mhurhangee/ep-ind-claims huggingface dataset:
Method for generating a signal indicative for nozzle maintenance, comprising: • feeding modeling material using feeding means through a feed channel (120a, 120b) of a printhead to a nozzle of the printhead in a three-dimensional modeling system; • determining a parameter indicative of a fluid resistance of modeling material within said nozzle, comprising • determining a flowrate of the modeling material within the feed channel (120a, 120b); • determining a pressure exerted on the modeling material within the feed channel and determining a pressure exerted on the modeling material outside the feed channel; • determining a pressure difference between the pressure exerted on the modeling material within the feed channel and the pressure exerted on the modeling material outside the feed channel; and • calculating said parameter from the determined flow rate and the determined pressure difference; • comparing said parameter with a predetermined range; and • generating said signal if said parameter is out of the predetermined range. • feeding modeling material using feeding means through a feed channel (120a, 120b) of a printhead to a nozzle of the printhead in a three-dimensional modeling system; • determining a parameter indicative of a fluid resistance of modeling material within said nozzle, comprising • determining a flowrate of the modeling material within the feed channel (120a, 120b); • determining a pressure exerted on the modeling material within the feed channel and determining a pressure exerted on the modeling material outside the feed channel; • determining a pressure difference between the pressure exerted on the modeling material within the feed channel and the pressure exerted on the modeling material outside the feed channel; and • calculating said parameter from the determined flow rate and the determined pressure difference; • determining a flowrate of the modeling material within the feed channel (120a, 120b); • determining a pressure exerted on the modeling material within the feed channel and determining a pressure exerted on the modeling material outside the feed channel; • determining a pressure difference between the pressure exerted on the modeling material within the feed channel and the pressure exerted on the modeling material outside the feed channel; and • calculating said parameter from the determined flow rate and the determined pressure difference; • comparing said parameter with a predetermined range; and • generating said signal if said parameter is out of the predetermined range.
A method for controlling an embedded permanent-magnet synchronous motor with a stator time constant (τ), the method comprising applying, by an inverter supplying the motor and for a computation period, a voltage vector for obtaining, when the period has elapsed, a mechanical force developed by the machine that is equal to a predetermined mechanical force setpoint, characterised in that the method is a deadbeat control method comprising: - a step of computing an initial state eigenvector ( Ψ 0) of the motor representing the stator current vector and the flux vector ( Φ a) of the magnets in the initial rotor rotating reference frame (d 0, q 0) at the start of the period; - a step of generating, in the predicted rotor rotating reference frame (d, q), a setpoint current ( I c) for reaching the predetermined mechanical force setpoint at the end of the period; - a step of generating a setpoint state eigenvector ( Ψ c) of the motor representing the setpoint current ( I c) and the predicted flux vector ( Φ P) of the magnets in the initial rotor rotating reference frame (d 0, q 0) at the end of the period; - a step of computing the voltage vector in the fixed stator reference frame ( α, β) to be applied by the inverter to the motor in order to control the motor; - a step of applying, by the inverter, the voltage vector to the motor in order to obtain a current equal to the setpoint current ( I c) when the period has elapsed, the period being strictly less than 5 (τ). - a step of computing an initial state eigenvector ( Ψ 0) of the motor representing the stator current vector and the flux vector ( Φ a) of the magnets in the initial rotor rotating reference frame (d 0, q 0) at the start of the period; - a step of generating, in the predicted rotor rotating reference frame (d, q), a setpoint current ( I c) for reaching the predetermined mechanical force setpoint at the end of the period; - a step of generating a setpoint state eigenvector ( Ψ c) of the motor representing the setpoint current ( I c) and the predicted flux vector ( Φ P) of the magnets in the initial rotor rotating reference frame (d 0, q 0) at the end of the period; - a step of computing the voltage vector in the fixed stator reference frame ( α, β) to be applied by the inverter to the motor in order to control the motor; - a step of applying, by the inverter, the voltage vector to the motor in order to obtain a current equal to the setpoint current ( I c) when the period has elapsed, the period being strictly less than 5 (τ).
An aircraft panel assembly comprising: a skin panel of an aircraft wing box; a spanwise reinforcing stringer having a foot, an upstanding web and a run-out region at one end, wherein the stringer foot is directly bonded to the skin panel, and a fitting attached to the stringer web and to the same skin panel outboard of the end of the stringer foot.
A support element for a modular transport plane with a plurality of transport module units, each transport module unit comprising a driving surface assembly, wherein the support element is a multi-part support element and comprises a lower part having a mounting structure and an upper part having an upper support surface, wherein the upper support surface is configured to support the driving surface assemblies of at least two neighboring transport module units, wherein the upper support surface is provided with driving surface assembly interfaces configured to engage with complementary interfaces of the supported driving surface assemblies, wherein the upper part is connected lengthwise to the lower part via a connection structure, and wherein the connection structure is configured to restrain a relative movement between the lower part and the upper part in the longitudinal direction of the support element and wherein the connection structure is configured to connect the upper part in a floating manner to the lower part to allow a limited relative movement between the lower part and the upper part in a plane perpendicular to the longitudinal direction of the support element. wherein the support element is a multi-part support element and comprises a lower part having a mounting structure and an upper part having an upper support surface, wherein the upper support surface is configured to support the driving surface assemblies of at least two neighboring transport module units, wherein the upper support surface is provided with driving surface assembly interfaces configured to engage with complementary interfaces of the supported driving surface assemblies, wherein the upper part is connected lengthwise to the lower part via a connection structure, and wherein the connection structure is configured to restrain a relative movement between the lower part and the upper part in the longitudinal direction of the support element and wherein the connection structure is configured to connect the upper part in a floating manner to the lower part to allow a limited relative movement between the lower part and the upper part in a plane perpendicular to the longitudinal direction of the support element.
Control, regulation and operating device for a cooking appliance, with at least one primary unit which can be mounted on the associated cooking appliance and is designed to communicate wirelessly with a secondary unit, wherein the primary unit is designed as a sensor device for detecting at least one parameter that influences a cooking process and for transmitting the same to the secondary unit, whereas the secondary unit is designed to evaluate and process the data received from the primary unit and to display and/or send corresponding handling instructions to the primary unit, wherein the secondary unit is configured as a smartphone, a laptop, a tablet PC, a pager or a PC, characterised in that the secondary unit is designed such that, based on the food with the longest cooking time, it calculates and displays a respectively optimal point of time for adding the food with the next shorter cooking time.
A high-frequency module comprising: a laminated body configured to include an antenna connection external terminal (PMan) connecting to an antenna and a plurality of individual external terminals (PMtL, PMtH) to each of which a transmission circuit used for transmitting a plurality of communication signals and a reception circuit used for receiving the plural communication signals are connected; and a switch element (SWIC) configured to be mounted in the laminated body and include a common terminal (PICO) connecting to the antenna connection external terminal (PMan) and a plurality of individual terminals (PIC11, PIC12) connecting to the plural individual external terminals (PMtL, PMtH), wherein the high-frequency module includes a plurality of inductors (GLt1, GLt2, DLt1, DLt2) on an individual terminal side, which are formed within the laminated body and individually connected in series between the plural individual terminals (PIC11, PIC12) and the plural individual external terminals (PMtL, PMtH), characterised in that the plural inductors (GLt1, GLt2, DLt1, DLt2) on the individual terminal side do not overlap with one another in a state in which the laminated body is viewed along a lamination direction, and are formed within the laminated body so that directions of generated magnetic fields coincide with one another. a laminated body configured to include an antenna connection external terminal (PMan) connecting to an antenna and a plurality of individual external terminals (PMtL, PMtH) to each of which a transmission circuit used for transmitting a plurality of communication signals and a reception circuit used for receiving the plural communication signals are connected; and a switch element (SWIC) configured to be mounted in the laminated body and include a common terminal (PICO) connecting to the antenna connection external terminal (PMan) and a plurality of individual terminals (PIC11, PIC12) connecting to the plural individual external terminals (PMtL, PMtH), wherein the high-frequency module includes a plurality of inductors (GLt1, GLt2, DLt1, DLt2) on an individual terminal side, which are formed within the laminated body and individually connected in series between the plural individual terminals (PIC11, PIC12) and the plural individual external terminals (PMtL, PMtH), characterised in that the plural inductors (GLt1, GLt2, DLt1, DLt2) on the individual terminal side do not overlap with one another in a state in which the laminated body is viewed along a lamination direction, and are formed within the laminated body so that directions of generated magnetic fields coincide with one another.
A method implemented by a controller in a software defined network for programming or querying a network device via a communications protocol, the method comprising: creating at least one template for a type of message defined by the communications protocol, wherein the template predefines at least one value for at least one parameter conveyed by that type of message, which is an add flow message directed at installing a new data packet flow onto the network device; sending the at least one template to the network device for installation by that network device to enable planning to which hardware resources of the network device flows added based on the template will be mapped; and receiving from the network device a report indicative of how many flows can be added based on the template. creating at least one template for a type of message defined by the communications protocol, wherein the template predefines at least one value for at least one parameter conveyed by that type of message, which is an add flow message directed at installing a new data packet flow onto the network device; sending the at least one template to the network device for installation by that network device to enable planning to which hardware resources of the network device flows added based on the template will be mapped; and receiving from the network device a report indicative of how many flows can be added based on the template.
A molding die for producing an optical glass element which has a coating layer on an optical glass element molding surface of a substrate having high heat-resistance, denseness and thermal conductivity, in which the coating layer comprises a first component, a second component and a third component, characterised by the first component being of molybdenum, the second component being of iridium, and the third component being of platinum and rhenium or platinum and rhodium.
Method for coating substrates having substrate surfaces to be coated by sputtering of target material, the method comprising the following steps: - applying a power pulse to a first sputtering target arranged at a coating source and made of a first material in a coating chamber by which power pulse, during a first time interval, a first amount of energy is transmitted to the sputtering target, wherein the maximum power density exceeds 50W/cm 2; - applying a power pulse to a second sputtering target arranged at a further coating source and made of a second material that is different from the first material in the coating chamber by which power pulse, during a second time interval, a second amount of energy is transmitted to the sputtering target, wherein the maximum power density exceeds 50W/cm 2, characterized in that for the deposition of a mixed crystal layer, a reactive gas is admitted into the coating chamber and due to the reaction of the material from the first sputtering target and the material from the second sputtering target with reactive gas, the mixed crystal layer is applied to the substrate surfaces to be coated, wherein the operating point suitable for the respective target material is set independently of one another by a pulse duration assigned to the respective target material and the first amount of energy differs from the second amount of energy, and wherein, for setting the operating points, the method comprises the following steps: - admitting a reactive gas and an inert gas into the previously evacuated coating chamber and setting a predetermined flow ratio of the reactive gas to the inert gas, - setting the operating point of the respective targets by selecting the pulse duration at the specified flow ratio, whether the target is atomized in metallic mode, in poisoned mode or in the transition region. - applying a power pulse to a first sputtering target arranged at a coating source and made of a first material in a coating chamber by which power pulse, during a first time interval, a first amount of energy is transmitted to the sputtering target, wherein the maximum power density exceeds 50W/cm 2; - applying a power pulse to a second sputtering target arranged at a further coating source and made of a second material that is different from the first material in the coating chamber by which power pulse, during a second time interval, a second amount of energy is transmitted to the sputtering target, wherein the maximum power density exceeds 50W/cm 2, - admitting a reactive gas and an inert gas into the previously evacuated coating chamber and setting a predetermined flow ratio of the reactive gas to the inert gas, - setting the operating point of the respective targets by selecting the pulse duration at the specified flow ratio, whether the target is atomized in metallic mode, in poisoned mode or in the transition region.
Safety device for a nailer of the type provided with actuating means for the expulsion of a nail, staple or the like in a shooting direction and comprising a movable element movable between a locking condition wherein the nailer is inhibited from operation and a release condition wherein the movable element does not block the nailer and wherein it is possible the firing of the nail by actuating a trigger of said nailer; the device comprises at least one locking means having a stopping end movable between a stop condition in which interferes with an abutment means fixed to or carried out onto the movable element stopping it in said locking condition and an armed condition wherein the stopping end allows the translation of said abutment means allowing the latter to reach the release condition, said locking means being also provided of elastic means acting in the direction of the stopping condition and arming means to act in contrast to the elastic means and to shift the locking means and the respective stopping end in the armed condition, where the operator, to put the nailer in the armed and release conditions, must act on arming means freeing the abutment means from the stopping end and he must place the movable element in the release condition wherein the device can shoot the nail by acting on the trigger; the abutment means is fixed to, or formed into the movable element consisting of a contact safety lock, and it moves together with the latter in a direction parallel to the shooting direction and in that the locking means and the respective stopping end translate along a direction perpendicular or inclined with respect to said firing direction; said device being characterized by comprising a cylinder means, wherein a piston slides in a pneumatic sealed manner; said piston is fixed to the locking means which acts as a piston stem of said piston and that slides in pneumatic sealed manner through a passing hole formed through an end wall of the cylinder means; the chamber of the cylinder means limited between the piston and the end wall having the passing hole, near said end wall having the passing hole or through it or the stem, it is provided with a calibrated or adjustable vent hole that put in flow communication said chamber with the outside; the elastic means act in compression on the piston or on an extension of the stem opposite to the stopping end.
A method for manufacturing non lead added anode zinc material for manganese dry batteries comprising the steps at least of: alloy compounding process to compound zinc alloy by melting 0.1 mass percent or more and 0.7 mass percent or less of bismuth, optionally 0.0005 mass percent or more and 0.05 mass percent or less of magnesium, and, as the balance, zinc containing inevitable impurity elements, in a melting furnace; and casting process to mold the compounded zinc alloy molten to molded material in sash-state by a casting system, wherein the casting system consists of a rotate-able disc with groove on its peripherally whereby the zinc alloy molten is molded and cooled to mold the zinc alloy molten to molded material in sash-state, and wherein the zinc alloy molten is molded to 1 mm or more and 30 mm or less thick of the molded material in sash-state by 20 cm or more and 200 cm or less diameter of the rotate-able disc; and rolling process to roll the molded material in sash state to zinc alloy sheet by a rolling system; and punching process to punch the rolled zinc alloy sheet in designated thickness into designated shapes by a punching system. alloy compounding process to compound zinc alloy by melting 0.1 mass percent or more and 0.7 mass percent or less of bismuth, optionally 0.0005 mass percent or more and 0.05 mass percent or less of magnesium, and, as the balance, zinc containing inevitable impurity elements, in a melting furnace; and casting process to mold the compounded zinc alloy molten to molded material in sash-state by a casting system, wherein the casting system consists of a rotate-able disc with groove on its peripherally whereby the zinc alloy molten is molded and cooled to mold the zinc alloy molten to molded material in sash-state, and wherein the zinc alloy molten is molded to 1 mm or more and 30 mm or less thick of the molded material in sash-state by 20 cm or more and 200 cm or less diameter of the rotate-able disc; and rolling process to roll the molded material in sash state to zinc alloy sheet by a rolling system; and punching process to punch the rolled zinc alloy sheet in designated thickness into designated shapes by a punching system.
A film capacitor, comprising: a plurality of capacitor cores, comprising: a first group of capacitor cores connected in parallel, having a first end surface and a second end surface; and a second group of capacitor cores connected in parallel, connected with the first group of capacitor cores in series, having a third end surface opposed to the first end surface of the first group of capacitor cores and a fourth end surface; the film capacitor further comprising: a positive electrode busbar, a negative electrode busbar, connected to the third end surface of the second group of capacitor cores; an intermediate busbar, a first connection sheet connected to the positive electrode busbar; a second connection sheet connected to the negative electrode busbar; a third connection sheet connected to the intermediate busbar, a first electrode terminal connected to the positive electrode busbar; a second electrode terminal connected to the negative electrode busbar; and a third electrode terminal connected to the intermediate busbar, characterized in that the positive electrode busbar is connected to the first end surface of the first group of capacitor cores, and the intermediate busbar is connected to the second end surface of the first group of capacitor cores and the fourth end surface of the second group of capacitor cores respectively, and in that the intermediate busbar is provided with a plurality of relief holes configured to expose the first electrode terminal and the second electrode terminal therefrom. a plurality of capacitor cores, comprising: a first group of capacitor cores connected in parallel, having a first end surface and a second end surface; and a second group of capacitor cores connected in parallel, connected with the first group of capacitor cores in series, having a third end surface opposed to the first end surface of the first group of capacitor cores and a fourth end surface; a first group of capacitor cores connected in parallel, having a first end surface and a second end surface; and a second group of capacitor cores connected in parallel, connected with the first group of capacitor cores in series, having a third end surface opposed to the first end surface of the first group of capacitor cores and a fourth end surface; a positive electrode busbar, a negative electrode busbar, connected to the third end surface of the second group of capacitor cores; an intermediate busbar, a first connection sheet connected to the positive electrode busbar; a second connection sheet connected to the negative electrode busbar; a third connection sheet connected to the intermediate busbar, a first electrode terminal connected to the positive electrode busbar; a second electrode terminal connected to the negative electrode busbar; and a third electrode terminal connected to the intermediate busbar, the positive electrode busbar is connected to the first end surface of the first group of capacitor cores, and the intermediate busbar is connected to the second end surface of the first group of capacitor cores and the fourth end surface of the second group of capacitor cores respectively, and in that