mhurhangee/ep-ind-claims huggingface dataset:
Method for mapping a plurality of input channels of an input channel configuration to output channels of an output channel configuration, the method comprising: providing a set of rules associated with each input channel of the plurality of input channels, wherein the rules define different mappings between the associated input channel and a set of output channels; for each input channel of the plurality of input channels, accessing a rule associated with the input channel, determining whether the set of output channels defined in the accessed rule is present in the output channel configuration, and selecting (402, 504) the accessed rule if the set of output channels defined in the accessed rule is present in the output channel configuration; and mapping the input channels to the output channels according to the selected rule, characterised in that a rule of the set of rules associated with an input channel of the input channel configuration comprising a rear center direction defines mapping that input channel to two of the output channels, one located on the left side of a front center direction and one located on the right side of the front center direction, wherein the rule further defines using a gain coefficient of less than one if an angle of these two output channels relative to the rear center direction is more than 90°. providing a set of rules associated with each input channel of the plurality of input channels, wherein the rules define different mappings between the associated input channel and a set of output channels; for each input channel of the plurality of input channels, accessing a rule associated with the input channel, determining whether the set of output channels defined in the accessed rule is present in the output channel configuration, and selecting (402, 504) the accessed rule if the set of output channels defined in the accessed rule is present in the output channel configuration; and mapping the input channels to the output channels according to the selected rule, characterised in that
System for transforming plastic parisons to plastic containers with a transport device which transports the plastic parisons along a predetermined transport path, wherein the transport device has a movable station support on which a plurality of transforming stations are arranged, wherein these transforming stations each have blow mould devices which each form cavities within which the plastic parisons can be transformed into the plastic containers and these blow mould devices are each disposed on blow mould supports, and the system has a changing device which is suitable and intended at least to remove the blow mould devices from their blow mould supports and/or to arrange blow mould devices on the blow mould supports, characterised in that the changing device has an identification device (192, 193) for identifying blow moulds and/or blow mould parts (14a, 14b, 14c), wherein the identification device (192, 193) is suitable and intended to check a specific mould type of a selected plastic container so that in this way it is possible to perform a comparison with the type selected in a respective recipe.
A method of forming a disposable hygiene product comprising: providing a manufacturing line having a back sheet station, a core layer station and a top sheet station connected by a conveying system; providing a back sheet at the back sheet station; providing a core layer at the core layer station; applying the core layer on the back sheet; providing a top sheet at the top sheet station; and applying the top sheet on the back sheet and core layer; wherein the back sheet station comprises a fluid application device configured to discharge a curtain of material to form a polymer film, wherein the back sheet comprises the polymer film, characterised in that the method further comprises providing a cloth-like material at the back sheet station and bonding the cloth-like material to the polymer film to form the back sheet. providing a manufacturing line having a back sheet station, a core layer station and a top sheet station connected by a conveying system; providing a back sheet at the back sheet station; providing a core layer at the core layer station; applying the core layer on the back sheet; providing a top sheet at the top sheet station; and applying the top sheet on the back sheet and core layer; wherein the back sheet station comprises a fluid application device configured to discharge a curtain of material to form a polymer film, wherein the back sheet comprises the polymer film, characterised in that the method further comprises providing a cloth-like material at the back sheet station and bonding the cloth-like material to the polymer film to form the back sheet.
A device for protecting electrical networks, comprising at least a first part intended to detect an electrical fault occurring in a network and a second part comprising at least one switch connecting said network to a power supply source, the first part comprising at least one reflectometry detection system configured to detect the electrical fault occurring in a network segment, itself comprising an injection unit generating a high-frequency electrical signal, said signal being injected into the network segment via coupling means and a receiving unit capable of receiving a return signal from the signal injected into the network, said unit digitizing the received signals; each detection system comprising a data processing unit and communication means, the data processing unit being configured to detect and analyse impedance changes occurring in the network segment and to decide, when a detected impedance change exceeds a given threshold, on the transmission to the second part of the device, via the communication means, of a control signal, capable of triggering the opening of the switch; said device being characterized by said communication means further being configured to receive and transmit to the processing unit, operation information transmitted by other processing units, said information being taken into account by the processing unit to decide on the sending of the command to trigger the opening of the switch.
An apparatus for aircraft anti-icing, the apparatus comprising: a nozzle body; a first nozzle extending from the nozzle body; and a first vane disposed in the first nozzle, the first vane configured to impart rotational movement of a hot gas moving through the first nozzle; characterised by a first beam disposed at an exit plane of the first nozzle, the first beam bifurcating the first nozzle, and the first vane extending from the first beam; and a second beam disposed at an entrance plane of the first nozzle, the second beam bifurcating the first nozzle, and the first vane extending from the second beam. a nozzle body; a first nozzle extending from the nozzle body; and a first vane disposed in the first nozzle, the first vane configured to impart rotational movement of a hot gas moving through the first nozzle; characterised by a first beam disposed at an exit plane of the first nozzle, the first beam bifurcating the first nozzle, and the first vane extending from the first beam; and a second beam disposed at an entrance plane of the first nozzle, the second beam bifurcating the first nozzle, and the first vane extending from the second beam.
An assembly structure of a power amplifier, comprising at least two power amplifier modules, wherein each of the power amplifier modules includes a heat-conducting board; an amplifier tube matching circuit board is assembled on the heat-conducting board; at least one radio frequency power amplifier tube is assembled on the amplifier tube matching circuit board; assembly directions of all the radio frequency power amplifier tubes are parallel to each other; one or several kinds of components selected from a microstrip line, a cable line and an electronic element are arranged on the amplifier tube matching circuit board; a connecting method of an AC signal or a DC signal between the said power amplifier modules is one or several kinds of connecting methods selected from a microstrip line connection, a cable connection, a connecting element connection; characterized in that two adjacent heat-conducting boards, which power amplifier modules are mounted on, are orthogonal to each other.
Hot-melt welding rod for joining flooring elements comprising the following resins: - at least one copolymer chosen from the group formed by polymers based on acrylic acid, on methacrylic acid and on maleic anhydride, - a polyethylene wax, - a copolyamide, the product of the condensation of a fatty acid dimer and of an aliphatic diamine, characterized in that the welding rod comprises: - between 40% and 74% by weight of a copolymer chosen from the group formed by polymers based on acrylic acid, on methacrylic acid and on maleic anhydride, - between 10% and 20% by weight of the polyethylene wax, - between 10% and 15% by weight of the copolyamide. - at least one copolymer chosen from the group formed by polymers based on acrylic acid, on methacrylic acid and on maleic anhydride, - a polyethylene wax, - a copolyamide, the product of the condensation of a fatty acid dimer and of an aliphatic diamine, - between 40% and 74% by weight of a copolymer chosen from the group formed by polymers based on acrylic acid, on methacrylic acid and on maleic anhydride, - between 10% and 20% by weight of the polyethylene wax, - between 10% and 15% by weight of the copolyamide.
A method for recovering low carbon ferrochrome from chromite ore comprising: feeding a mixture of feed materials comprising scrap aluminum granules, burnt lime, silica sand, and chromite ore into a plasma arc furnace, said chromite ore containing chromium oxide and iron oxide, said feed materials being in a stoichiometric proportion for reduction of said chromium oxide and iron oxide to form low carbon ferrochrome; heating said feed materials in said plasma arc furnace to a temperature in the range of approximately 1,650° C to 1850° C wherein said aluminum in said aluminum granules acts as a reducing agent to produce an exothermic reaction reducing said chromium oxide and iron oxide in said chromite ore to produce molten low carbon ferrochrome with molten slag floating on top of said molten low carbon ferrochrome; and extracting said molten low carbon ferrochrome from said plasma arc furnace, wherein an inert gas under pressure higher than atmospheric pressure is provided into said plasma arc furnace to prevent oxygen from entering into said plasma arc furnace. feeding a mixture of feed materials comprising scrap aluminum granules, burnt lime, silica sand, and chromite ore into a plasma arc furnace, said chromite ore containing chromium oxide and iron oxide, said feed materials being in a stoichiometric proportion for reduction of said chromium oxide and iron oxide to form low carbon ferrochrome; heating said feed materials in said plasma arc furnace to a temperature in the range of approximately 1,650° C to 1850° C wherein said aluminum in said aluminum granules acts as a reducing agent to produce an exothermic reaction reducing said chromium oxide and iron oxide in said chromite ore to produce molten low carbon ferrochrome with molten slag floating on top of said molten low carbon ferrochrome; and extracting said molten low carbon ferrochrome from said plasma arc furnace, wherein an inert gas under pressure higher than atmospheric pressure is provided into said plasma arc furnace to prevent oxygen from entering into said plasma arc furnace.
A tympanostomy tube (300, 400) for insertion into and residence in a tympanic membrane of a mammal, the tympanostomy tube comprising: a body including a first end portion, a second end portion and a central portion disposed between the first and second end portions, and an axially extending passageway having a first open end and a second open end, the first end portion including a relatively enlarged diameter radially extending flange disposed adjacent a first end of the first end portion, and a relatively reduced diameter portion, the second end portion including at least first (56, 408) and second (58, 410) moveable legs having first ends coupled to the first end portion, and second ends (60, 62, 412), characterised in that the second ends (60, 62, 412) include sharpened surfaces, sufficiently sharpened to cut or incise through the tympanic membrane during insertion of the tympanostomy tube in the tympanic membrane. a body including a first end portion, a second end portion and a central portion disposed between the first and second end portions, and an axially extending passageway having a first open end and a second open end, the first end portion including a relatively enlarged diameter radially extending flange disposed adjacent a first end of the first end portion, and a relatively reduced diameter portion, the second end portion including at least first (56, 408) and second (58, 410) moveable legs having first ends coupled to the first end portion, and second ends (60, 62, 412), characterised in that the second ends (60, 62, 412) include sharpened surfaces, sufficiently sharpened to cut or incise through the tympanic membrane during insertion of the tympanostomy tube in the tympanic membrane.
A system for supporting a rollable object, such as a cylindrical container, comprising: at least one elongated rail for holding at least one supporting part in position in at least a longitudinal direction of the said elongated rail, while the rail has an at least partly profiled surface along at least two sides, and comprises a contact surface for bearing on a base; at least one supporting part provided with a supporting surface for preventing a movement of the object in a horizontal direction, and, optionally, supporting the object in a vertical direction, a contact surface for bearing on the rail and/or the base, wherein the supporting part comprises a passage for receiving at least a part of the rail, which passage is at least partly defined by an inner wall of the said supporting part, while the passage is provided with a profiled surface complementary to the profiled surface of the at least two sides of the rail, for at least partly transmitting a force applied to the supporting part in said longitudinal direction, to the rail. at least one elongated rail for holding at least one supporting part in position in at least a longitudinal direction of the said elongated rail, while the rail has an at least partly profiled surface along at least two sides, and comprises a contact surface for bearing on a base; at least one supporting part provided with a supporting surface for preventing a movement of the object in a horizontal direction, and, optionally, supporting the object in a vertical direction, a contact surface for bearing on the rail and/or the base, wherein the supporting part comprises a passage for receiving at least a part of the rail, which passage is at least partly defined by an inner wall of the said supporting part, while the passage is provided with a profiled surface complementary to the profiled surface of the at least two sides of the rail, for at least partly transmitting a force applied to the supporting part in said longitudinal direction, to the rail.
A power supply control unit used for an isolation type flyback switching power supply device including a transformer having a primary winding and a secondary winding, and a switching element, one terminal of the primary winding being connected to an application terminal of an input voltage, while the other terminal of the primary winding being connected to the switching element, the power supply control unit comprising: a) an on trigger signal generating unit arranged to generate an on trigger signal (Tgon) for turning on the switching element on the basis of a feedback signal (VTref) of flyback voltage; b) a first timer (16; 161) arranged to measure a predetermined minimum OFF time; c) a second timer (16;162) arranged to measure time based on ON time; d) a minimum OFF time setting unit arranged to compare the predetermined minimum OFF time measured by the first timer with the time measured by the second timer so as to set a longer time as a minimum OFF time; e) an on timing determining unit arranged to determine timing for turning on the switching element on the basis of the set minimum OFF time and the on trigger signal; f) a duty information obtaining unit arranged to obtain duty information on the basis of a PWM signal corresponding to PWM drive of the switching element; g) a third timer (16; 163) arranged to measure ON time on the basis of the obtained duty information; h) an off timing determining unit arranged to determine timing for turning off the switching element on the basis of the ON time measured by the third timer, and i) wherein the second timer measures time on the basis of the duty information. a) an on trigger signal generating unit arranged to generate an on trigger signal (Tgon) for turning on the switching element on the basis of a feedback signal (VTref) of flyback voltage; b) a first timer (16; 161) arranged to measure a predetermined minimum OFF time; c) a second timer (16;162) arranged to measure time based on ON time; d) a minimum OFF time setting unit arranged to compare the predetermined minimum OFF time measured by the first timer with the time measured by the second timer so as to set a longer time as a minimum OFF time; e) an on timing determining unit arranged to determine timing for turning on the switching element on the basis of the set minimum OFF time and the on trigger signal; f) a duty information obtaining unit arranged to obtain duty information on the basis of a PWM signal corresponding to PWM drive of the switching element; g) a third timer (16; 163) arranged to measure ON time on the basis of the obtained duty information; h) an off timing determining unit arranged to determine timing for turning off the switching element on the basis of the ON time measured by the third timer, and i) wherein the second timer measures time on the basis of the duty information.
A laser scattered light measuring device comprising: a light receiving unit that receives laser scattered light generated by irradiating an object with laser light and detects intensity of the laser scattered light; and characterized by: a calculation unit that compares the intensity of the laser scattered light detected by the light receiving unit with a predetermined threshold value and calculates a degree of risk of the laser scattered light to a human body based on a comparison result; and a display unit that displays the degree of risk calculated by the calculation unit. a light receiving unit that receives laser scattered light generated by irradiating an object with laser light and detects intensity of the laser scattered light; and characterized by: a calculation unit that compares the intensity of the laser scattered light detected by the light receiving unit with a predetermined threshold value and calculates a degree of risk of the laser scattered light to a human body based on a comparison result; and a display unit that displays the degree of risk calculated by the calculation unit.
A system (100, 200, 300) for conditioning air for an enclosed space, the system comprising: a process plenum having a plenum inlet and outlet, the process plenum configured to direct air in an air flow path from the plenum inlet to the plenum outlet; a liquid-to-air membrane energy exchanger, LAMEE, arranged inside the process plenum, the LAMEE comprising a desiccant flow path separated from the air flow path by a membrane, the LAMEE configured to circulate a desiccant through the desiccant flow path and remove water from the air in the air flow path, a moisture content of the air at a LAMEE outlet being lower than a moisture content of the air at a LAMEE inlet, the LAMEE being configured to exchange latent and sensible energy between the air and the desiccant without exchanging energy between the air and any other fluid; and a direct evaporative cooler, DEC, arranged inside the process plenum downstream of the LAMEE, the DEC configured to operate adiabatically and evaporatively cool the air, a temperature of the air at a DEC outlet being lower than a temperature of the air at a DEC inlet. a process plenum having a plenum inlet and outlet, the process plenum configured to direct air in an air flow path from the plenum inlet to the plenum outlet; a liquid-to-air membrane energy exchanger, LAMEE, arranged inside the process plenum, the LAMEE comprising a desiccant flow path separated from the air flow path by a membrane, the LAMEE configured to circulate a desiccant through the desiccant flow path and remove water from the air in the air flow path, a moisture content of the air at a LAMEE outlet being lower than a moisture content of the air at a LAMEE inlet, the LAMEE being configured to exchange latent and sensible energy between the air and the desiccant without exchanging energy between the air and any other fluid; and a direct evaporative cooler, DEC, arranged inside the process plenum downstream of the LAMEE, the DEC configured to operate adiabatically and evaporatively cool the air, a temperature of the air at a DEC outlet being lower than a temperature of the air at a DEC inlet.
An athletic activity monitoring method for use with a sensor module that is physically coupled to an object during an athletic activity conducted by a user, the athletic activity monitoring method comprising the following steps: detecting movement of the object by obtaining data about the movement of the object from an acceleration sensor and from a magnetic field sensor of the sensor module; recording movement data; estimating missing data from one of the acceleration sensor and the magnetic field sensor based on data from the other of the acceleration sensor and the magnetic field sensor; determining an activity metric based on the recorded movement data and by calculating the activity metric based on the estimated missing data; and providing an output to the user that conveys the activity metric. detecting movement of the object by obtaining data about the movement of the object from an acceleration sensor and from a magnetic field sensor of the sensor module; recording movement data; estimating missing data from one of the acceleration sensor and the magnetic field sensor based on data from the other of the acceleration sensor and the magnetic field sensor; determining an activity metric based on the recorded movement data and by calculating the activity metric based on the estimated missing data; and providing an output to the user that conveys the activity metric.