mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing a positive electrode active material for a secondary battery, the method comprising: providing a positive electrode active material precursor containing nickel, cobalt, and manganese and having a nickel content accounting for 60 mol% or more of total metals, wherein the positive electrode active material precursor is represented by [Ni a Co b Mn c M d ](OH) 2 where M is one or more metal elements selected from the group consisting of Al, Mg, V, Ti, Zr, W, Sn, and Nb, 0.6≤a<1, a+b+c+d=1, 0<b≤0.4, 0<c≤0.3, and 0≤d≤0.05; and forming a lithium transition metal oxide by mixing the positive electrode active material precursor, a lithium source material, a first firing additive, a second firing additive, and a third firing additive and performing primary firing, wherein the first firing additive is a lithium-containing compound, the second firing additive is a carbonate ion-containing compound and is at least one selected from the group consisting of BaCO 3 , NaCO 3 , MgCO 3 , and CaCO 3 , and the third firing additive is a boron-containing compound. providing a positive electrode active material precursor containing nickel, cobalt, and manganese and having a nickel content accounting for 60 mol% or more of total metals, wherein the positive electrode active material precursor is represented by [Ni a Co b Mn c M d ](OH) 2 where M is one or more metal elements selected from the group consisting of Al, Mg, V, Ti, Zr, W, Sn, and Nb, 0.6≤a<1, a+b+c+d=1, 0<b≤0.4, 0<c≤0.3, and 0≤d≤0.05; and forming a lithium transition metal oxide by mixing the positive electrode active material precursor, a lithium source material, a first firing additive, a second firing additive, and a third firing additive and performing primary firing, wherein the first firing additive is a lithium-containing compound, the second firing additive is a carbonate ion-containing compound and is at least one selected from the group consisting of BaCO 3 , NaCO 3 , MgCO 3 , and CaCO 3 , and the third firing additive is a boron-containing compound.
Apparatus for diagnosis by magnetic resonance configured to generate a uniform magnetic field in a field of view , wherein the apparatus has a main longitudinal axis and comprises two external arrangements of Halbach ring magnets positioned symmetrically with respect to the center of the longitudinal axis and a plurality of internal arrangements of Halbach ring magnets integrally coupled to a support structure formed by collars and rings , placed in pairs symmetrically with respect to the center of the longitudinal axis, the internal and external arrangements being positioned at different positions along the main longitudinal axis of the apparatus so that the two external arrangements are at the two end positions of the apparatus, the magnets of the external and internal arrangements being identical to each other and having a right prism shape with a N sides regular polygon base, whereby the right prism has a longitudinal axis and N side faces parallel to said longitudinal axis, wherein each magnet is configured to generate a magnetic field directed orthogonally to the center of one of its N side faces, each of the external and internal arrangements of Halbach ring magnets comprises a number P of elements arranged such that their longitudinal axes are positioned on a circumference centered on the main longitudinal axis of the apparatus each one with an angular position α i and such that the longitudinal axes of two adjacent magnets have a mutual angular distance equal to 360° /N, and such that the magnetic fields of two adjacent magnets are oriented in directions forming an angle equal to 720° /N between themselves, wherein the longitudinal axes of the magnets of each external arrangement are positioned on a circumference having a radius rest and the longitudinal axes of the magnets of each internal arrangement are positioned on a circumference having a radius nnt, whereby the field of view has a shape of a sphere centered at the geometric center of the plurality of the internal arrangements of Halbach ring magnets, at least one of two external arrangements of Halbach ring magnets being provided with an opening configured to allow access to the field of view from outside, characterized in that the radius nnt is greater than the radius r est , i.e. nnt> r est , wherein the longitudinal axis of each magnet of an internal arrangement is positioned at an angular position α i equidistant between the angular positions of the two closest magnets of each of the two arrangements adjacent to that to which belongs the magnet under consideration.
A lithium-containing aluminosilicate glass-ceramic article comprising: a glass-ceramic substrate having opposing first and second surfaces defining a substrate thickness ( t ); a central composition at a center of the glass-ceramic article containing an alkali metal and a crystalline phase, wherein the crystalline phase is 20% or more by weight of the central composition; and one or more of: (a) a stress profile comprising: a knee that is at a depth of 3 micrometers or more; (b) a stress profile comprising: a first compressive stress at the first surface that is 200 MPa or more; and a second compressive stress at a knee that is 20 MPa or more; or (c) a non-sodium oxide having a non-zero concentration that varies from the first surface to a depth of layer of the non-sodium oxide; and a stress profile comprising a knee and a depth of compression (DOC) that is located at 0.10• t or deeper; wherein the crystalline phase comprises lithium silicate, wherein the lithium silicate crystalline phase is a lithium disilicate crystalline phase, petalite, β-spodumene solid solution, β-quartz solid solution, or any combinations thereof. a glass-ceramic substrate having opposing first and second surfaces defining a substrate thickness ( t ); a central composition at a center of the glass-ceramic article containing an alkali metal and a crystalline phase, wherein the crystalline phase is 20% or more by weight of the central composition; and one or more of: (a) a stress profile comprising: a knee that is at a depth of 3 micrometers or more; (b) a stress profile comprising: a first compressive stress at the first surface that is 200 MPa or more; and a second compressive stress at a knee that is 20 MPa or more; or (c) a non-sodium oxide having a non-zero concentration that varies from the first surface to a depth of layer of the non-sodium oxide; and a stress profile comprising a knee and a depth of compression (DOC) that is located at 0.10• t or deeper; (a) a stress profile comprising: a knee that is at a depth of 3 micrometers or more; (b) a stress profile comprising: a first compressive stress at the first surface that is 200 MPa or more; and a second compressive stress at a knee that is 20 MPa or more; or (c) a non-sodium oxide having a non-zero concentration that varies from the first surface to a depth of layer of the non-sodium oxide; and a stress profile comprising a knee and a depth of compression (DOC) that is located at 0.10• t or deeper; wherein the crystalline phase comprises lithium silicate, wherein the lithium silicate crystalline phase is a lithium disilicate crystalline phase, petalite, β-spodumene solid solution, β-quartz solid solution, or any combinations thereof.
Anesthetic solution comprising: - a natural anesthetic agent selected from clove essential oil, isoeugenol, and/or eugenol, - food-grade β-cyclodextrins forming a water-soluble inclusion complex with the natural anesthetic agent, and - water selected from freshwater, seawater, ice slurry, or water with crushed ice, characterized in that the proportion of the natural anesthetic in the inclusion complex is comprised between 5 and 30% of the total mass of the complex, the proportion of β-cyclodextrins in the inclusion complex is comprised between 70 and 95% of the total mass of the complex, the anesthetic agent is at a concentration comprised between 5 and 60 mg of anesthetic agent/kg of water, and in that the β-cyclodextrins used for formulating the anesthetic solution have a moisture content between 1 and 4%. - a natural anesthetic agent selected from clove essential oil, isoeugenol, and/or eugenol, - food-grade β-cyclodextrins forming a water-soluble inclusion complex with the natural anesthetic agent, and - water selected from freshwater, seawater, ice slurry, or water with crushed ice, characterized in that the proportion of the natural anesthetic in the inclusion complex is comprised between 5 and 30% of the total mass of the complex, the proportion of β-cyclodextrins in the inclusion complex is comprised between 70 and 95% of the total mass of the complex, the anesthetic agent is at a concentration comprised between 5 and 60 mg of anesthetic agent/kg of water, and in that the β-cyclodextrins used for formulating the anesthetic solution have a moisture content between 1 and 4%.
Method for manufacturing components, which comprises: joining a first edge of a thermoplastic-containing first component part and a second edge of a thermoplastic-containing second component part to one another without any overlap; and connecting the first and the second edge by means of friction stir welding; characterised in that friction stir welding involves rubbing a rotating friction stir welding pin against at least one metal object , wherein the method comprises, before the step of joining without any overlap: inserting the at least one metal object into the thermoplastic-containing first component part on the first edge thereof before said edges are joined to one another without any overlap and/or driving the at least one metal object into the thermoplastic-containing first and/or second component part in a solid state, and/or applying the at least one metal object in the form of a metal layer to the thermoplastic-containing first and/or second component part. joining a first edge of a thermoplastic-containing first component part and a second edge of a thermoplastic-containing second component part to one another without any overlap; and connecting the first and the second edge by means of friction stir welding; characterised in that friction stir welding involves rubbing a rotating friction stir welding pin against at least one metal object , wherein the method comprises, before the step of joining without any overlap: inserting the at least one metal object into the thermoplastic-containing first component part on the first edge thereof before said edges are joined to one another without any overlap and/or driving the at least one metal object into the thermoplastic-containing first and/or second component part in a solid state, and/or applying the at least one metal object in the form of a metal layer to the thermoplastic-containing first and/or second component part. inserting the at least one metal object into the thermoplastic-containing first component part on the first edge thereof before said edges are joined to one another without any overlap and/or driving the at least one metal object into the thermoplastic-containing first and/or second component part in a solid state, and/or applying the at least one metal object in the form of a metal layer to the thermoplastic-containing first and/or second component part.
A method for manufacturing multi-copy strips , comprising the steps of: - creating multi-copy portions on an intermediate carrier, wherein the multi-copy portions are provided for application to a multi-copy region of a target substrate ; - creating two outer portions for each multi-copy portion on the intermediate carrier, wherein the two outer portions are provided for application to outer regions of the target substrate , and wherein, lengthwise, one of the two outer portions of a multi-copy portion , the multi-copy portion and the other of the two outer portions form a multi-copy strip ; - pre-structuring the two outer portions of the multi-copy strip on the intermediate carrier for the application of the multi-copy strip to the target substrate , wherein the intermediate carrier is an intermediate carrier web on which a plurality of the multi-copy strips are created side by side; and - cutting the intermediate carrier web into a plurality of partial strip webs , on each of which a plurality of the pre-structured multi-copy strips are arranged lengthwise one behind the other. - creating multi-copy portions on an intermediate carrier, wherein the multi-copy portions are provided for application to a multi-copy region of a target substrate ; - creating two outer portions for each multi-copy portion on the intermediate carrier, wherein the two outer portions are provided for application to outer regions of the target substrate , and wherein, lengthwise, one of the two outer portions of a multi-copy portion , the multi-copy portion and the other of the two outer portions form a multi-copy strip ; wherein the two outer portions are provided for application to outer regions of the target substrate , and wherein, lengthwise, one of the two outer portions of a multi-copy portion , the multi-copy portion and the other of the two outer portions form a multi-copy strip ; - pre-structuring the two outer portions of the multi-copy strip on the intermediate carrier for the application of the multi-copy strip to the target substrate , wherein the intermediate carrier is an intermediate carrier web on which a plurality of the multi-copy strips are created side by side; and - cutting the intermediate carrier web into a plurality of partial strip webs , on each of which a plurality of the pre-structured multi-copy strips are arranged lengthwise one behind the other.
Device (D1) for supplying a purified liquid to an air treatment device (D2) housed in an equipment (PV) comprising supply means (MAL) adapted to be coupled in a sealed manner to an outlet orifice (OS), a reservoir (RL) containing a liquid and housed in said equipment (PV) in a removable manner by an opening (OV) defined in a wall (PE), and to a supply orifice (OA) of said air treatment device (D2), the device being characterized in that it comprises sanitation means (MAS) adapted to be placed in said air treatment device (D2) equipment (PV) behind a housing (CR) controlling access to said opening (OV), and arranged to sanitize said liquid contained in said reservoir (RL) by a selected treatment, said sanitizing means (MAS) being arranged to carry out a light treatment, said housing (CR) being made of a translucent material capable of letting through a part of the light produced by said sanitizing means (MAS) of the liquid supply device (D1) during a treatment.
A data processing method performed by a computer for determining the position of a soft tissue body part within a patient's body, which is to be treated by radiotherapy with a treatment beam arrangement of at least one position of a treatment beam issued by a treatment device , the data processing method comprising the following steps: a. acquiring CT-image data comprising information about the position of the body part within a coordinate system assigned to a transportable CT-device having an undercarriage by which the CT-device can be freely moved in two dimensions on the floor of a hospital, wherein the patient's body is positioned in a treatment position relative to the treatment device , and wherein the CT-device is configured to be positioned relative to the patient's body and/or relative to the treatment device ; b. acquiring first transformation data comprising information about a first transformation between the coordinate system assigned to the CT-device and a coordinate system assigned to the treatment device , wherein acquiring first transformation data involves using a position detection unit configured to determine the spatial position of the CT-device with respect to the treatment device ; c. determining, based on the CT-image data and the first transformation data, position data comprising information about the position of the body part within the coordinate system assigned to the treatment device . a. acquiring CT-image data comprising information about the position of the body part within a coordinate system assigned to a transportable CT-device having an undercarriage by which the CT-device can be freely moved in two dimensions on the floor of a hospital, wherein the patient's body is positioned in a treatment position relative to the treatment device , and wherein the CT-device is configured to be positioned relative to the patient's body and/or relative to the treatment device ; b. acquiring first transformation data comprising information about a first transformation between the coordinate system assigned to the CT-device and a coordinate system assigned to the treatment device , wherein acquiring first transformation data involves using a position detection unit configured to determine the spatial position of the CT-device with respect to the treatment device ; c. determining, based on the CT-image data and the first transformation data, position data comprising information about the position of the body part within the coordinate system assigned to the treatment device .
A method of operating a wireless device in a wireless communication network , the method comprising: determining a carrier aggregation, CA, configuration for the wireless device to receive multicast data on a plurality of carriers of a dedicated mode type and/or a mixed mode type, wherein carriers operating in dedicated mode comprise only multimedia broadcast multicast service, MBMS, frames, and carriers operating in mixed mode comprise carriers from mixed cells with unicast and FeMBSFN subframes, the CA configuration being determined based at least partially on a pre-defined set of supported CA configurations; configuring the determined CA configuration in the wireless device; and performing one or more operational tasks under the configured CA configuration, wherein determining the CA configuration comprises sending to another node in the wireless communication network, a wireless device capability that corresponds to the wireless device's capability to support one or more CA configurations, wherein the wireless device's capability to support one or more CA configurations comprises at least one of a quantity of carriers during a dedicated multicast operation mode and a quantity of mixed cells that include unicast and FeMBSFN subframes. determining a carrier aggregation, CA, configuration for the wireless device to receive multicast data on a plurality of carriers of a dedicated mode type and/or a mixed mode type, wherein carriers operating in dedicated mode comprise only multimedia broadcast multicast service, MBMS, frames, and carriers operating in mixed mode comprise carriers from mixed cells with unicast and FeMBSFN subframes, the CA configuration being determined based at least partially on a pre-defined set of supported CA configurations; configuring the determined CA configuration in the wireless device; and performing one or more operational tasks under the configured CA configuration, wherein determining the CA configuration comprises sending to another node in the wireless communication network, a wireless device capability that corresponds to the wireless device's capability to support one or more CA configurations, wherein the wireless device's capability to support one or more CA configurations comprises at least one of a quantity of carriers during a dedicated multicast operation mode and a quantity of mixed cells that include unicast and FeMBSFN subframes.
A data processing apparatus comprising: a processing unit which performs modulation processing on a physical layer frame including a preamble, which includes a modulation parameter, and one or more subframes, which include data, wherein any modulation parameter can be set for each of the subframes, and the subframes are arranged in a specific order in the physical layer frame collectively by subframe groups which are collections of subframes with a same fast Fourier transform, FFT, size, wherein the subframes are arranged in the physical layer frame in a descending order of the FFT size and an ascending order of an interval of pilot signals in a frequency direction. a processing unit which performs modulation processing on a physical layer frame including a preamble, which includes a modulation parameter, and one or more subframes, which include data, wherein any modulation parameter can be set for each of the subframes, and the subframes are arranged in a specific order in the physical layer frame collectively by subframe groups which are collections of subframes with a same fast Fourier transform, FFT, size, wherein the subframes are arranged in the physical layer frame in a descending order of the FFT size and an ascending order of an interval of pilot signals in a frequency direction.
Liquid treatment device, preferably for a treatment plant, having a treatment tank and a scraper bridge or fan bridge which can be moved thereon, wherein the treatment tank has a circumferential wall with an upper periphery , and also a cover , which has an upper running surface , on the upper periphery , wherein at least the running surface of the cover is of crowned form, as seen transversely with respect to the movement direction of the drive on the cover , in order to form a central camber of the running surface , and the scraper bridge or fan bridge has, at least at an end or end region, a drive which is supported on the cover of the upper periphery of the treatment tank and which has at least one running wheel which rolls on the cover , characterized in that , as seen in the movement direction of the drive , a scraping blade which can be adapted to the running surface of the cover in a flexible manner is arranged in front of said drive, and in that the or the respective running wheel of the or of the respective drive has a profiled lateral surface .
A razor assembly , comprising: at least one shaving blade having a cutting edge; a blade housing configured to accommodate the at least one shaving blade such that a width direction of the blade housing is in parallel with a longitudinal direction of the cutting edge and comprising an inlet portion and a discharge portion configured to discharge a shaving aid delivered from the inlet portion ; a receiving member disposed on a rear surface of the blade housing and comprising a receiving valve and a receiving hole formed on one side of the receiving valve ; and an aid supplying member comprising a discharge end configured to discharge the shaving aid to the inlet portion , characterized in that at least a portion of the discharge end , which is inserted into the receiving hole , is accommodated between the receiving valve and the blade housing . at least one shaving blade having a cutting edge; a blade housing configured to accommodate the at least one shaving blade such that a width direction of the blade housing is in parallel with a longitudinal direction of the cutting edge and comprising an inlet portion and a discharge portion configured to discharge a shaving aid delivered from the inlet portion ; a receiving member disposed on a rear surface of the blade housing and comprising a receiving valve and a receiving hole formed on one side of the receiving valve ; and an aid supplying member comprising a discharge end configured to discharge the shaving aid to the inlet portion , characterized in that at least a portion of the discharge end , which is inserted into the receiving hole , is accommodated between the receiving valve and the blade housing .