphorus compound selected from the group consisting of tetrakis(hydroxymethyl)phoshponium salts and tris(hydroxymethyl)phosphine; and (b) tris(hydroxymethyl)nitromethane; wherein a weight ratio of the hydroxymethyl-substituted phosphorus compound to tris(hydroxymethyl)nitromethane is from 8:1 to 1:12.
A switchgear comprising: - a high-voltage compartment in which is installed at least a switching device and a conductor, which is connected to the switching device, in a sealed vessel in which insulation gas is encapsulated; - an operation mechanism compartment (3, 4) in which is installed an operation mechanism for operating the switching device; - a control compartment in which is installed a control instrument for controlling the switching device; - a base frame (6a, 6b) which supports the high-voltage compartment; and - a plurality of cable compartments (11, 12, 13) separated from each other, in which respectively a cable is installed which is connected to the conductor, one of the cable compartments extending from a bottom portion to an upper portion, at a top surface of the switchgear; wherein a duct (14, 15), by which inside portions of the plurality of cable compartments (11, 12, 13) are linked to each other, is provided; and a gas flow direction restriction device, by which high-pressure gas is flowed only in a predetermined direction in the duct (14, 15) when the high-pressure gas is generated at the inside of at least one (11,12) of the cable compartments, wherein the duct (14, 15) is arranged at a lower position of the high-voltage compartment, allowing gas from the at least one (11,12) of the cable compartments to be ejected through said upper portion of the cable compartment to the outside of the switchgear, and wherein the duct (14, 15) includes shield plates which are arranged in a state where the shield plates are inclined with respect to a direction where the duct (14, 15) is extended. - a high-voltage compartment in which is installed at least a switching device and a conductor, which is connected to the switching device, in a sealed vessel in which insulation gas is encapsulated; - an operation mechanism compartment (3, 4) in which is installed an operation mechanism for operating the switching device; - a control compartment in which is installed a control instrument for controlling the switching device; - a base frame (6a, 6b) which supports the high-voltage compartment; and - a plurality of cable compartments (11, 12, 13) separated from each other, in which respectively a cable is installed which is connected to the conductor, one of the cable compartments extending from a bottom portion to an upper portion, at a top surface of the switchgear;
A vibration damper of a vehicle wheel, which vibration damper is supported on the vehicle body via a damper mount having a rubber-elastic body and comprises a fluid-filled cylinder and a piston guided therein with a piston rod, with a damper chamber (7, 8) formed in the cylinder on either side of said piston, and wherein a hydraulic pressure chamber is formed in the damper mount and is connected via a fluidic connection comprising a throttle valve (25, 26, 27) to that damper chamber of which the volume is reduced when the wheel is deflected relative the vehicle body, characterised in that the vibration damper is part of an active damper system, in which the damper piston can be moved relative to the damper cylinder by means of an electric-motor-driveable hydraulic pump so as to act as a force-regulating hydraulic cylinder in that the damper chambers (7, 8) formed in the damper cylinder on both sides of the damper piston are hydraulically connected to one another via the driveable hydraulic pump, and wherein a hydraulic pressure store is connected to this hydraulic circuit, and wherein the aforesaid throttle valve (25, 26, 27) has a valve body, which is movable against spring force relative to a valve seat and comprises a throttle bore, wherein the throttle bore is designed such that, in the event of vibration frequencies between the vehicle wheel and the vehicle body in the low-frequency range of less than 10-15 hertz, a complete pressure equalisation is provided between the hydraulic pressure chamber and said damper chamber, whereas higher-frequency or high-frequency vibration excitations above 10 hertz to 15 hertz up to several thousand hertz are damped by means of the rubber-elastic body of the damper mount, wherein in order to relieve the load thereon a differential pressure is provided between the pressure chamber of the damper mount and the damper chamber.
A method for transmitting a vehicle-to-everything, V2X, signal performed by a user equipment, UE, having a limited transmission capability in a multi-carrier system, the method comprising: determining an ordering of a first carrier and a second carrier; selecting a first resource in the first carrier; based on a use of a specific subframe in the second carrier exceeding a transmission capability of the UE considering the first resource, selecting a second resource randomly among remaining subframes except the specific subframe in the second carrier; and transmitting the V2X signal using the first resource and the second resource, wherein the selection of the first resource in the first carrier being prior to the selection of the second resource in the second carrier is based on the ordering, and wherein the ordering of the first carrier and the second carrier is determined based on a highest ProSe priority per packet, PPPP, value of PPPP values of V2X messages transmitted on the first carrier and the second carrier and a channel busy ratio, CBR, measurement. determining an ordering of a first carrier and a second carrier; selecting a first resource in the first carrier; based on a use of a specific subframe in the second carrier exceeding a transmission capability of the UE considering the first resource, selecting a second resource randomly among remaining subframes except the specific subframe in the second carrier; and transmitting the V2X signal using the first resource and the second resource, wherein the selection of the first resource in the first carrier being prior to the selection of the second resource in the second carrier is based on the ordering, and wherein the ordering of the first carrier and the second carrier is determined based on a highest ProSe priority per packet, PPPP, value of PPPP values of V2X messages transmitted on the first carrier and the second carrier and a channel busy ratio, CBR, measurement.