mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: scanning a communication space (100, 200, 300) with a beam-shaped signal transmitted by a phased antenna array; receiving information discerned from one or more attenuated signals received from the communication space (100, 200, 300) based on the beam-shaped signal; analyzing the information to determine an object in the communication space (100, 200, 300); determining that the object is likely at least a portion of a human; and modifying a communication signal (116, 210) transmitted by the phased antenna array based on determining that the at least a portion of a human has a predetermined spatial relationship with the phased antenna array, characterized in that said determining that the object is likely at least a portion of a human comprises: constructing a power map as a map of path loss, absorbed power, or reflected power for the communication space (100, 200, 300); determining a shape of the object based on the power map; and determining that the shape of the object substantially matches that of at least a portion of a human. scanning a communication space (100, 200, 300) with a beam-shaped signal transmitted by a phased antenna array; receiving information discerned from one or more attenuated signals received from the communication space (100, 200, 300) based on the beam-shaped signal; analyzing the information to determine an object in the communication space (100, 200, 300); determining that the object is likely at least a portion of a human; and modifying a communication signal (116, 210) transmitted by the phased antenna array based on determining that the at least a portion of a human has a predetermined spatial relationship with the phased antenna array, characterized in that said determining that the object is likely at least a portion of a human comprises: constructing a power map as a map of path loss, absorbed power, or reflected power for the communication space (100, 200, 300); determining a shape of the object based on the power map; and determining that the shape of the object substantially matches that of at least a portion of a human. constructing a power map as a map of path loss, absorbed power, or reflected power for the communication space (100, 200, 300); determining a shape of the object based on the power map; and determining that the shape of the object substantially matches that of at least a portion of a human.
Device for water treatment having at least one first germ filter and a water softening device which contains a regeneratable ion exchange resin, wherein in a regenerating phase, the water softening device and the germ filter are connected to a regenerating means reservoir and the device is equipped so that a regenerating means stored in the regenerating means reservoir is supplied both to the water softening device and to the at least one germ filter in order to regenerate the ion exchange resin of the water softening device and the germ filter, characterised in that the first germ filter is an adsorption filter with an electroactive filter material which has an electrokinetic potential in an aqueous environment so that bacteria or viruses present in the water to be treated are accumulated on the filter material by electrostatic adsorption and in that the regenerating means reservoir is coupled to an electrolysis device, wherein the device is equipped so that an aqueous solution of a chloride salt is supplied from the regenerating means reservoir to the electrolysis device, and the electrolysis device is designed to convert the chloride salt solution to an aqueous regenerating solution, wherein the aqueous regenerating solution contains alkali metal ions or alkaline earth metal ions as well as chloride ions and chlorine gas dissociated in the water as hypochlorous acid.
Temperature sensing method comprising: - generating a temperature dependent output frequency in a sensing mode (S3, S7), - generating a temperature independent output frequency in a calibration mode (S1, S5), - using at least an oscillator to generate said output frequencies, wherein both said output frequencies are alternatively generated by the same oscillator, and wherein switching (S2, S4, S6) between generating a temperature dependent output frequency and generating a temperature independent output frequency is performed by changing at least a first input signal (VREF) of said oscillator. - generating a temperature dependent output frequency in a sensing mode (S3, S7), - generating a temperature independent output frequency in a calibration mode (S1, S5), - using at least an oscillator to generate said output frequencies,
A core selective switch for use in an optical node device that is included in a spatial channel optical network, the core selective switch comprising: a spatial demultiplexing unit; an optical switch; and an optical interconnect unit, wherein the spatial demultiplexing unit is a multi core fiber collimator array in which a plurality of multi core fiber collimators each comprising both a multi core fiber having S cores and a collimator lens are two-dimensionally arranged in a plane, the optical switch is a variable reflection angle mirror array in which an arrangement of S variable reflection angle mirrors (M 0, M 1, M 2) are two-dimensionally arranged in a plane in a manner corresponding with a core arrangement in the multi core fiber, the optical interconnect unit is a steering lens arranged between the multi core fiber collimator array and the variable reflection angle mirror array, and among a plurality of said multi core fibers in the multi core fiber collimator array, a beam light output from each core of an input multi core fiber is focused on a variable reflection angle mirror corresponding to the core to be reflected to couple to a corresponding core of a desired output multi core fiber. a spatial demultiplexing unit; an optical switch; and an optical interconnect unit, wherein the spatial demultiplexing unit is a multi core fiber collimator array in which a plurality of multi core fiber collimators each comprising both a multi core fiber having S cores and a collimator lens are two-dimensionally arranged in a plane, the optical switch is a variable reflection angle mirror array in which an arrangement of S variable reflection angle mirrors (M 0, M 1, M 2) are two-dimensionally arranged in a plane in a manner corresponding with a core arrangement in the multi core fiber, the optical interconnect unit is a steering lens arranged between the multi core fiber collimator array and the variable reflection angle mirror array, and among a plurality of said multi core fibers in the multi core fiber collimator array, a beam light output from each core of an input multi core fiber is focused on a variable reflection angle mirror corresponding to the core to be reflected to couple to a corresponding core of a desired output multi core fiber.
A method of delivering a volatile material comprising the step of providing a delivery engine comprising: a. a reservoir comprising a volatile material mixture wherein said volatile material mixture comprises a perfume material: and b. a microporous membrane enclosing said reservoir, said microporous membrane comprising an average pore size of 0.01 to 0.03 microns, characterized in that said volatile material mixture comprises from 40% to 100%, by total weight, of volatile materials each having a vapor pressure at 25°C of less than 13.3 Pa (0.1 torr) and in that said microporous membrane comprises an evaporative surface area of 2 cm 2 to 35cm 2. a. a reservoir comprising a volatile material mixture wherein said volatile material mixture comprises a perfume material: and b. a microporous membrane enclosing said reservoir, said microporous membrane comprising an average pore size of 0.01 to 0.03 microns, characterized in that said volatile material mixture comprises from 40% to 100%, by total weight, of volatile materials each having a vapor pressure at 25°C of less than 13.3 Pa (0.1 torr) and in that said microporous membrane comprises an evaporative surface area of 2 cm 2 to 35cm 2.
Gas delivery apparatus comprising a combination of: a gas flow meter having a body and a control knob turnable to control the rate of flow of gas through the gas flow meter; and a respiratory gas safety valve for use in medical apparatus for delivering a gas capable of combustion or of supporting combustion; said valve being operable to close the flow path of gas from the source thereof upon the occurrence of a fire, said respiratory gas safety valve comprising a body, a valve member having a valve head resiliently biased towards a valve-closure position and a fusible retainer holding the valve member, against the bias, in a valve-open position, the valve body defining a fluid flow passage, between an outlet and the said valve head, within which is an elongate link member extending from the valve head to a foot which engages the fusible retainer, a nozzle connectable to a delivery line for delivering the gas to an end utiliser, and connection means operable to removably connect the body of the valve directly to the body of the gas flow meter in line with the gas delivery path of the gas flow meter. a gas flow meter having a body and a control knob turnable to control the rate of flow of gas through the gas flow meter; and a respiratory gas safety valve for use in medical apparatus for delivering a gas capable of combustion or of supporting combustion; said valve being operable to close the flow path of gas from the source thereof upon the occurrence of a fire, said respiratory gas safety valve comprising a body, a valve member having a valve head resiliently biased towards a valve-closure position and a fusible retainer holding the valve member, against the bias, in a valve-open position, the valve body defining a fluid flow passage, between an outlet and the said valve head, within which is an elongate link member extending from the valve head to a foot which engages the fusible retainer, a nozzle connectable to a delivery line for delivering the gas to an end utiliser, and connection means operable to removably connect the body of the valve directly to the body of the gas flow meter in line with the gas delivery path of the gas flow meter.
A light emitting device comprising: a light emitting structure having a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer; a metal filter having an irregular pattern disposed on the light emitting structure; a transparent conductive layer disposed on the first conductivity type semiconductor layer and the metal filter; a first electrode disposed on the transparent conductive layer, the first electrode directly contacts with the transparent conductive layer;and openings being regions having no metal filter disposed thereon, characterized in that the light emitting device further comprises a metal support under the light emitting structure, the metal support adapted to serve as a second electrode of the light emitting device, and a passivation layer disposed at a side of the light emitting structure; wherein the passivation layer is disposed at a portion of a side of the second conductivity type semiconductor layer, with an open region in the side of the second conductivity type semiconductor layer, wherein the irregular pattern is a stripe type pattern or a mesh type pattern, and the irregular pattern has a first side portion and a second side portion, the first side portion is disposed on a first edge of the light emitting structure, the second side portion is disposed on a second edge of the light emitting structure, the first edge faces with the second edge, and a width of the first side portion is different from the width of the second side portion. a light emitting structure having a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer; a metal filter having an irregular pattern disposed on the light emitting structure; a transparent conductive layer disposed on the first conductivity type semiconductor layer and the metal filter; a first electrode disposed on the transparent conductive layer, the first electrode directly contacts with the transparent conductive layer;and openings being regions having no metal filter disposed thereon, characterized in that the light emitting device further comprises a metal support under the light emitting structure, the metal support adapted to serve as a second electrode of the light emitting device, and a passivation layer disposed at a side of the light emitting structure; wherein the passivation layer is disposed at a portion of a side of the second conductivity type semiconductor layer, with an open region in the side of the second conductivity type semiconductor layer, wherein the irregular pattern is a stripe type pattern or a mesh type pattern, and the irregular pattern has a first side portion and a second side portion, the first side portion is disposed on a first edge of the light emitting structure, the second side portion is disposed on a second edge of the light emitting structure, the first edge faces with the second edge, and a width of the first side portion is different from the width of the second side portion.
A food processor comprising: a main body; and a container that forms a food-containing space for containing food items and is detachably mounted to the main body, wherein the container comprises a processing member that is rotatably mounted within the food-containing space and processes the food items, wherein the main body further comprises a motor and a power transmitter for transmitting the torque of the motor to the processing member, wherein the main body comprises a cold energy generator for transmitting cold energy to the container by coming into contact with at least part of the container and the cold generator forms a refrigeration space for containing part of the container, with the container mounted on the main body, characterized in that, the cold energy generator comprises a cold energy transfer plate that determines the lateral shape of the refrigeration space and a cold energy generating unit that surrounds the side of the refrigeration space; and the cold energy transfer plate is ring-shaped, with the inside and outside formed on different planes and the inside being closer to the center of the main body than the outside. a main body; and a container that forms a food-containing space for containing food items and is detachably mounted to the main body, wherein the container comprises a processing member that is rotatably mounted within the food-containing space and processes the food items, wherein the main body further comprises a motor and a power transmitter for transmitting the torque of the motor to the processing member, wherein the main body comprises a cold energy generator for transmitting cold energy to the container by coming into contact with at least part of the container and the cold generator forms a refrigeration space for containing part of the container, with the container mounted on the main body, characterized in that, the cold energy generator comprises a cold energy transfer plate that determines the lateral shape of the refrigeration space and a cold energy generating unit that surrounds the side of the refrigeration space; and the cold energy transfer plate is ring-shaped, with the inside and outside formed on different planes and the inside being closer to the center of the main body than the outside.
A transport refrigeration unit system for cooling a trailer compartment, the transport refrigeration unit system comprising: an engine for controlling a cooling rate capacity, the engine configured to be operable at a nominal high speed and a nominal low speed; a controller in operative communication with the engine to control the speed of the engine; and a user interface in operative communication with the controller, the user interface providing a high capacity cooling mode to a user, characterized in that the initiation of the high capacity cooling mode with the user interface includes the engine operating at a speed greater than the nominal high speed to result in a high capacity cooling rate. an engine for controlling a cooling rate capacity, the engine configured to be operable at a nominal high speed and a nominal low speed; a controller in operative communication with the engine to control the speed of the engine; and a user interface in operative communication with the controller, the user interface providing a high capacity cooling mode to a user, characterized in that the initiation of the high capacity cooling mode with the user interface includes the engine operating at a speed greater than the nominal high speed to result in a high capacity cooling rate.
A method for determining damage to a rotating machine or components thereof, wherein the rotating machine includes a gearbox, the method comprising the steps of: calculating one or more damage coefficients (106,108,220) by determining damage under rated operating conditions and determining damage under one or more field operating conditions (210,214) of the same duration, wherein determining damage under field operating conditions includes: monitoring one or more loads acting on the gearbox by monitoring outputs of one or more condition monitoring sensors placed in or on the gearbox at predetermined locations; and based on said outputs, calculating damage caused by the one or more loads using a meta-model, the meta-model being constructed by obtaining a number of data samples from a gearbox model prior to the start of gearbox operation and determining an underlying trend using response surface methodology, wherein the one or more damage coefficients are a function of the damage under rated operating conditions and the damage under the one or more field operating conditions of the same duration; providing data relating to one or more operating conditions (210,214); and determining damage as a function of the one or more operating conditions (210,214) and the one or more damage coefficients (106,108,220) corresponding to the one or more operating conditions (210,214). monitoring one or more loads acting on the gearbox by monitoring outputs of one or more condition monitoring sensors placed in or on the gearbox at predetermined locations; and based on said outputs, calculating damage caused by the one or more loads using a meta-model, the meta-model being constructed by obtaining a number of data samples from a gearbox model prior to the start of gearbox operation and determining an underlying trend using response surface methodology, wherein the one or more damage coefficients are a function of the damage under rated operating conditions and the damage under the one or more field operating conditions of the same duration; providing data relating to one or more operating conditions (210,214); and determining damage as a function of the one or more operating conditions (210,214) and the one or more damage coefficients (106,108,220) corresponding to the one or more operating conditions (210,214).
Method for manufacturing a permanent magnet, the method comprising: separating, by a separator (107, 207), a mould volume into a first compartment (109, 209) and a second compartment (111, 211); filling a first material (119, 219) into the first compartment (109, 209); filling a second material (121, 221) into the second compartment (111, 211); compacting the first material and the second material; wherein the separator is shaped such that a shape of the first compartment corresponds to a target shape of the permanent magnet, wherein the mould volume has a cuboid shape (w*h*d), wherein the separator is shaped such that the first compartment has a shape resembling a cuboid having two rounded edges extending in a depth direction of the mould volume. separating, by a separator (107, 207), a mould volume into a first compartment (109, 209) and a second compartment (111, 211); filling a first material (119, 219) into the first compartment (109, 209); filling a second material (121, 221) into the second compartment (111, 211); compacting the first material and the second material; wherein the separator is shaped such that a shape of the first compartment corresponds to a target shape of the permanent magnet, wherein the mould volume has a cuboid shape (w*h*d), wherein the separator is shaped such that the first compartment has a shape resembling a cuboid having two rounded edges extending in a depth direction of the mould volume.
Process for fabricating an integrated circuit, characterized in that: - a first and a second stop layer are deposited on a dielectric layer made of an organic or inorganic polymer covering a metallization level n, which includes metallization lines separated by a dielectric material, and a resin mask is deposited on the second stop layer; - the second stop layer is selectively etched with respect to the first stop layer, only those portions of the second stop layer which are not covered by the mask being etched, and the resin mask is removed; - the first stop layer is selectively etched with respect to the dielectric layer, only those portions of the first stop layer which are not covered by the second stop layer being etched; - an additional dielectric layer is deposited on the circuit, a third stop layer is deposited on the additional dielectric layer and a resin mask is deposited on the third stop layer; - the third stop layer is selectively etched with respect to the additional dielectric layer, only those portions of the third stop layer which are not covered by the mask being etched; and - the additional dielectric layer and the dielectric layer are selectively etched with respect to the stop layers, thus causing the formation of trenches in the additional dielectric layer and of holes in the dielectric layer and the removal of the resin mask. - a first and a second stop layer are deposited on a dielectric layer made of an organic or inorganic polymer covering a metallization level n, which includes metallization lines separated by a dielectric material, and a resin mask is deposited on the second stop layer; - the second stop layer is selectively etched with respect to the first stop layer, only those portions of the second stop layer which are not covered by the mask being etched, and the resin mask is removed; - the first stop layer is selectively etched with respect to the dielectric layer, only those portions of the first stop layer which are not covered by the second stop layer being etched; - an additional dielectric layer is deposited on the circuit, a third stop layer is deposited on the additional dielectric layer and a resin mask is deposited on the third stop layer; - the third stop layer is selectively etched with respect to the additional dielectric layer, only those portions of the third stop layer which are not covered by the mask being etched; and - the additional dielectric layer and the dielectric layer are selectively etched with respect to the stop layers, thus causing the formation of trenches in the additional dielectric layer and of holes in the dielectric layer and the removal of the resin mask.