mhurhangee/ep-ind-claims huggingface dataset:
A driving power transmission device for a helicopter, comprising a main shaft and a main gear box, the main gear box comprising a support structure for the main shaft, said support structure including an upper bearing section, a mast bearing, a shaft sleeve, a lower bearing section, a mast nut and a mast spacer (20A; 20B) provided between said mast bearing and said mast nut in said main shaft, the mast spacer (20A; 20B) comprising: a cylindrical body, a first end of the mast spacer (20A; 20B) being a bearing contact end which is fittable to an inner race of the mast bearing, characterized in that the cylindrical body is provided with a slit (24; 26) penetrating a side wall of the cylindrical body, and the slit (24; 26) is crossing an axial direction of the cylindrical body. a cylindrical body, a first end of the mast spacer (20A; 20B) being a bearing contact end which is fittable to an inner race of the mast bearing, characterized in that the cylindrical body is provided with a slit (24; 26) penetrating a side wall of the cylindrical body, and the slit (24; 26) is crossing an axial direction of the cylindrical body.
A method for measuring a magnetic nanometer temperature, comprising the following steps: step S1: measuring a magneto-optical Kerr angle of a magnetic nano-coating; wherein the magnetic nano-coating is arranged on an area under measurement, a Curie temperature of the magnetic nano-coating is greater than a temperature of the area under measurement; step S2: based on a linear relationship between the magneto-optical Kerr angle of the magnetic nano-coating and a magnetization intensity, obtaining a magnetization intensity of the magnetic nano-coating; step S3: based on Curie-Weiss law, calculating a temperature of the magnetic nano-coating, that is, the temperature of the area under measurement, according to the magnetization intensity of the magnetic nano-coating. step S1: measuring a magneto-optical Kerr angle of a magnetic nano-coating; wherein the magnetic nano-coating is arranged on an area under measurement, a Curie temperature of the magnetic nano-coating is greater than a temperature of the area under measurement; step S2: based on a linear relationship between the magneto-optical Kerr angle of the magnetic nano-coating and a magnetization intensity, obtaining a magnetization intensity of the magnetic nano-coating; step S3: based on Curie-Weiss law, calculating a temperature of the magnetic nano-coating, that is, the temperature of the area under measurement, according to the magnetization intensity of the magnetic nano-coating.
Garden house for storing tools and objects, the garden house having four vertical outer sides, comprising: at least two holding compartments each of which having one or more closable opening sections, wherein at least one opening section is closable by one or more doors, characterized in that the one opening section or the multiple opening sections together which belong to the same holding compartment having a surface that essentially corresponds to a surface of the outer side of this holding compartment, the opening sections are arranged on at least two adjacent outer sides of the garden house, wherein all holding compartments of the garden house are accessible on ground level, wherein the horizontal elongations of the holding compartments parallel to an outer side of the garden house substantially correspond to a length to this outer side, and the ground areas of the holding compartments of a horizontal intersecting plane, together generally correspond to the ground area of the garden house, wherein a width and/or a height of at least one holding compartment is larger than a depth of the at least one holding compartment. at least two holding compartments each of which having one or more closable opening sections, wherein at least one opening section is closable by one or more doors, characterized in that the one opening section or the multiple opening sections together which belong to the same holding compartment having a surface that essentially corresponds to a surface of the outer side of this holding compartment, the opening sections are arranged on at least two adjacent outer sides of the garden house, wherein all holding compartments of the garden house are accessible on ground level, wherein the horizontal elongations of the holding compartments parallel to an outer side of the garden house substantially correspond to a length to this outer side, and the ground areas of the holding compartments of a horizontal intersecting plane, together generally correspond to the ground area of the garden house, wherein a width and/or a height of at least one holding compartment is larger than a depth of the at least one holding compartment.
A computer-implemented method for controlling an application launch based on a security policy, at least a portion of the method being performed by a computing device comprising at least one processor, the method comprising: loading, by the computing device, an application launcher into a sandbox; monitoring, by the computing device, one or more functions associated with launching an application from the application launcher; determining, by the computing device, that the functions associated with launching the application have been invoked by the application launcher, wherein the determination comprises determining, using previously injected software hooks, that an initiation function for running the application has been invoked by the application launcher, wherein the injected software hooks are injected into the application launcher and located at a location of a start of the one or more functions to monitor how an original application launcher executing within the sandbox attempts to access a resource provided in an operating system environment of the computing device; querying, by the computing device, a policy manager comprising a security policy to determine whether the application is potentially harmful; and performing, by the computing device, based on the security policy, a security action preventing the application launcher from launching the application from the sandbox upon determining that the application is potentially harmful. loading, by the computing device, an application launcher into a sandbox; monitoring, by the computing device, one or more functions associated with launching an application from the application launcher; determining, by the computing device, that the functions associated with launching the application have been invoked by the application launcher, wherein the determination comprises determining, using previously injected software hooks, that an initiation function for running the application has been invoked by the application launcher, wherein the injected software hooks are injected into the application launcher and located at a location of a start of the one or more functions to monitor how an original application launcher executing within the sandbox attempts to access a resource provided in an operating system environment of the computing device; querying, by the computing device, a policy manager comprising a security policy to determine whether the application is potentially harmful; and performing, by the computing device, based on the security policy, a security action preventing the application launcher from launching the application from the sandbox upon determining that the application is potentially harmful.
An encoding device configured to generate data to be processed by an external sending device, comprising: an imaging unit configured to capture a first dynamic range image; a conversion unit configured to convert the first dynamic range image into a second dynamic range image; an encoding unit configured to encode the second dynamic range image to generate encoded data; a setting unit configured to provide a plurality of items of knee position information about the conversion from the first dynamic range image into the second dynamic range image; a determination unit configured to determine a priority order of the plurality of items of knee position information; and an adding unit configured to add the plurality of items of knee position information to the encoded data of the second dynamic range image, with the priority order given to the plurality of items of knee position information, wherein the priority order is given to the plurality of items of knee position information in such a manner that information indicating a priority relation of the plurality of items of knee position information is added, wherein said data generated by the encoding device includes said encoded data, said plurality of items of knee position information and said priority relation information. an imaging unit configured to capture a first dynamic range image; a conversion unit configured to convert the first dynamic range image into a second dynamic range image; an encoding unit configured to encode the second dynamic range image to generate encoded data; a setting unit configured to provide a plurality of items of knee position information about the conversion from the first dynamic range image into the second dynamic range image; a determination unit configured to determine a priority order of the plurality of items of knee position information; and an adding unit configured to add the plurality of items of knee position information to the encoded data of the second dynamic range image, with the priority order given to the plurality of items of knee position information, wherein the priority order is given to the plurality of items of knee position information in such a manner that information indicating a priority relation of the plurality of items of knee position information is added, wherein said data generated by the encoding device includes said encoded data, said plurality of items of knee position information and said priority relation information.
Device for access to preformed body cavities, such as thoracic drains, in particular for arthroscopy or laparoscopy on a human or animal body, comprising a base, a shaft guided in the base, which shaft is embodied longer than the base, and a cutting instrument which is arranged in the shaft and is guidable therein and which, upon forward movement, carries the shaft as far as a predetermined position beyond the base, characterised in that the shaft comprises guide grooves in which lateral extensions of the cutting instrument slide.
Container for receiving, storing and dispensing liquids and/or viscous substances, in particular fuel or propellant or drinking water, with a casing with a microscopic surface structure at least partially integrally formed on the casing, said surface structure comprising at least one approximately groove- and/or channel-shaped capillary which is arranged in an inner space of the container at the inner surface of the casing and with an end facing an outlet opening of the container, which extends towards an area adjacent to or next to the outlet opening of the container and which is formed by two side walls assigned to each other and running towards each other to convey the liquid and/or viscous substance within the capillary to the outlet opening of the container.
A roller hemming tool, comprising: - a main body with a hollow structure, which comprises a first end for fastening to a robot and a second end which comprises a secondary body which, in turn, comprises at least one roller; wherein the main body comprises, axially distributed inside: - a load cell in the first end; - a die (6.1) in contact with the load cell; - a first cylinder in contact with the die (6.1); - a second cylinder to which the secondary body is fastened; - an elastic means in contact with the first cylinder and the second cylinder; and - a cap limiting the axial movement of the second cylinder towards the external part of the main body; wherein: - the roller in use continuously exerts a pressure in axial direction, said pressure being successively transmitted to the secondary body, to the second cylinder, to the elastic means, to the first cylinder, to the die (6.1) and, finally, to the load cell, and characterised in that - the cap is configured to be screwed in the second end such that the compression of the elastic means, with the roller at rest or in use, is adjustable by screwing the cap in the second end. - a main body with a hollow structure, which comprises a first end for fastening to a robot and a second end which comprises a secondary body which, in turn, comprises at least one roller; wherein the main body comprises, axially distributed inside: - a load cell in the first end; - a die (6.1) in contact with the load cell; - a first cylinder in contact with the die (6.1); - a second cylinder to which the secondary body is fastened; - an elastic means in contact with the first cylinder and the second cylinder; and - a cap limiting the axial movement of the second cylinder towards the external part of the main body; - the roller in use continuously exerts a pressure in axial direction, said pressure being successively transmitted to the secondary body, to the second cylinder, to the elastic means, to the first cylinder, to the die (6.1) and, finally, to the load cell, and characterised in that - the cap is configured to be screwed in the second end such that the compression of the elastic means, with the roller at rest or in use, is adjustable by screwing the cap in the second end.
A method for suppressing corrosion of glass to be in contact with either one or both of a liquid material containing fluoride ions and a condensate of gas vaporized from the liquid material, wherein the liquid material contains a powder containing silicon dioxide, and the silicon dioxide is contained in a molar ratio of 30 to 120 times to the fluoride ions, and wherein the liquid material contains a fluorosurfactant and an aqueous medium as its medium, and has a pH of less than 7.
A controller associated with a container, the controller comprising a processor and memory associated with the processor, the controller being configured to: determine a derived key based on global positioning system information corresponding to a location of the controller; determine an expected communication pass key based on the derived key; determine whether a user device is authorized based on a received communication pass key from the user device corresponding to the expected communication pass key; and allow the user device access to at least one functionality of the controller when the user device is authorized. determine a derived key based on global positioning system information corresponding to a location of the controller; determine an expected communication pass key based on the derived key; determine whether a user device is authorized based on a received communication pass key from the user device corresponding to the expected communication pass key; and allow the user device access to at least one functionality of the controller when the user device is authorized.
An analysis device configured for performing a failure analysis of a component mounting device comprising a pickup member configured to be moved relative to a board by means of a moving device, a holder configured to hold the pickup member, and a contact detection sensor configured to detect and obtain detection results, based on a relative movement of the pickup member to the holder, that a component picked up by the pickup member is brought into contact with the board, the analysis device comprising: a storage device (91, 93) configured to store job information and configured to store multiple detection result data in relation to the detection results obtained by the contact detection sensor when the component is mounted on the board in association with mounting conditions, which are specified by production information comprised in the job information, at the time the detection results are obtained by the contact detection sensor; and an output device (91, 98) configured to count the multiple detection result data stored in the storage device (91, 93) in association with at least two of the mounting conditions and output the multiple detection result data so counted. a storage device (91, 93) configured to store job information and configured to store multiple detection result data in relation to the detection results obtained by the contact detection sensor when the component is mounted on the board in association with mounting conditions, which are specified by production information comprised in the job information, at the time the detection results are obtained by the contact detection sensor; and an output device (91, 98) configured to count the multiple detection result data stored in the storage device (91, 93) in association with at least two of the mounting conditions and output the multiple detection result data so counted.
A method for detecting homogeneity or dissolution of ingredients of a mixture, comprising: measuring a drive gain amplitude of a mixture using an in-line density device, the mixture comprising a liquid and at least one additional ingredient; monitoring amplitude variation of the drive gain; comparing the amplitude variation of the drive gain to a predetermined threshold; and determining whether the mixture is fully dissolved or is homogeneously dispersed based on the comparison of the amplitude variation of the drive gain to the predetermined threshold. measuring a drive gain amplitude of a mixture using an in-line density device, the mixture comprising a liquid and at least one additional ingredient; monitoring amplitude variation of the drive gain; comparing the amplitude variation of the drive gain to a predetermined threshold; and determining whether the mixture is fully dissolved or is homogeneously dispersed based on the comparison of the amplitude variation of the drive gain to the predetermined threshold.
A method for adjusting links in a cloud radio access network, C-RAN, the C-RAN comprising: • a photonic switch; • a plurality of broadband base units, BBUs, and • a plurality of radio remote units, RRUs, the method comprising: a.) unlinking (step 702), by the photonic switch, a first RRU of the plurality of RRUs from a first BBU of the plurality of BBUs in case of a failure in a link between the first RRU and the first BBU, wherein the photonic switch is optically coupled between the first RRU and the first BBU; b.) linking (step 705), by the photonic switch, a second RRU of the plurality of RRUs to the first BBU, wherein the photonic switch is optically coupled between the first BBU and the second RRU in case of a change in daytime schedule, wherein the first RRU is located at a first site of the C-RAN and the second RRU is located at a second site of the C-RAN; c.) powering down, by the C-RAN, the first RRU (step 722) and expanding, by the C-RAN, a coverage area (step 732) of the second RRU. • a photonic switch; • a plurality of broadband base units, BBUs, and • a plurality of radio remote units, RRUs, a.) unlinking (step 702), by the photonic switch, a first RRU of the plurality of RRUs from a first BBU of the plurality of BBUs in case of a failure in a link between the first RRU and the first BBU, wherein the photonic switch is optically coupled between the first RRU and the first BBU; b.) linking (step 705), by the photonic switch, a second RRU of the plurality of RRUs to the first BBU, wherein the photonic switch is optically coupled between the first BBU and the second RRU in case of a change in daytime schedule, wherein the first RRU is located at a first site of the C-RAN and the second RRU is located at a second site of the C-RAN; c.) powering down, by the C-RAN, the first RRU (step 722) and expanding, by the C-RAN, a coverage area (step 732) of the second RRU.
A method for connecting a pipe provided with a pipe protection arrangement according to claim 9 to an offshore structure, wherein the method comprises the steps of: insertion the pipe in a flexible cover element; connecting the pipe to the offshore structure; and stiffening the flexible cover element by a stiffener element by transforming the stiffener element from a flexible condition to a stiff condition by mechanical, electrical and/or chemical means. insertion the pipe in a flexible cover element; connecting the pipe to the offshore structure; and stiffening the flexible cover element by a stiffener element by transforming the stiffener element from a flexible condition to a stiff condition by mechanical, electrical and/or chemical means.
An in-line process for producing a scrubby substrate, the process comprising: (a) melting a polymer resin material; (b) extruding or otherwise dispensing the molten polymer resin through one or more orifices of a heated nozzle into a stream of hot inert gas which attenuates said molten resin into elongated globules that form a stream of such globules; (c) creating elongated globules having an irregular cross-section and/or an irregular thickness along a length of said elongated globules; (d) collecting said globules onto at least a portion of a surface of a base substrate layer, said globules being abrasive once cooled; wherein a spacing between the one or more orifices of the nozzle and the base substrate layer is less than 15 cm (6 inches), to aid in globule adhesion to the base substrate layer. (a) melting a polymer resin material; (b) extruding or otherwise dispensing the molten polymer resin through one or more orifices of a heated nozzle into a stream of hot inert gas which attenuates said molten resin into elongated globules that form a stream of such globules; (c) creating elongated globules having an irregular cross-section and/or an irregular thickness along a length of said elongated globules; (d) collecting said globules onto at least a portion of a surface of a base substrate layer, said globules being abrasive once cooled;
A method for receiving data in a user equipment, UE, through a plurality of layers of a base station, BS, in a wireless communication system, the method comprising: receiving, from the BS, the data, which are divided into a plurality of first code blocks, and a downlink control indicator, DCI, for the data; and receiving, from the BS, a plurality of second code blocks based on the DCI, wherein all of the plurality of second code blocks are received through a same layer, wherein the plurality of second code blocks are received based on response signals and the plurality of second code blocks are the plurality of first code books having NACK as response signal, wherein the response signals are for each of the plurality of first code blocks based on the DCI, and wherein, based on a number of response signals having NACK being equal to or less than a threshold value, DCI including code block based scheduling information is monitored from the timing of transmission of the response signals. receiving, from the BS, the data, which are divided into a plurality of first code blocks, and a downlink control indicator, DCI, for the data; and receiving, from the BS, a plurality of second code blocks based on the DCI, wherein all of the plurality of second code blocks are received through a same layer, wherein the plurality of second code blocks are received based on response signals and the plurality of second code blocks are the plurality of first code books having NACK as response signal, wherein the response signals are for each of the plurality of first code blocks based on the DCI, and wherein, based on a number of response signals having NACK being equal to or less than a threshold value, DCI including code block based scheduling information is monitored from the timing of transmission of the response signals.