mhurhangee/patent-ind-claim-en huggingface dataset:
A roller bottle system comprising a roller bottle and means to rotate the roller bottle, wherein the roller bottle comprises a culture of primate pluripotent stem cell (pPSC) aggregates or pPSC-derived aggregates in suspension in a physiologically acceptable medium, wherein said aggregates are homocellular or heterocellular aggregates other than embryoid bodies, and wherein the means to rotate the roller bottle is suitable to rotate the roller bottle at a rotation speed of 3 rpm to 30 rpm.
A transformable gamma camera comprising: groups of tiled arrays of gamma detectors , a collimator and radiation shielding ; the transformable gamma camera being configured to subdivide at a plane bisecting the transaxial width of the camera into a plurality of subdivided gamma cameras , each of the subdivided gamma cameras having at least one of the groups of tiled arrays of gamma detectors and corresponding collimator, wherein the radiation shielding comprises additional shielding configured to cover the exposed edges of the subdivided gamma cameras ; wherein the plurality of subdivided gamma cameras can be independently positioned to facilitate contouring with a region of interest for a spatial resolution. groups of tiled arrays of gamma detectors , a collimator and radiation shielding ; the transformable gamma camera being configured to subdivide at a plane bisecting the transaxial width of the camera into a plurality of subdivided gamma cameras , each of the subdivided gamma cameras having at least one of the groups of tiled arrays of gamma detectors and corresponding collimator, wherein the radiation shielding comprises additional shielding configured to cover the exposed edges of the subdivided gamma cameras ; wherein the plurality of subdivided gamma cameras can be independently positioned to facilitate contouring with a region of interest for a spatial resolution.
An apparatus comprising: an encryptor executed by a processor to generate a plurality of encrypted identifiers by encrypting first identifiers, the first identifiers collected at a mobile device in connection with an application, the first identifiers identifying at least one of the mobile device or a user of the mobile device, and respective ones of the encrypted identifiers decodable by ones of database proprietors to which the respective encrypted identifiers pertain; and a communication interface to send to an audience measurement entity the encrypted identifiers in association with a media identifier, the media identifier collected at the mobile device, the media identifier indicative of media presented via the application at the mobile device. an encryptor executed by a processor to generate a plurality of encrypted identifiers by encrypting first identifiers, the first identifiers collected at a mobile device in connection with an application, the first identifiers identifying at least one of the mobile device or a user of the mobile device, and respective ones of the encrypted identifiers decodable by ones of database proprietors to which the respective encrypted identifiers pertain; and a communication interface to send to an audience measurement entity the encrypted identifiers in association with a media identifier, the media identifier collected at the mobile device, the media identifier indicative of media presented via the application at the mobile device.
A holder assembly for hanging goods to be displayed at a point of sale, comprising: - at least one elongated holding member at which goods are to be hanged and to be arranged in a row of goods one behind the other so that the hanging goods may be slid along the at least one elongated holding member to a removal position at an end of the at least one elongated holding member where a good may be removed from the at least one elongated holding member ; and - a carrier to which the at least one elongated holding member is mounted and at which an electronic detection element (6; 1110B, 6R) is provided, wherein the at least one elongated holding member is displaceable between a first position and a second position, wherein the at least one elongated holding member is configured to be displaced from the first position to the second position in order to allow a removal of at least one foremost good of a row of hanging goods arranged at the at least one elongated holding member from the at least one elongated holding member , and wherein the electronic detection element (6; 1110B, 6R) is configured to detect a displacement of the at least one elongated holding member from the first position to the second position for emitting at least one signal, characterized in that the at least one elongated holding member is configured to be swivelled about a swivel axis (S) running perpendicular to a direction (R1) along which goods are slidable at the at least one elongated holding member . - at least one elongated holding member at which goods are to be hanged and to be arranged in a row of goods one behind the other so that the hanging goods may be slid along the at least one elongated holding member to a removal position at an end of the at least one elongated holding member where a good may be removed from the at least one elongated holding member ; and - a carrier to which the at least one elongated holding member is mounted and at which an electronic detection element (6; 1110B, 6R) is provided,
A method of detecting a watermark from image content, the method comprising: extracting a level of a frequency component representing a transform coefficient of the image content; generating a level variation ratio signal representing a moving average ratio of levels between image frames using the extracted level; splitting the level variation ratio signal into time sections based on a point where the level variation ratio signal upwardly crosses a predetermined upper threshold or downwardly crosses a predetermined lower threshold; determining a bit inserting period representing an insertion frequency of bit sequences in the image content based on a frequency of temporal interval between upper peaks of the level variation ratio signal, between lower peaks of the level variation ratio signal, or between the upper and lower peaks of the level variation ratio signal in each of the split time sections; generating a bit sequence by allocating a bit value at every bit inserting period based on the level variation ratio signal; identifying a correlation between a band spreading code and the generated bit sequence by shifting a phase of the band spreading code with respect to the generated bit sequence; identifying a phase shift amount of the band spreading code when the identified correlation is an auto-correlation of the band spreading code that represents a peak value within a preset permissible range of correlation values; determining a bit group having a value corresponding to the identified phase shift amount; and restoring the watermark constituted of bit groups by determining a plurality of bit groups. extracting a level of a frequency component representing a transform coefficient of the image content; generating a level variation ratio signal representing a moving average ratio of levels between image frames using the extracted level; splitting the level variation ratio signal into time sections based on a point where the level variation ratio signal upwardly crosses a predetermined upper threshold or downwardly crosses a predetermined lower threshold; determining a bit inserting period representing an insertion frequency of bit sequences in the image content based on a frequency of temporal interval between upper peaks of the level variation ratio signal, between lower peaks of the level variation ratio signal, or between the upper and lower peaks of the level variation ratio signal in each of the split time sections; generating a bit sequence by allocating a bit value at every bit inserting period based on the level variation ratio signal; identifying a correlation between a band spreading code and the generated bit sequence by shifting a phase of the band spreading code with respect to the generated bit sequence; identifying a phase shift amount of the band spreading code when the identified correlation is an auto-correlation of the band spreading code that represents a peak value within a preset permissible range of correlation values; determining a bit group having a value corresponding to the identified phase shift amount; and restoring the watermark constituted of bit groups by determining a plurality of bit groups.
Assembly for a line bushing for casting in a component , comprising a positioning module for fastening the assembly to a wall or formwork, a fire protection module which has an intumescent fire protection element , and an elongate formwork sleeve , which together form a feed-through space for a line, with receptacles being provided on the fire protection module for reversible fastening of the formwork sleeve and/or the positioning module , characterized in that the receptacles are formed by annular channels on the end faces of the fire protection module .
A method for manufacturing a coating comprising: mixing a carrier liquid with particles and/or with a particle precursor to form a suspension or solution respectively; where the particles comprise a metal oxide; and where the particle precursor comprises a metal salt; injecting the suspension or solution through a plasma flame; and depositing the particles and/or particles from the particle precursor onto a substrate to form a first abradable coating; where the first abradable coating comprises a plurality of cracks or voids that are substantially perpendicular to the substrate surface, where the substrate is a hub surface of a gas turbine engine or where the substrate is a cantilever stator, where the plurality of cracks of voids define a plurality of columns having an average width of 20 to 150 micrometers measured parallel to the substrate surface and an average crack width of 5 to 30 micrometers, as measured 125 micrometers above an interface with the substrate; wherein the metal oxide comprises a silicate, zirconia, hafnia/hafnate, titania, alumina, a zirconate, a titanate, an aluminate, a stannate, a niobate, a tantalate, a tungstate, rare earth oxides, or a combination thereof. mixing a carrier liquid with particles and/or with a particle precursor to form a suspension or solution respectively; where the particles comprise a metal oxide; and where the particle precursor comprises a metal salt; injecting the suspension or solution through a plasma flame; and depositing the particles and/or particles from the particle precursor onto a substrate to form a first abradable coating; where the first abradable coating comprises a plurality of cracks or voids that are substantially perpendicular to the substrate surface, where the substrate is a hub surface of a gas turbine engine or where the substrate is a cantilever stator, where the plurality of cracks of voids define a plurality of columns having an average width of 20 to 150 micrometers measured parallel to the substrate surface and an average crack width of 5 to 30 micrometers, as measured 125 micrometers above an interface with the substrate; wherein the metal oxide comprises a silicate, zirconia, hafnia/hafnate, titania, alumina, a zirconate, a titanate, an aluminate, a stannate, a niobate, a tantalate, a tungstate, rare earth oxides, or a combination thereof.
An X-ray apparatus, comprising: a mounting unit for mounting an object to be measured; an X-ray generation unit configured to irradiate X-rays, from above the mounting unit or from below the mounting unit, to the object to be measured that is mounted upon the mounting unit; an X-ray detector configured to acquire a transmission image of the object to be measured that is being irradiated by the X-rays; and a position detection unit configured to detect a position of the mounting unit, relative to the X-ray generation unit, or the X-ray detector, characterised by : a calculation unit configured to correct a magnification of a transmission image of the object to be measured in accordance with an amount of deflection of the mounting unit which has occurred by mounting the object to be measured upon the mounting unit by calculating a corrected magnification based upon the position detected by the position detection unit. a mounting unit for mounting an object to be measured; an X-ray generation unit configured to irradiate X-rays, from above the mounting unit or from below the mounting unit, to the object to be measured that is mounted upon the mounting unit; an X-ray detector configured to acquire a transmission image of the object to be measured that is being irradiated by the X-rays; and a position detection unit configured to detect a position of the mounting unit, relative to the X-ray generation unit, or the X-ray detector, characterised by : a calculation unit configured to correct a magnification of a transmission image of the object to be measured in accordance with an amount of deflection of the mounting unit which has occurred by mounting the object to be measured upon the mounting unit by calculating a corrected magnification based upon the position detected by the position detection unit.
A method performed by a home energy management system, HEMS, in a home area network, HAN, and at least one device in the HAN, the method comprising: the HEMS registering to a smart meter and managing an energy profile of at least one HAN device including the smart meter, wherein the managing of the energy profile comprises: the HEMS receiving, from the at least one HAN device, information regarding the energy profile; the HEMS determining whether a version of the energy profile is supported by the HEMS or not; when the version of the energy profile is not supported by the HEMS, the HEMS transmitting, to the HAN device, an energy profile update request message including an address of a HEMS management server, the address of the HEMS management server being used by the HAN device to download a new energy profile from the HEMS management server and to update the energy profile to the new energy profile, and downloading, by the HAN device, from the HEMS management server, the new energy profile; the HEMS and the HAN device communicating with each other by using the new energy profile. the HEMS registering to a smart meter and managing an energy profile of at least one HAN device including the smart meter, wherein the managing of the energy profile comprises: the HEMS receiving, from the at least one HAN device, information regarding the energy profile; the HEMS determining whether a version of the energy profile is supported by the HEMS or not; when the version of the energy profile is not supported by the HEMS, the HEMS transmitting, to the HAN device, an energy profile update request message including an address of a HEMS management server, the address of the HEMS management server being used by the HAN device to download a new energy profile from the HEMS management server and to update the energy profile to the new energy profile, and downloading, by the HAN device, from the HEMS management server, the new energy profile; the HEMS and the HAN device communicating with each other by using the new energy profile. the HEMS receiving, from the at least one HAN device, information regarding the energy profile; the HEMS determining whether a version of the energy profile is supported by the HEMS or not; when the version of the energy profile is not supported by the HEMS, the HEMS transmitting, to the HAN device, an energy profile update request message including an address of a HEMS management server, the address of the HEMS management server being used by the HAN device to download a new energy profile from the HEMS management server and to update the energy profile to the new energy profile, and downloading, by the HAN device, from the HEMS management server, the new energy profile; the HEMS and the HAN device communicating with each other by using the new energy profile.
A negative electrode for a lithium ion secondary battery , the negative electrode comprising: a negative electrode electricity collector ; and a negative electrode mixture layer formed over the negative electrode electricity collector , wherein the negative electrode mixture layer includes a negative electrode active material including graphite particles A having a particle internal porosity of 10% or lower, graphite particles B having a particle internal porosity of greater than 10%, when the particle intemal porosity is measured using scanning electron microscopy as indicated in the description, and an alloying material which alloys with lithium, the negative electrode mixture layer includes a first layer formed over the negative electrode electricity collector , and a second layer formed over the first layer , the graphite particles A and the alloying material are contained in larger amounts in the second layer than in the first layer , the graphite particles B are contained in a larger amount in the first layer than in the second layer , and a content of the alloying material is 15 mass% or lower with respect to a total amount of the negative electrode active material in the negative electrode mixture layer . a negative electrode electricity collector ; and a negative electrode mixture layer formed over the negative electrode electricity collector , wherein the negative electrode mixture layer includes a negative electrode active material including graphite particles A having a particle internal porosity of 10% or lower, graphite particles B having a particle internal porosity of greater than 10%, when the particle intemal porosity is measured using scanning electron microscopy as indicated in the description, and an alloying material which alloys with lithium, the negative electrode mixture layer includes a first layer formed over the negative electrode electricity collector , and a second layer formed over the first layer , the graphite particles A and the alloying material are contained in larger amounts in the second layer than in the first layer , the graphite particles B are contained in a larger amount in the first layer than in the second layer , and a content of the alloying material is 15 mass% or lower with respect to a total amount of the negative electrode active material in the negative electrode mixture layer .
A method of connecting together two unit elements of a fluid transport pipe, each unit pipe element being made of metal alloy and being covered in an outer insulating coating made of a thermoplastic material, with the exception of an end portion that does not have an outer insulating coating, the method comprising: a step of butt-welding together two unit pipe elements at their end portions having no outer insulating coating; a step of mechanically assembling at least two rigid shells made of a thermoplastic material on the end portions of the unit pipe elements not having an outer insulating coating; and a step of keeping the shells sealed against the outer insulating coating of the two unit pipe elements that comprises positioning an annular sleeve around the shells while they are mechanically assembled on the end portions of the unit pipe elements not having any outer insulating coating so as to cover both said shells and also portions of the outer insulating coatings of the unit pipe elements, said sleeve being made of the same material as a material constituting the outer insulating coatings of the unit pipe elements or out of a thermoplastic material that is thermochemically compatible therewith, and being fastened in sealed manner on the outer insulating coatings of the unit pipe elements by weld bonding. a step of butt-welding together two unit pipe elements at their end portions having no outer insulating coating; a step of mechanically assembling at least two rigid shells made of a thermoplastic material on the end portions of the unit pipe elements not having an outer insulating coating; and a step of keeping the shells sealed against the outer insulating coating of the two unit pipe elements that comprises positioning an annular sleeve around the shells while they are mechanically assembled on the end portions of the unit pipe elements not having any outer insulating coating so as to cover both said shells and also portions of the outer insulating coatings of the unit pipe elements, said sleeve being made of the same material as a material constituting the outer insulating coatings of the unit pipe elements or out of a thermoplastic material that is thermochemically compatible therewith, and being fastened in sealed manner on the outer insulating coatings of the unit pipe elements by weld bonding.
A method of producing a coated substrate comprising a layer comprising a transparent conductive oxide or a semiconductor, comprising: a. depositing over at least a portion of a substrate in an inert atmosphere a transparent metal oxide or semiconductor layer having an absorption coefficient at a wavelength in the visible spectrum of at least 1,000 cm- 1 ; and b. flashing at least a portion of the transparent conductive oxide or semiconductor layer at a temperature ranging from 15°C to 40°C, with a pulse ranging from 3.5 J/cm 2 to 6.0 J/cm 2 , of non-coherent light within the visible spectrum including light the wavelength in the visible spectrum at which the layer has an absorption coefficient of at least 1,000 cm -1 ; wherein the pulse has a penetration depth in the layer that is less than the thickness of the layer producing a split layer of the transparent conductive oxide or semiconductor, where each layer of the split layer has a different physical property. a. depositing over at least a portion of a substrate in an inert atmosphere a transparent metal oxide or semiconductor layer having an absorption coefficient at a wavelength in the visible spectrum of at least 1,000 cm- 1 ; and b. flashing at least a portion of the transparent conductive oxide or semiconductor layer at a temperature ranging from 15°C to 40°C, with a pulse ranging from 3.5 J/cm 2 to 6.0 J/cm 2 , of non-coherent light within the visible spectrum including light the wavelength in the visible spectrum at which the layer has an absorption coefficient of at least 1,000 cm -1 ; wherein the pulse has a penetration depth in the layer that is less than the thickness of the layer producing a split layer of the transparent conductive oxide or semiconductor, where each layer of the split layer has a different physical property.