82 results about "Core Particle" patented technology

The invention discloses a preparation method of a composite slow-release carbon source, which comprises the following steps: preparing an inner core: uniformly dry-mixing lignin powder and a quick-acting carbon source, and adding a first binder to prepare inner core particles; middle layer wrapping: alternately spraying a second binder and middle layer coating powder until the middle layer is completely wrapped to obtain double-layer particles; outer layer wrapping: alternately spraying a third binder and outer layer coating powder until the outer layer is completely wrapped to obtain three layers of particles; and spraying a biodegradable polymer solution on the surfaces of the three layers of particles to form a coating film. Through the three-layer structural design of the quick start layer, the stable maintenance layer and the long-acting guarantee layer, accurate matching of carbon source release and microbial metabolism requirements is realized. The outer-layer quick-acting carbon source quickly starts microbial activity, the middle layer provides stable and continuous carbon source supply, and the inner core ensures the tail-section treatment effect. The sequential release mechanism effectively avoids burst release waste of the carbon source, so that the utilization rate of the carbon source is greatly improved.

The embodiment of the invention provides a chip verification method, system and device and a storage medium, a chip comprises a core particle group, the core particle group is formed by coupling a plurality of core particles, and the method comprises the following steps: based on a core particle verification environment, performing a verification test on a to-be-tested designed core particle; after the core particles pass the verification test, a core particle group verification environment is generated, the core particle group verification environment comprises a plurality of core particle verification sub-environments, and the core particle verification sub-environments are obtained based on instantiation of the core particle verification environment; and based on the core particle group verification environment, carrying out verification test on a to-be-tested designed core particle group. According to the chip verification method in the embodiment of the invention, complete verification of the core particle group can be realized.

The embodiment of the invention provides a reconfigurable chip system and a reconfiguration method thereof, and electronic equipment. The reconfigurable chip system comprises a substrate; the one or more chips are arranged on the substrate and are interconnected through the substrate; wherein a first type of core particles and a second type of core particles are integrated in at least part of the chips, and the first type of core particles are different from the second type of core particles; the plurality of mode controllers are respectively arranged in the first type of core particles and the second type of core particles, and are configured to dynamically start or disable the first type of core particles and / or the second type of core particles in response to a mode configuration instruction written into the mode controllers through a bus, the bus connects the first type of core particles and the second type of core particles. By adopting the technical scheme, the first type of core particles and / or the second type of core particles can be dynamically enabled or disabled, so that the chip shows different characteristics.

The invention discloses a preparation method of a core-shell structure hard alloy with high strength and high toughness, and belongs to the technical field of hard alloys and powder metallurgy. According to the preparation method, a micro heterostructure is formed after sintering through a pre-constructed'fine grain hard core-coarse grain tough shell 'powder system, and deflection and energy dissipation are promoted during crack propagation by utilizing the performance difference and interfacial effect between the core and a matrix, so that the strength and toughness of the material are synergistically improved. The method is simple in process and low in cost, the material performance can be flexibly designed by adjusting the core particle size, the core-shell components and the core-shell proportion, and the method is suitable for tools, drilling tools, wear-resistant parts and the like with strict requirements for obdurability.

A method for manufacturing a perovskite quantum dot composite material that easily forms core-shell particles through a one-stage synthesis step is provided, along with the perovskite quantum dot composite material and an ink containing the perovskite quantum dot composite material. This perovskite quantum dot composite material suppresses surface defects of the perovskite quantum dots by forming an ionic crystal layer comprising halides in the shell layer and exhibits a very high PLQY (Power Level Quality). The perovskite quantum dot composite material comprises core particles and a shell layer surrounding the core particles. The core particles are composed of metal halide perovskites, and the shell layer comprises an organic halide compound with an ionic crystal structure having the same halogen composition as the core particles. The PLQY is greater than 75%, and the change in emission wavelength is less than 5 nm over a period of 10,000 minutes at room temperature.

The invention discloses a manufacturing method of a three-dimensional system chip, and the method comprises the steps: providing a first wafer which comprises first core particles; providing a second core particle; manufacturing an interconnection patch cord, wherein the interconnection patch cord is used for interconnecting the electrodes in the same first core particle and / or the electrodes among different first core particles; a bonding layer is formed on the first wafer and the second core particle, and the bonding layer exposes a partial region of the electrode or the patch cord to serve as an I / O interconnection electrode; bonding the first wafer and the second chip particle by using a bonding layer, wherein the I / O interconnection electrodes of the first wafer and the second chip particle are opposite to each other; and depositing metal on the I / O interconnection electrodes of the first wafer and the second wafer until interconnection is formed. And three-dimensional system physical integration of a plurality of heterogeneous and heterogeneous core particles is realized so as to complete electrical interconnection among all the core particles required by a system chip.

A modified metal oxide particle sol, when applied as a coating onto a substrate, is capable of having transparency, a high particle refractive index and good coat resistivity. The modified metal oxide particle sol is composed of modified metal oxide particles (iii) in which stannic oxide particles (i) having an average primary particle size of 4 to 50 nm serve as cores and are coated with metal oxide particles (ii) of at least one metal oxide selected from the group consisting of antimony oxide, stannic oxide and silicon oxide and having an average primary particle size of 1 to 10 nm, which modified metal oxide particles (iii) are dispersed in an organic solvent. The average primary particle size of the core particles (i) and the average primary particle size of the coating particles (ii) satisfy the relationshipsize of core particles(i)≥size of coating particles(ii),the ratio (total weight of metal oxides other than stannic oxide) / (weight of stannic oxide) is from 0.005 to 1.0, and the sol includes an amine (a) having a water solubility of 0.1 g / L or more and an amine (b) having a water solubility of less than 0.1 g / L.

This invention discloses a method for preparing diamond rare-earth europium (EEUR) color core particles, belonging to the field of non-metallic element materials. The method involves coating a europium oxide suspension onto a single polished silicon wafer, followed by microwave plasma chemical vapor deposition (CPCVD) to form EEUR color core particles. This method allows for the growth of EEUR color core particles on the surface of a diamond film. The absence of obvious traces of Eu₂O₃ nanoparticles on the surface of the EEUR color core particles indicates that the diamond implantation solution within the europium oxide particles rapidly forms the EEUR color core particles during CPCVD, resulting in the diamond core ultimately covering the europium oxide particles, thus forming a core-shell structure, i.e., the diamond rare-earth europium color core particles. The obtained EEUR color core particles are mostly irregularly shaped with a diameter of approximately 8 μm.

Toner for development of electrostatic latent images has a toner particle including a toner core particle and a shell layer that coats it. The toner core particle includes, at least, a binder resin and a colorant. The toner core particle contains as the binder resin a particular polyester resin having a repeating unit derived from 1,2-propanediol. The shell layer contains a alcoholic hydroxy group containing resin having one or more types of repeating unit having an alcoholic hydroxy group. The proportion of an alcoholic hydroxy group containing monomer in the alcoholic hydroxy group containing resin is 1 mass % or more. The coverage ratio of the surface of the toner core particle with the shell layer is 75% or more.

To provide a two component developer having stable transfer characteristics and positive chargeability and having excellent drum cleaning property.SOLUTION: The two component developer includes: a positively chargeable toner including: a toner mother particle including a toner core and a shell layer formed from a resin containing an acrylic resin; and an external additive adhering to a surface of the toner mother particle; and a carrier having a surface coated with a resin coating layer containing a silicone resin. The external additive includes silicone-modified acryl resin particles having a volume-average particle size of at least 40nm and no greater than 140nm. When the toner is subjected to an ultrasonic treatment in which ultrasonic vibration at a power of 100W and a frequency of 28kHz is applied for 1 minute in an aqueous dispersion liquid containing the toner and a nonionic surface active agent, the amount of the silicone-modified acryl resin particles detached and liberated from the toner base particles is 0.35 mass% or less with respect to the adhesion amount of the silicone-modified acryl resin particles before the ultrasonic treatment.SELECTED DRAWING: Figure 1

A ferromagnetic powder composition comprising (i) soft magnetic iron-based core particles and (ii) a first coating layer that at least partially covers and is in direct contact with the surface of the core particles, the first coating layer comprising a) a general formula (K₂O). α (SiO2) β a) silicates, wherein α is the molar number of K2O, β is the molar number of SiO2, and the β / α molar ratio is in the range of 0.5 to 4.1, wherein the silicates are present in an amount of 0.02 wt% to 1.0 wt% based on the total weight of the ferromagnetic powder composition; b) optionally, particles comprising a compound of bismuth and oxygen having a Di in the range of 0.1 μm to 10 μm as measured according to ISO 13320-1. 50 c) as a dopant dissolved in silicate (a) by oxoanions or hydroxyanions. A second coating layer may be provided. Methods for producing the composition and manufacturing an object, and an object comprising the composition.

This application relates to the field of artificial core technology, and discloses a high-temperature and high-pressure resistant artificial core for steam-driven thermal recovery and its manufacturing method. The manufacturing method includes the following steps: thoroughly mixing core particles with a binder to obtain a mixture; molding the mixture into a square columnar core; forming a sealing layer on the outer surface of the columnar core, and installing high-temperature resistant end caps at the inlet and outlet ends of the columnar core to obtain a cemented core; allowing the cemented core to solidify; heating a liquid crystal polymer to complete melting; placing the cemented core into a mold, pouring the liquid crystal polymer into the mold, ensuring the liquid crystal polymer completely submerges the cemented core; applying a set pressure to the mold, maintaining the set pressure, cooling to a set temperature, and then unloading the pressure to completely solidify the liquid crystal polymer to form the artificial core; demolding the artificial core from the mold, and installing valves on the high-temperature resistant end caps. The artificial core produced by this method meets the temperature and pressure requirements of indoor physical simulation experiments for heavy oil thermal recovery.

The invention relates to a chip state management method and device, equipment, a storage medium and a program product. According to the method, a first type of state change conditions and a second type of state change conditions are set for each core particle in the chip, and under the condition that the state change of the core particle meets the first type of state change conditions, the state change of the core particle is determined according to the type and the use state of the core particle and the use state of the associated core particle of the core particle. Adjusting the power consumption state and the performance state of the core particle; and under the condition that the state change of the core particle meets the second type of state change conditions, adjusting the power consumption state and the performance state of the core particle according to the attribute information of the chip after the core particle is changed. According to the management method, the performance state management and the power consumption state management of the chip are carried out by combining the use state of each core particle in the chip and the use state of the associated core particle, that is, state adjustment is carried out by considering the factors that the states of the core particles influence each other, and the management effect of chip management can be improved.

To provide a technique for recovering a capacity in a deteriorated positive electrode active material and reducing a reaction resistance increased by deterioration without using a means of calcination SOLUTION: According to the technology disclosed herein, a method for producing a regenerated positive electrode active material is provided. The production method includes preparing a positive electrode active material and polishing the positive electrode active material. The positive electrode active material includes a core particle having a layered crystal structure and a coating portion having a rock salt crystal structure on a surface of the core particle. In this production method, at least a part of the coating portion is separated from the core particle by polishing. The ratio (IB / IA) between the peak intensity IA at the 8341eV of the nickel (Ni) - K absorption edge measured by XAFS analysis for the positive electrode active material before polishing and the peak intensity IB at the 8341eV of the nickel (Ni) - K absorption edge measured by XAFS analysis for the positive electrode active material after polishing is 0.7 or less.SELECTED DRAWING: None

This invention discloses a method and system for constructing a microscopic model of recycled concrete based on a three-dimensional five-phase spherical model, belonging to the field of numerical simulation technology for building materials. The method includes: constructing a co-simulation environment and creating a new mortar matrix; setting the core particle size of natural aggregate, the thickness of the old interface transition zone, the thickness of the old mortar, and the thickness of the new interface transition zone; generating single-particle aggregates and recursively calculating the outer diameter of each layer; generating random spatial coordinates that satisfy boundary constraints; placing aggregates based on a random sequential adsorption algorithm and Euclidean distance interference judgment criterion; parameterizing the effective aggregates to generate four concentric spherical geometries and marking them according to preset naming rules; repeating the placement until the target volume is reached; and automatically aggregating spherical geometries of the same medium type into an explicit selection set using naming rules. This invention solves the problems of single-dimensionality, missing microphases, and low modeling efficiency in existing technologies, achieving high-precision and automated construction of the five-phase structure of recycled concrete, providing an accurate numerical model for subsequent mechanical property and durability analysis.

The invention discloses an electrothermal coupling rapid simulation method for multi-core-particle packaging, and the method comprises the steps: calculating corresponding thermal resistance and thermal capacity through solving equivalent thermal parameters of each layer of structure of Chiplet packaging, and building a steady-state and transient equivalent circuit for thermal simulation based on a thermoelectric equivalent relation; compared with a traditional numerical calculation method, the calculation amount is greatly reduced, the simulation speed is increased, and the defect that a traditional thermal resistance matrix or a thermal resistance network cannot conduct transient thermal simulation is overcome. According to the method, the coupling thermal resistance between the chips is considered at the same time, and the accuracy of the model is improved under the condition that the thermal coupling effect of the chips is remarkable. Besides, the method further achieves transient coupling rapid simulation of the equivalent circuit model and the chip power consumption model by building the chip power consumption model and finally through an iteration method, and obtains transient electric heating performance of the whole time period by calculating power consumption and temperature distribution at all moments, so that the performance of the electric heating coupling system is evaluated more accurately. And the scheduling and the path of the whole system are optimized.

This disclosure relates to resin compositions for forming molded components included in semiconductor packages and semiconductor packages manufactured using the resin compositions. Example resin compositions include about 2 wt% to about 10 wt% of epoxy resin, about 2 wt% to about 10 wt% of a curing agent, about 50 wt% to about 90 wt% of filler, about 5 wt% to about 20 wt% of phase change material composite particles, and about 0 wt% to about 5 wt% of additives, wherein the phase change material composite particles include core particles having a phase change material and a shell surrounding the surface of the core particles and comprising organic or inorganic material.

The invention relates to the technical field of architectural ceramics, in particular to a bright ceramic tile with anti-skid and anti-fouling performance and a preparation method thereof.The preparation method comprises the following steps that A, ground coat is applied to the surface of a green body layer to form a ground coat layer; b, spraying the sculpture dry particles on the surface of the ground coat layer to obtain a sculpture dry particle layer; c, applying protective glaze to the surface of the carved dry particle layer to obtain a protective glaze layer; and D, drying, calcining in a kiln, and polishing to obtain the light ceramic tile with anti-skid and anti-fouling properties. Wherein the light ceramic tile with the anti-skid and anti-fouling performance is provided with holes, and the holes are formed by falling off of the inner core particles and the bridging layer of the carved dry particles. According to the bright ceramic tile with the anti-skid and anti-fouling performance and the preparation method of the bright ceramic tile, on the premise that the bright effect is guaranteed, the good anti-skid performance and anti-fouling performance are achieved, and the defects in the prior art are overcome.

This invention discloses an Al2O3@SiO2-KH560 dual-core-shell thermally conductive filler, a thermally conductive and insulating silicone rubber composite material, and their preparation methods. The core-shell thermally conductive filler comprises α-Al2O3 core particles, an amorphous SiO2 intermediate shell layer coating the surface of the core particles, and a KH560 organic outer layer grafted onto the surface of the SiO2 shell layer. The composite material uses addition-type liquid silicone rubber as the matrix and the aforementioned core-shell thermally conductive filler as the filler, with a total filler content of 50-80 wt%. The preparation method includes: coating the α-Al2O3 surface with a SiO2 shell layer using the TEOS sol-gel method and calcining to densify it; then obtaining the dual-modified core-shell filler through KH560 wet grafting; mixing the filler with vinyl silicone oil and other components, centrifuging to remove bubbles, and then curing under vacuum with stepped heating. The composite material achieves a thermal conductivity of 3.04 W / (m·K) and a volume resistivity of 3.5 × 10⁻⁶ at a 70 wt% filler content. 14 It has a strength of Ω·cm, a tensile strength of 0.53 MPa, an elongation at break of 73.9%, and combines high thermal conductivity, high insulation and good mechanical flexibility.

Provided are composite particles each obtained by compositing, on a core particle, a crystalline organic compound in the form of fine particles. The composite particles each comprise: a core particle; and crystalline organic compound particles that are present on the surface of the core particle and that contain a crystalline organic compound. The specific surface area of the composite particles is 0.0015-60 m2 / g.

The invention provides a three-dimensional core particle packaging structure and a manufacturing method, and relates to the technical field of integrated circuit manufacturing. Comprising a first substrate; the reinforcing rib structure is arranged on the first substrate and is electrically connected with the first substrate; a capacitor assembly is arranged in the reinforcing rib structure; the core particle stacking structure is arranged between the first substrate and the reinforcing rib structure, and the core particle stacking structure is electrically connected with the reinforcing rib structure and the first substrate; the core particle stack structure includes at least one core particle. According to the invention, the overall physical stability and mechanical structural strength of the package can be improved, the package size is reduced, the equivalent series inductance is remarkably reduced, the high-frequency power supply noise is effectively suppressed, the defect of capacitor design in the core particles is overcome, the effective wiring space of the substrate is greatly saved, the wiring difficulty of the substrate is reduced, and the production cost is reduced. And meanwhile, the problem that the packaging size is increased due to external arrangement of the capacitor is avoided.

The present application relates to the technical field of building ceramics, and particularly relates to a bright ceramic tile with antiskid and antifouling properties and a preparation method thereof, comprising the following steps: A. applying a base glaze to the surface of a body layer to form a base glaze layer; B. spraying engraved dry particles to the surface of the base glaze layer to obtain an engraved dry particle layer; C. applying a protective glaze to the surface of the engraved dry particle layer to obtain a protective glaze layer; D. drying and then entering a kiln for calcination, and polishing to obtain the bright ceramic tile with antiskid and antifouling properties; wherein the bright ceramic tile with antiskid and antifouling properties has holes, and the holes are formed by the inner core particles and the bridging layer of the engraved dry particles falling off. The bright ceramic tile with antiskid and antifouling properties and the preparation method thereof are beneficial to ensuring the bright effect and also having good antiskid and antifouling properties, so as to overcome the shortcomings in the prior art.

Provided is electroconductive particles with excellent properties in terms of connection resistance and connection reliability by forming an even noble metal layer on the surface of a nickel coating after surface treatment, without leaving impurities on the nickel coating. This method for producing electroconductive particles includes: an acid treatment step in which nickel-coated particles each comprising a core particle and a nickel or nickel alloy coating formed on the surface thereof are brought into contact with an aqueous solution of an organic acid; and a plating process step in which the acid-treated nickel-coated particles are plated by electroless noble-metal plating. Formic acid, acetic acid, or the like can be used as the organic acid.

To provide particles suitable for manufacturing a composite material.SOLUTION: The particle 1 is a core-shell particle having a core particle 3 and a shell layer 5 covering the core particle 3. The core particle 3 is formed of a metal particle. The shell layer 5 has an insulating layer 7 formed on the surface of the core particle 3 and an outermost layer 9 formed outside the insulating layer 7. The outermost layer 9 contains Ti (titanium).SELECTED DRAWING: Figure 1

Provided are a latent heat storage particle in which even a core raw material particle having a low Al concentration is encapsulated and which has a surface with a high specific surface area, a heat exchange material formed of the latent heat storage particle, and a method for producing the latent heat storage particle.SOLUTION: A latent-heat storage particle comprising: a core particle; and a coating portion covering at least a part of a surface of the core particle, wherein a component of the core particle is Al or an alloy containing Al, and wherein the coating portion contains an Al oxide and contains a metal element forming a sparingly soluble compound in an aqueous solution having a pH of 8 to 12.SELECTED DRAWING: Figure 1

Provided is a method for producing core / shell semiconductor nanoparticles, which is characterized by having a shell formation step in which a core particle or an intermediate particle of a core / shell semiconductor nanoparticle having one or more shells, a dispersion medium, and a shell precursor are mixed and reacted so as to form a shell on at least a part of the surface of the core particle or the intermediate particle of a core / shell semiconductor nanoparticle having one or more shells, thereby obtaining a core / shell semiconductor nanoparticle. The method for producing core / shell semiconductor nanoparticles is also characterized in that the dispersion medium contains an ester compound. The present invention is capable of providing a method for producing core / shell semiconductor nanoparticles, with which it is possible to increase the quantum efficiency of core / shell semiconductor nanoparticles.

This electrophotographic carrier is a resin-coated carrier having magnetic core particles and a coating layer covering the surfaces of the core particles with a resin. The coating layer contains at least an acrylic resin and a silicone monomer or a silicone oligomer in a state of being mixed with the acrylic resin, or a cured object obtained by curing a silicone monomer or oligomer in a state of being mixed with an acrylic resin. The content of components derived from the silicone monomer or the silicone oligomer in the resin forming the coating layer is 2-20 mass%. In this two-component developer, said electrophotographic carrier is used.

The invention provides a high-pressure liquid injection type blade depoling method which comprises the following steps that high-pressure liquid is injected into a blade to be depoled, the high-pressure liquid repeatedly impacts a ceramic core in the blade in a low-pressure section-high-pressure section periodic alternating pressure loading mode, the pressure of a low-pressure section is 20-30 MPa, the loading time of the low-pressure section is 5-10 s, and the loading time of the high-pressure section is 5-10 s; the pressure of the high-pressure section is 50-60 MPa, and the loading time of the high-pressure section is 10-20 s; and broken core particles are removed, and purging and detection are completed. According to the method, high-pressure liquid directly acts on the interior of the mold core, the crack propagation speed is high, the depoling time is shortened to 10-24 h, compared with a chemical depoling method commonly used at the present stage, the depoling efficiency is improved by several times, the production period can be remarkably shortened, and the production efficiency can be improved.

To provide an electrostatic latent image developing toner that exhibits excellent electrostatic properties, low-temperature fixability, and maintains good transferability. [Solution] The toner for electrostatic latent image development consists of toner particles comprising toner core particles and a shell layer. The shell layer is formed of resin fine particles containing a vinyl resin. The resin fine particles include multiple types of first resin fine particles and second resin fine particles. The shell layer has a sea-like region formed using multiple types of first resin fine particles and island-like protrusions scattered within the sea-like region, formed using second resin fine particles having a larger average particle diameter than the first resin fine particles. At least one of the first fine particles contains a quaternary ammonium compound, and the second resin fine particles contain a fluorine-containing vinyl resin. The average particle diameter of the second resin fine particles is 70 nm to 150 nm, and the coverage rate of the protrusions on the surface of the toner core particles is 10% to 50%.

The application belongs to the technical field of glycine magnesium production, and particularly relates to a preparation method for improving the quality of odorless glycine magnesium, which comprises the following steps: S1, adding glycine and magnesium oxide into water, stirring to form a suspension, adjusting the pH value, and performing chelation reaction until the solution is clear; the solution is subjected to purification and concentration treatment to obtain glycine magnesium core particles for standby; S2, mixing shell layer material with water and heating, stirring to dissolve, adding plasticizer and stabilizer, and stirring uniformly to form a coating liquid for standby; S3, placing the glycine magnesium core particles into a stock bin of a fluidized bed, uniformly spraying the coating liquid to the surface of the glycine magnesium core particles to form a coating layer, and obtaining core-shell particles; and S4, drying and sieving the core-shell particles to obtain odorless glycine magnesium finished products. Through the design of the core-shell structure, the synergistic effect of hydroxypropyl-beta-cyclodextrin, soybean protein isolate and sodium alginate is utilized to form a dense structure of the shell layer, so that the release of odor substances in the oral cavity is avoided.