183 results about "Non magnetic" patented technology

The invention discloses a FeNi soft magnetic composite material based on tetrabutyl orthosilicate hydrolysis coating and a preparation method of the FeNi soft magnetic composite material. According to the method, through a controllable sol-gel process, tetrabutyl orthosilicate is hydrolyzed to generate SiO2 gel, then a uniform and ultrathin SiO2 gel layer is generated on the surface of FeNi powder in situ, and then heat treatment densification is performed to obtain the FeNi soft magnetic composite material coated with SiO2 in an insulation mode. The SiO2 insulating layer is firmly combined with the matrix metal powder, the thermal stability is good, high frequency and high resistivity are achieved, and meanwhile dilution of non-magnetic relative magnetic performance is reduced to a great extent. The final magnetic core is obtained through compression molding and annealing heat treatment, has the excellent characteristics of high effective magnetic conductivity and low high-frequency magnetic core loss, and is particularly suitable for various efficient and miniaturized power electronic devices in the MHz frequency band.

Provided is a magnetic storage element comprising a first stack composed of: a storage layer formed from a ferromagnetic body; a first fixed layer formed from a ferromagnetic body; a first spacer layer that is sandwiched by the storage layer and the first fixed layer, and that causes antiferromagnetic exchange coupling between the storage layer and the first fixed layer; and a tunnel barrier layer that is provided to the opposite-side surface of the storage layer from the first spacer layer and that is formed of a non-magnetic body. The first stack is sandwiched by a first electrode and a second electrode.

A package module includes a conductive coil; and a composite magnetic material covering the conductive coil, the composite magnetic material including: a magnetic filler including coated magnetic particles (MB) dispersed in the composite non-magnetic material (MA); and a falling film amount filler (MC) comprising falling film amount particles or rubber particles, or comprising a filler having-OH or-COOH functional groups.

The magnetic tape includes: a non-magnetic support; and a magnetic layer containing a ferromagnetic powder, in which a contact angle with water, which is measured on a surface of the magnetic layer, is 95° or more and 105° or less, and standard deviation σ of the contact angle in a width direction of the surface of the magnetic layer is 1.0° or less.

A composite magnetic material including a composite non-magnetic material (MA) and a magnetic filler (MB). The magnetic filler (MB) includes coated magnetic particles dispersed in the composite non-magnetic material (MA). The coated magnetic particles (MB) include magnetic metal particles (MB1) that are surface coated with an insulation coating layer (MB2). The composite magnetic material provides a high relative magnetic permeability no lower than 13 at a frequency of no greater than 200 MHz.

The utility model relates to the technical field of material production and processing, and discloses a feeding device and a material pulverizer. The first section of the feeding pipe is communicated with the pulverizer body, the second section of the feeding pipe is filled with materials, the first section of the gas path pipeline is communicated with the feeding pipe, and an outlet of the first section of the gas path pipeline and an outlet of the first end of the feeding pipe are located on the same axis, so that compressed gas flowing out of the gas path pipeline is horizontally blown to the outlet of the first end of the feeding pipe; and materials in the feeding pipe are fed into the crusher body to be crushed. According to the feeding device, the use of non-magnetic materials is reduced, so that the introduction of non-metal foreign matters caused by abrasion is avoided, the product quality is ensured, in addition, the arrangement of a spiral device is reduced, the accumulation of materials at dead angles of the structure is avoided, the blockage of the materials is avoided, the feeding efficiency is ensured, and the production efficiency is improved.

Provided is a magnetic recording medium comprising a non-magnetic support and a magnetic layer containing ferromagnetic powder, and further comprising a non-magnetic layer containing non-magnetic powder between the non-magnetic support and the magnetic layer. The average pore diameter of the magnetic layer and the non-magnetic layer is 30.0 nm or less, and the standard deviation of the pore diameter distribution of the magnetic layer and the non-magnetic layer is 30.0 nm or less.

A layered structure includes a non-magnetic layer, an upper soft magnetic layer, a lower soft magnetic layer, and a coupling soft magnetic layer. The upper soft magnetic layer is in contact with atop surface of the non-magnetic layer. The lower soft magnetic layer is in contact with a bottom surface of the non-magnetic layer. The coupling soft magnetic layer is coupled to the upper soft magnetic layer and the lower soft magnetic layer. The coupling soft magnetic layer is in contact with a first side surface and a second side surface of the non-magnetic layer. The first side surface and the second side surface are spaced from each other.

A high-power, high-temperature-stability M-type strontium ferrite belongs to the field of ferrite material preparation technology. The ferrite comprises a main formulation of SrCO3, La2O3, CaCO3, MnO, SnO2, Fe2O3, and Co2O3, and additives composed of CaCO3, SiO2, H3BO3, and La2O3. This invention introduces Sn-Mn ions for co-substitution, thereby constructing a Sn... 4+ -Mn 2+ The charge balance mechanism effectively suppressed the Fe ionization induced by the introduction of high-valence ions. 3+ To Fe 2+ Price change behavior, effective compensation after replacement due to the introduction of non-magnetic Sn 4+ This results in a loss of lattice magnetic moment. Simultaneously, through a stepped pre-sintering and sintering process, a CoFe2O4 hard magnetic spinel phase is induced to precipitate in the M-type strontium ferrite main phase. The negative coercivity temperature coefficient of the CoFe2O4 phase complements the inherent positive temperature coefficient of the matrix.

The present invention provides a magnetic tape having a non-magnetic support and a magnetic layer containing a strong magnetic powder, in a small-angle X-ray scattering spectrum of the non-magnetic support obtained by small-angle X-ray scattering measurement, in a region where q is 0.5 to 1.5 A-1, a ratio of a scattering intensity I at a q value q max at which a maximum of a rate of change of the scattering intensity is present to a scattering intensity I max at which a minimum of the rate of change of the scattering intensity is present is 2.7 or more, q min < 1.5 A-1 min < 0.5 A-1 max < 0.5 A-1 min < 0.5 A-1 min < 0.5 A-1 max and a glass transition temperature Tg of the non-magnetic support is 140°C or more, a magnetic tape cartridge including the magnetic tape, and a magnetic recording and reproducing apparatus.

The present application provides a magnetic layer having a coercive force Hc of 2.00 kOe or more and a residual magnetization Mrt per unit area of 2.00 memu / cm2 or more, which is achieved without using a non-magnetic underlayer for promoting in-plane orientation of the magnetic layer and without performing heat deposition 2 The above in-plane magnetization film, in-plane magnetization film multilayer structure, hard bias layer, magnetoresistance effect element, and sputtering target. The in-plane magnetization film has: a preliminary magnetic layer (12A) containing Co, Pt, and a non-magnetic grain boundary material and having a thickness of 1 to 32 nm; and a magnetic layer main portion (12B) formed on the preliminary magnetic layer (12A) and containing Co, Pt, and a non-magnetic oxide, the above non-magnetic grain boundary material of the preliminary magnetic layer (12A) containing at least one of a Zn oxide and a Ta oxide.

The utility model relates to a parallel-distributed multi-roller magnetic separator for purifying magnetic materials, which comprises a feeding mechanism, a material conveying mechanism, a plurality of groups of roller mechanisms, a collecting mechanism, a driving system and a rack, the feeding mechanism is mounted in front of the roller mechanisms and on the material conveying mechanism, and the feeding mechanism is detachably connected with the rack; the multiple sets of roller mechanisms are sequentially arranged in parallel in the discharging direction, the roller mechanisms are detachably connected with the rack, the material conveying mechanism is located at the bottoms of the roller mechanisms and detachably connected with the rack, and the collecting mechanism is located at the junction of a magnetic area and a non-magnetic area between the material conveying mechanism and the roller mechanisms. The collecting mechanism is detachably connected with the rack, the driving system is fixedly connected with the rack, and the driving system provides power for the feeding mechanism, the material conveying mechanism, the multiple sets of roller mechanisms and the collecting mechanism; the magnetic separation device has the technical effects of efficient separation and improvement of magnetic separation precision.

The invention relates to a sensor device (1) comprising a transducer (3) adapted to generate a magnetic field (MF), the sensor device (1) being configured to measure a beating gap (G) between a first refining disc (5) and a second refining disc (7) of a refiner arrangement (9) and to be mounted in the first refining disc (5), the sensor device (1) comprising a magnetic pole (13), a coil assembly (15) and a measuring head (11') configured to be set in a calibration position relative to the second refining disc (7) for calibration of the sensor device (1). The measuring head (11') comprises an outer end (10') made of a non-magnetic material configured to be positioned in abutment with the second refining disc (7) in a calibration sequence. The invention also relates to a method of calibrating said sensor device (1).

A magnetoresistive effect element includes a first ferromagnetic layer, a second ferromagnetic layer, a non-magnetic layer disposed between the first ferromagnetic layer and the second ferromagnetic layer, and an additive-containing layer disposed at any position in a laminating direction, at least one of the first ferromagnetic layer and the second ferromagnetic layer is a Heusler alloy containing at least one of boron and carbon, at least part of which is crystallized, and the additive-containing layer is a non-magnetic layer containing at least one of boron and carbon, and any one element selected from the group made of Ti, V, Cr, Cu, Zn, Zr, Mo, Ru, Pd, Ta, W, Ir, Pt and Au.

The application relates to the technical field of magnetic storage, and discloses a magnetic recording device, which comprises a substrate and a strip-shaped information storage layer. The substrate comprises a base made of a flexible material, and the strip-shaped information storage layer comprises a plurality of ferromagnetic layers made of ferromagnetic material and a plurality of interval layers made of non-magnetic material, the interval layers are located between the ferromagnetic layers, and the ferromagnetic layers and the interval layers are alternately stacked on the substrate. Since the magnetization direction of each ferromagnetic layer can be changed through writing, the proportion of different magnetization directions of the ferromagnetic layers in the strip-shaped information storage layer can be changed to represent different data storage states by adjusting the energy level of an energy auxiliary device of a magnetic field writing head, the magnetization direction of the corresponding layers of ferromagnetic layers is flipped, multi-state storage is realized, the storage density is improved, and the upper limit of the data storage capacity is improved. The application further discloses a magnetic storage device.

Disclosed is a conductive electrode array mask including a mask portion having an opening portion corresponding to an array pattern of electrode portions arranged in a body to be mounted, and mounting a conductive ball at a predetermined position by transferring the conductive ball to the opening portion, a partially protruding protrusion is integrally formed on a mounting-facing side of the portion, and the mask portion is formed of a magnetic material, the protruding portion is formed of a non-magnetic material or a metal material, the shape of the non-magnetic material protruding portion is a circular, triangular, star-shaped or ring-shaped structure, and the shape of the metal protruding portion is a cuboid, cube or cylinder. The array mask is easy to align with the body to be mounted, and as a result, the conductive balls are mounted at predetermined positions, so that defects can be reduced. Further, when the conductive balls are dropped by the scraper, deflection is less likely to occur due to the load of the scraper, and therefore, a certain amount of conductive balls is disposed in each opening.

The present application provides a new configuration of a vibration isolation device, which can control the vibration isolation characteristics with excellent energy efficiency by efficiently applying a control magnetic force to a sealed magnetic functional fluid. In a vibration isolation device (10) that controls the vibration isolation characteristics by applying a magnetic force from a magnetic field generating unit (56) to a throttle passage (40) that communicates fluid chambers (38, 38) in which a magnetic functional fluid (39) is sealed, an intermediate cylinder member (24) in which an outer cylinder member (16) composed of a non-magnetic material is fixedly fitted is composed of a ferromagnetic material, and a magnetic field acting opening portion (32) is provided in the intermediate cylinder member (24) at a position corresponding to the throttle passage (40).

The invention relates to the technical field of photovoltaic module recovery, and discloses a waste photovoltaic module disassembly and classification recovery device which comprises a supporting frame body and a to-be-disassembled waste photovoltaic module placed on the supporting frame body, and a pushing mechanism for pushing the to-be-disassembled waste photovoltaic module is further arranged in the supporting frame body. A crushing frame body is arranged on the supporting frame body, and the waste photovoltaic module to be disassembled penetrates through the crushing frame body. The electric telescopic rod stretches out and draws back in the scraping channel, the electric telescopic rod is adjusted by the sensor assembly, when a sensor arranged on the inner wall of the jolting box body senses descending of the baffle plate, a signal can be transmitted to the electric telescopic rod, the scraping plate is lifted and abuts against the magnet plate, and the scraping plate retracts along with retraction of the magnet plate; and magnetic substances originally adhered to the magnet plate can be scraped into the side box by the scraping plate, so that the separation of the magnetic substances and non-magnetic substances mixed with the chippings can be realized.

The application provides a separating device suitable for non-magnetic plates, and relates to the technical field of automatic production equipment. The device comprises a side wall plate, and the side wall plate surrounds an installation space. An adapter plate is arranged in the installation space, and the adapter plate is in sliding connection with the side wall plate and can slide up and down relative to the side wall plate. A separating device is arranged on the adapter plate, a second avoiding groove is arranged on the side wall plate, and the working end of the separating device extends to the outside of the side wall plate through the second avoiding groove. A photoelectric sensor for detecting the plate is arranged on the separating device, and the signal emission end of the photoelectric sensor faces the working end of the separating device. A handle is arranged on the separating device, a first avoiding groove is arranged on the side wall plate, and the handle extends to the outside of the side wall plate through the first avoiding groove. A locking mechanism is arranged on the adapter plate. The device realizes lightweight equipment, is convenient to operate, has high reliability, is low in cost, and is suitable for the separating needs of non-magnetic materials.

The application relates to the field of magnetic storage, in particular to a magnetic storage device, which comprises a fixed layer, a channel isolation layer and a free layer; the channel isolation layer is located between the fixed layer and the free layer; further comprising a non-magnetic layer, which is located on the free layer, and the material of the non-magnetic layer is different from that of the free layer. The application can effectively reduce the critical current for changing the magnetization direction of the free layer of the MTJ and reduce the volume of the magnetic storage device.

The invention discloses a processing method for magnetic and non-magnetic material coplanar different material selective laser melting, and belongs to the technical field of additive manufacturing, the processing method comprises the following steps: S1, slicing is divided into magnetic slices and non-magnetic slices; s2, a printing device and a powder preparation assembly for laser melting are prepared; s3, the magnetic charge adsorption powder preparation platform carries out magnetic powder preparation, and the non-magnetic negative pressure adsorption powder preparation platform carries out non-magnetic powder preparation; s4, the magnetic powder falls to a printing substrate; s5, the non-magnetic powder falls to the printing substrate; s6, laser printing is carried out; and S7, the steps S3-S6 are repeated until printing of the component is completed, through the method, for the component formed by communication of the magnetic material and the non-magnetic material, powder can be laid more quickly for subsequent printing, and therefore the overall efficiency is improved.

Described is a recording head that includes a notched write pole to enhance perpendicularity of the write pole field. The write pole notch is formed at the media-facing surface and the leading edge of the write pole. The write pole notch is filled with a non-magnetic metal. The recording head further includes a near field transducer located in front of the leading edge of the write pole and having a portion extending to the media-facing surface that is spaced apart from the notch, thereby forming a gap between the near field transducer and the notch.

A composite magnetic material and a method for forming a composite magnetic material. The composite magnetic material includes a composite non-magnetic material (MA) and a magnetic filler including coated magnetic particles (MB) dispersed in the composite non-magnetic material (MA). The coated magnetic particles (MB) include large sized particles having sizes in median diameters essentially ranging from 33.6 μm to 54.8 μm.

The present invention aims to provide a method for preparing a peptide-containing sample that enables identifying a greater number of trace proteins in proteome analysis of biological samples such as dried blood spots (DBS), and that allows for the automated processing of a large number of samples. By washing a fiber aggregate having a biological sample adsorbed thereon with an aqueous solvent, hydrophilic proteins contained in the biological sample are removed from the fiber aggregate. Residual proteins bound to the fiber aggregate are digested with a protease, and the fiber aggregate is removed from the digestion reaction mixture to obtain a peptide mixture. By allowing magnetic particles such as iron powder to be adhered to the fiber aggregate and magnetically adsorbing the fiber aggregate, operations such as recovery, washing, and transfer of the fiber aggregate having the biological sample adsorbed thereon are carried out. The present invention also aims to provide a technique for easily and reliably separating non-magnetic solid-phase carriers dispersed and suspended in a liquid from the liquid. By agitating a liquid containing magnetic particles and a non-magnetic solid-phase carrier, the magnetic particles are allowed to be adhered to the non-magnetic solid-phase carrier. The non-magnetic solid-phase carrier having the magnetic particles adhered thereto is then magnetically adsorbed and separated from the liquid. When a non-magnetic solid-phase carrier having a porous structure is used, magnetic particles can enter the voids within the porous structure through agitation, thereby allowing the non-magnetic solid-phase carrier to be more reliably magnetically adsorbed. When a thickening agent is added to the liquid, the sedimentation rates of the non-magnetic solid-phase carrier and the magnetic particles become equally small, allowing the two to mix well in the liquid and the magnetic particles to be uniformly incorporated into the non-magnetic solid phase carriers, thereby ensuring more reliable adsorption to the magnet.

To recover a non-magnetic material without lowering recycling quality in a recycling method for separating and recovering the non-magnetic material by using the non-magnetic material to which an induction heating adhesion peeling type adhesive is stuck as a recycling raw material.SOLUTION: In the recycling method, a non-magnetic material to which an induction heating adhesion peeling type adhesive containing magnetic particles adheres is used as a recycling raw material, the non-magnetic material to which the adhesive adheres is crushed to obtain mixed crushed pieces composed of crushed pieces to which the adhesive adheres and crushed pieces to which the adhesive does not adhere, the crushed pieces to which the adhesive adheres are magnetically sorted from the mixed crushed pieces, and the crushed pieces to which the adhesive does not adhere, that is, the non-magnetic material is separated and recovered.SELECTED DRAWING: None

The present application relates to cold-rolled rolling liquid processing technical field, specifically disclose a kind of cold-rolled finishing liquid recovery device, including sequentially communicating high field strength magnetic separation device, cyclone air floatation device and circulating liquid storage tank along the flow direction of finishing waste liquid;High field strength magnetic separation device is used to adsorb magnetic metal powder in waste liquid;Cyclone air floatation device includes cyclone cylinder, dissolved air pump and micro-bubble generator, for removing suspended solids and oil substances;Circulating liquid storage tank stores finishing liquid after purification, and its liquid outlet is connected to finishing machine liquid supply pipeline;The present application adopts two-stage classification treatment of "magnetic separation and cyclone air floatation", first remove magnetic particles to protect subsequent equipment, then through micro-bubble adhesion and scraping non-magnetic contaminants, effectively avoid the problem that single magnetic filter is easy to block and backwash frequently, while significantly reducing the overall replacement frequency and operating cost of finishing liquid, simple structure, stable operation, suitable for cold-rolled finishing liquid on-line recycling and recycling.

A composite magnetic material and a method for forming a composite magnetic material. The composite magnetic material includes a composite non-magnetic material (MA) and a magnetic filler including coated magnetic particles (MB) dispersed in the composite non-magnetic material (MA). The coated magnetic particles (MB) are surface coated with an insulation coating layer (MB2) that contains elements Silicon (Si), Carbon (C), and Oxygen (O).

A non-magnetic defibrillator is provided that can be operated next to or in the MRI scanner.

The invention relates to the technical field of permanent magnet materials, in particular to a double-hard-magnetic-main-phase composite mischmetal-rich nanocrystalline magnet and a preparation method thereof.The preparation method comprises the four steps that S1, two kinds of magnetic powder are prepared and mixed according to the ratio of (10-90): (10-90) after vacuum melting, rapid quenching, HDDR and argon jet milling; s2, preparing non-magnetic powder and a thin sheet; s3, the magnetic powder and the non-magnetic powder are mixed, and an isotropic magnet is obtained through SPS sintering; the MM contains La, Ce and the like, La + Ce + Pr + Nd is larger than or equal to 99.5%, T and N are selected from specific elements, and parameters conform to limits. La and Ce abundance rare earth is efficiently utilized, and the dependence of the cost and scarce rare earth is reduced; the performance and the temperature stability of the magnet are improved through a multi-main-phase structure and grain boundary regulation and control; the innovative process avoids magnetic deterioration, improves production stability, and gives consideration to both technical and economic values.

The present application provides an inductor component capable of improving the adhesion of an insulating layer to a green body and also capable of improving the inductor characteristics, and a manufacturing method for the inductor component. The inductor component includes a green body having a first magnetic layer and a second magnetic layer sequentially stacked along a first direction, a coil having an inductor wiring extending along a plane orthogonal to the first direction between the first magnetic layer and the second magnetic layer, and an insulating layer of a non-magnetic body having a top surface portion, a bottom surface portion, a first side surface portion, a second side surface portion, a top surface protruding portion, and a bottom surface protruding portion, the bottom surface protruding portion being located between the first magnetic layer and the second magnetic layer, the first magnetic layer and the second magnetic layer being in contact at a front end of the bottom surface protruding portion, and the protruding length of the bottom surface protruding portion in a direction parallel to a third direction or a fourth direction being longer than the protruding length of the top surface protruding portion in the direction parallel to the third direction or the fourth direction.