mhurhangee/ep-ind-claims huggingface dataset:
A sensor adapted for detecting the angular position (θ) about an axis of an electrically conductive target which is rotatable about said axis, the target comprising a cylinder, • wherein either an end surface of the cylinder is inclined with regard to said axis such that the target is rotationally asymmetric, • or wherein an end (1004; 1044) of the target (1000; 1040) comprises a conductive material (1002; 1042) defining the conductive properties of the surface of the target, and wherein the conductive material varies in thickness to vary the conductivity of the end of the target, wherein the sensor comprises: a main coil (102; 200; 300) to direct a magnetic field at said rotatable target for inducing eddy currents in the target; pick-up coils (106; 206a,b) for detecting a reflected magnetic field from the target wherein each pick-up coil comprises a pair of adjacent pick-up windings wound in opposite directions and connected in series, and the pick-up coils are configured such that each of their respective outputs represents an asymmetric magnetic field reflected from the target due to the eddy currents induced in the target by the main coil; and a processing module (110; 218) configured to process the outputs of the pick-up coils for determining said angular position. • wherein either an end surface of the cylinder is inclined with regard to said axis such that the target is rotationally asymmetric, • or wherein an end (1004; 1044) of the target (1000; 1040) comprises a conductive material (1002; 1042) defining the conductive properties of the surface of the target, and wherein the conductive material varies in thickness to vary the conductivity of the end of the target, a main coil (102; 200; 300) to direct a magnetic field at said rotatable target for inducing eddy currents in the target; pick-up coils (106; 206a,b) for detecting a reflected magnetic field from the target wherein each pick-up coil comprises a pair of adjacent pick-up windings wound in opposite directions and connected in series, and the pick-up coils are configured such that each of their respective outputs represents an asymmetric magnetic field reflected from the target due to the eddy currents induced in the target by the main coil; and a processing module (110; 218) configured to process the outputs of the pick-up coils for determining said angular position.
An information system, comprising: a circuit breaker connectable to a load and having a current interrupting portion; a data processing unit; a communications bus using a profibus communication protocol and configured to be coupled to the data processing unit; and an electronic monitoring unit of an application specific module, wherein the electronic monitoring unit is configured to provide at least one of monitoring, control, and communications functions for the circuit breaker, wherein the application specific module is arranged between the circuit breaker and the communication bus, and in communication with the circuit breaker and with the communications bus and wherein a power line is connected to the application specific module and adapted to supply zone selective interlock signals to the application specific module, so as to allow circuit breakers that are downstream from a particular circuit breaker to be tripped without tripping upstream circuit breakers. a circuit breaker connectable to a load and having a current interrupting portion; a data processing unit; a communications bus using a profibus communication protocol and configured to be coupled to the data processing unit; and an electronic monitoring unit of an application specific module, wherein the electronic monitoring unit is configured to provide at least one of monitoring, control, and communications functions for the circuit breaker, wherein the application specific module is arranged between the circuit breaker and the communication bus, and in communication with the circuit breaker and with the communications bus and wherein a power line is connected to the application specific module and adapted to supply zone selective interlock signals to the application specific module, so as to allow circuit breakers that are downstream from a particular circuit breaker to be tripped without tripping upstream circuit breakers.
A method of controlling an operation of a hybrid vehicle, the method comprising: determining whether a current position corresponds to a specific area associated with exhaust emissions; determining whether catalyst heating is necessary using either one of a measured or an estimated temperature of an engine; determining whether a first mode driving is possible, when it is determined that the current position corresponds to the specific area and the catalyst heating is necessary; and performing the first mode driving when the first mode driving is determined to be possible, or performing a second mode driving when the first mode driving is determined to be impossible, wherein the first mode driving is performed by using an electric motor, and wherein the second mode driving is performed by using at least the engine, starting the engine by an engine starting determination unit, said engine starting determination unit determining whether or not an engine starting restriction condition is satisfied; wherein the step of determining whether a first mode driving is possible comprises: determining whether a predetermined engine starting restriction condition is satisfied; and determining that the first mode driving is impossible when the engine starting restriction condition is satisfied. determining whether a current position corresponds to a specific area associated with exhaust emissions; determining whether catalyst heating is necessary using either one of a measured or an estimated temperature of an engine; determining whether a first mode driving is possible, when it is determined that the current position corresponds to the specific area and the catalyst heating is necessary; and performing the first mode driving when the first mode driving is determined to be possible, or performing a second mode driving when the first mode driving is determined to be impossible, wherein the first mode driving is performed by using an electric motor, and wherein the second mode driving is performed by using at least the engine, starting the engine by an engine starting determination unit, said engine starting determination unit determining whether or not an engine starting restriction condition is satisfied; wherein the step of determining whether a first mode driving is possible comprises: determining whether a predetermined engine starting restriction condition is satisfied; and determining that the first mode driving is impossible when the engine starting restriction condition is satisfied. determining whether a predetermined engine starting restriction condition is satisfied; and determining that the first mode driving is impossible when the engine starting restriction condition is satisfied.
An aerosolization device for providing aerosolized medicament to a user, the aerosolization device comprising: a mouthpiece end by which a user may cause an inspiratory flow through a conduit; an aerosol generator leading in to the conduit which includes a vibratable mesh; a fluid receiving chamber leading into the aerosol generator for receiving a volume of a liquid medicament, wherein the fluid receiving chamber comprises a tapered chamber having a top opening and a smaller base opening for directing liquid medicament onto the vibratable mesh for aerosolization; an outer housing; and a top cover over the top opening of the fluid receiving chamber, wherein the top cover defines an opening which provides fluid access to the fluid receiving chamber, characterised in that the top cover comprises a set of spokes which extend outwardly from the opening and extend beyond the top opening thereby to seat the top cover over the outer housing. a mouthpiece end by which a user may cause an inspiratory flow through a conduit; an aerosol generator leading in to the conduit which includes a vibratable mesh; a fluid receiving chamber leading into the aerosol generator for receiving a volume of a liquid medicament, wherein the fluid receiving chamber comprises a tapered chamber having a top opening and a smaller base opening for directing liquid medicament onto the vibratable mesh for aerosolization; an outer housing; and a top cover over the top opening of the fluid receiving chamber, wherein the top cover defines an opening which provides fluid access to the fluid receiving chamber, characterised in that the top cover comprises a set of spokes which extend outwardly from the opening and extend beyond the top opening thereby to seat the top cover over the outer housing.
A power storage device comprising: a lower case having a bottom portion provided with a protrusion that protrudes downward; and a cooler located below the bottom portion, wherein the cooler includes a cooling portion having an end portion that faces the protrusion in a first direction perpendicular to an up-down direction, wherein the cooling portion has an upper plate and a lower plate stacked in the up-down direction, wherein the upper plate and the lower plate are joined at respective joint surfaces in the end portion, and wherein the lower plate has an extended portion that extends toward the protrusion further than the upper plate in the end portion. a lower case having a bottom portion provided with a protrusion that protrudes downward; and a cooler located below the bottom portion, wherein the cooler includes a cooling portion having an end portion that faces the protrusion in a first direction perpendicular to an up-down direction, wherein the cooling portion has an upper plate and a lower plate stacked in the up-down direction, wherein the upper plate and the lower plate are joined at respective joint surfaces in the end portion, and wherein the lower plate has an extended portion that extends toward the protrusion further than the upper plate in the end portion.
A method comprising: powering up a system on a chip (SoC) with a system control circuitry that contains a central processing unit; holding the CPU in a reset condition; using a serial boot hardware, with no CPU and firmware involvement, to configure the system to interface with various system memory architectures including random memory types and organizations; retrieving, over a serial data bus using the serial boot hardware and a serial communications protocol, information about a system memory configuration and a boot program from a first section of a first serial programmable read only memory (PROM); retrieving, over a serial data bus using the serial boot hardware and the serial communications protocol, a boot program from a second section of the first serial PROM using the information about the system memory configuration and the boot program; writing the boot program into a system memory that is external to the SoC; releasing the CPU from the reset condition; and booting the SoC using the boot program. powering up a system on a chip (SoC) with a system control circuitry that contains a central processing unit; holding the CPU in a reset condition; using a serial boot hardware, with no CPU and firmware involvement, to configure the system to interface with various system memory architectures including random memory types and organizations; retrieving, over a serial data bus using the serial boot hardware and a serial communications protocol, information about a system memory configuration and a boot program from a first section of a first serial programmable read only memory (PROM); retrieving, over a serial data bus using the serial boot hardware and the serial communications protocol, a boot program from a second section of the first serial PROM using the information about the system memory configuration and the boot program; writing the boot program into a system memory that is external to the SoC; releasing the CPU from the reset condition; and booting the SoC using the boot program.
Method for reading a memory element, which has a circuit of at least two memory cells A and B, each having a stable state A0 or B0 and a stable state A1 or B1, in which state 0 of the memory element is coded in the combination of states A1 and B0 and state 1 of the memory element is coded in the combination of states A0 and B1, in which none of the memory cells A and B is switched over to a different state during reading, characterised in that • a memory element is selected, which has an anti-series circuit of at least two resistive memory cells A and B, each having a stable state A0 or B0 with higher electrical resistance (R off) and a stable state A1 or B1 with lower electrical resistance (R on); • the memory element is read by measuring an electrical value of the anti-series memory cell circuit; and • an electrical value is selected for this, at which the memory cell A makes a different contribution in state A0 than the memory cell B in state B0 and/or the memory cell A makes a different contribution in state A1 than the memory cell B in state B1. • a memory element is selected, which has an anti-series circuit of at least two resistive memory cells A and B, each having a stable state A0 or B0 with higher electrical resistance (R off) and a stable state A1 or B1 with lower electrical resistance (R on); • the memory element is read by measuring an electrical value of the anti-series memory cell circuit; and • an electrical value is selected for this, at which the memory cell A makes a different contribution in state A0 than the memory cell B in state B0 and/or the memory cell A makes a different contribution in state A1 than the memory cell B in state B1.
A combination of an injection moulded panel and an article mounted to the panel, the panel comprising an integrally moulded mounting for securing the article to the panel, wherein the mounting comprises a pair of spaced mounting members (104, 106) for engagement with the article; wherein at least one of the mounting members is configured to apply a resilient biasing force to the mounted article in use, so as to hold the article in engagement with the other mounting member; characterized in that: each mounting member is configured to be insertable through a mounting aperture (12, 12') in respective mounting portions (11, 11') of said mounted article. each mounting member is configured to be insertable through a mounting aperture (12, 12') in respective mounting portions (11, 11') of said mounted article.
A floating barrier system including a floating barrier and at least two liquid-penetrable auxiliary barriers (2, 3, 4), where the at least two liquid-penetrable auxiliary barriers (2, 3, 4) are arranged in front of the floating barrier, and where the liquid-penetrating effect is achieved by a given degree of perforation, wherein the floating barrier as well as the at least two liquid-penetrable auxiliary barriers extend over a horizontal length from one end to another end at a vertical depth from an upper edge to a lower edge, characterised in that at least one of the at least two liquid-penetrable auxiliary barriers (2, 3, 4) are made with a degree of perforation which is different from at least one other liquid-penetrable auxiliary barrier (3, 4).
Use of a polyamine derivative for the transfection of polyanions into cells, said polyamine comprising: a polyamine moiety comprising a plurality of amino groups; a plurality of carboxylated substituents comprising a carboxyl group bonded via a hydrophobic linker to amino groups of said polyamine moiety, wherein each of said carboxylated substituents comprises from 6 to 40 carbon atoms, and each of said hydrophobic linkers may comprise from 1 to 3 heteroatoms selected from O, N, and S, wherein said carboxylated substituents are carboxyhydrocarbyl groups or carboxyheterohydrocarbyl groups, the latter comprising said from 1 to 3 heteroatoms; and a plurality of hydrophobic substituents bonded to amino groups of said polyamine moiety, wherein each of said hydrophobic substituents comprises at least 2 carbon atoms and may comprise from 1 to 3 heteroatoms selected from O, N, and S provided said hydrophobic substituent has at least 6 carbon atoms, wherein said hydrophobic substituents are hydrocarbyl groups or heterohydrocarbyl groups, the latter comprising said from 1 to 3 heteroatoms, provided that said use does not constitute a method of treatment of the human or animal body by therapy. a polyamine moiety comprising a plurality of amino groups; a plurality of carboxylated substituents comprising a carboxyl group bonded via a hydrophobic linker to amino groups of said polyamine moiety, wherein each of said carboxylated substituents comprises from 6 to 40 carbon atoms, and each of said hydrophobic linkers may comprise from 1 to 3 heteroatoms selected from O, N, and S, wherein said carboxylated substituents are carboxyhydrocarbyl groups or carboxyheterohydrocarbyl groups, the latter comprising said from 1 to 3 heteroatoms; and a plurality of hydrophobic substituents bonded to amino groups of said polyamine moiety, wherein each of said hydrophobic substituents comprises at least 2 carbon atoms and may comprise from 1 to 3 heteroatoms selected from O, N, and S provided said hydrophobic substituent has at least 6 carbon atoms, wherein said hydrophobic substituents are hydrocarbyl groups or heterohydrocarbyl groups, the latter comprising said from 1 to 3 heteroatoms, provided that said use does not constitute a method of treatment of the human or animal body by therapy.
A medical instrument having a distal portion and a proximal portion, the medical instrument comprising: a sensor printed on a distal portion of the medical instrument and having at least one coil formed of a conductive material; at least one non-conductive material covering the at least one coil of the at least one sensor; a conductive layer (613, 615, 623, 625, 633, 635) printed circumferentially around the proximal portion of the medical instrument; a nonconductive layer printed on top of the conductive layer; and at least one pair of contacts (320, 330; 550, 560) electrically connected to the at least one coil and coupled to the conductive layer, the conductive layer connectable to a measurement device configured to sense an induced electrical signal based on a magnetic flux change of the electromagnetic field, wherein a location of the medical instrument in a coordinate system of the electromagnetic field is identified based on the induced electrical signal in the sensor. a sensor printed on a distal portion of the medical instrument and having at least one coil formed of a conductive material; at least one non-conductive material covering the at least one coil of the at least one sensor; a conductive layer (613, 615, 623, 625, 633, 635) printed circumferentially around the proximal portion of the medical instrument; a nonconductive layer printed on top of the conductive layer; and at least one pair of contacts (320, 330; 550, 560) electrically connected to the at least one coil and coupled to the conductive layer, the conductive layer connectable to a measurement device configured to sense an induced electrical signal based on a magnetic flux change of the electromagnetic field, wherein a location of the medical instrument in a coordinate system of the electromagnetic field is identified based on the induced electrical signal in the sensor.
A fluidic die, comprising: a first zone and a second zone, wherein a firing signal is to be propagated through the first and second zone, and passed from the first zone to the second zone, each zone comprising: a number of sets of fluidic devices, each fluidic device comprising a fluid chamber and a fluid actuator disposed in the fluid chamber; a sensor configured to sense a characteristic of the zone; and an adjustment device, wherein the adjustment device of the second zone is configured to: delay a received firing signal, received from the first zone, wherein the firing signal is to propagate through each set of fluidic devices in the second zone and the firing signal is delayed as it passes by each set within the second zone such that each set's firing event starts and ends at different points of time; adjust a physical property of the firing signal relative to how it is received from the first zone as it enters the second zone based on the sensed characteristic. a number of sets of fluidic devices, each fluidic device comprising a fluid chamber and a fluid actuator disposed in the fluid chamber; a sensor configured to sense a characteristic of the zone; and an adjustment device, wherein the adjustment device of the second zone is configured to: delay a received firing signal, received from the first zone, wherein the firing signal is to propagate through each set of fluidic devices in the second zone and the firing signal is delayed as it passes by each set within the second zone such that each set's firing event starts and ends at different points of time; adjust a physical property of the firing signal relative to how it is received from the first zone as it enters the second zone based on the sensed characteristic. delay a received firing signal, received from the first zone, wherein the firing signal is to propagate through each set of fluidic devices in the second zone and the firing signal is delayed as it passes by each set within the second zone such that each set's firing event starts and ends at different points of time; adjust a physical property of the firing signal relative to how it is received from the first zone as it enters the second zone based on the sensed characteristic.
Copper alloy, comprising, in proportions in % by weight: iron (Fe) 0.07 - 4.00 phosphorus 0.015 - 0.50 sulphur 0.10 - 0.80 wherein the alloy is free of beryllium (Be) and lead (Pb) and optionally contains: aluminium (Al) max. 0.50 chrome (Cr) max. 0.50 magnesium (Mg) max. 0.50 zirconium (Zr) max. 0.50 zinc (Zn) max. 2.50 tin (Sn) max. 2.50 boron max. 0.50 silver (Ag) max. 0.50 manganese (Mn) 0.01 - 0.80 tellurium (Te) 0.10 - 1.00, the remainder being copper (Cu) and impurities caused by melting.