Como elegir el mineral clasificador de color? El clasificador de color como equipo de clasificación de materiales de alta gama, ahora se ha utilizado ampliamente en industrias de minerales, alimentos agrícolas, petróleo, química, farmacéutica y otras, la importancia de su existencia no solo es ahorrar tiempo, energía, alta eficiencia, pero también puede mejorar en gran medida la utilización de los recursos para lograr mayores beneficios económicos y sociales.   ¿Cómo elegir el clasificador de color adecuado? Se decide por demanda orientada. El problema principal en cuanto a la salida del equipo, el efecto de clasificación, el rango de tamaño de partícula aplicable, el tipo de clasificación, la estabilidad del equipo, la vida útil, el precio y otros múltiples factores, se reduce en última instancia a cómo el rendimiento integral de costos del equipo. Como una empresa bien conocida profundamente arraigada en Hefei, la capital del clasificador de color, Mingde Optoelectronics ha estado profundamente comprometida en el campo de la clasificación de minerales desde 2014, con una autoinvestigación independiente del clasificador de colores y el clasificador de minerales inteligente X-light e inteligencia artificial. máquina con derechos de propiedad intelectual completamente independientes. Durante este período, de acuerdo con la acumulación continua de todo tipo de experiencia en clasificación de minerales, Mingde photoelectric invirtió constantemente en el desarrollo y producción de equipos, siempre mantuvo la innovación técnica y gradualmente lanzó una gran producción, alta precisión, alta estabilidad de modelos súper rentables. . ¿Cómo elegir un fabricante con ventajas técnicas para la clasificación de minerales? Como fabricante senior de clasificación de minerales, Mingde Optoelectronics lanzó una máquina clasificadora de inteligencia artificial con inteligencia artificial, que lleva la clasificación de minerales de la era de clasificación de color 2.0 a la era de clasificación de características multidimensionales 3.0, superando las limitaciones de la clasificación de clasificación por color. El desarrollo de la máquina clasificadora de color a la máquina clasificadora de inteligencia artificial es de 1 a N, desde la clasificación de la máquina clasificadora de color solo se puede clasificar por color, hasta la máquina clasificadora de inteligencia artificial a través de las características multidimensionales del mineral, como textura, color, forma, color, brillo y otras características de diferenciación visibles a simple vista del progreso. máquina de inteligencia artificial todos pueden ser extraídos, aprendiendo, modelando, clasificando. Por lo tanto, hay una gran mejora en la personalización de la clasificación, la diversificación de la clasificación y la eficiencia de la clasificación. Un buen producto necesita ser aprobado por el mercado. Nuestro Mingde fotoeléctrico máquina de clasificación de inteligencia artificial después de casi 3 años, en el proyecto, investigación y desarrollo, producción, aplicación después de capas de guardianes, ahora se ha utilizado ampliamente en talco, magnesita, wollastonita, silicio industrial, mineral de oro, fluorita, mineral de litio y otras empresas , para resolver todo tipo de problemas de clasificación de minerales. La máquina clasificadora de minerales como máquina de alta precisión, utilizada en algunas áreas remotas y entornos de trabajo complejos, frente a una variedad de pruebas, un sistema de servicio posventa perfecto es particularmente importante, famosa fotoeléctrica como un conocido fabricante de clasificación fotoeléctrica antigua, siempre adherirse al usuario primero, el concepto de servicio de la escolta del corazón y la acción práctica para lograr nuestro compromiso, establecer más de diez oficinas en el país, oportunamente Hemos establecido más de diez oficinas en el país para responder a las necesidades de clientes y garantizar la puntualidad y puntualidad del servicio posventa.

  ¿Cuál es el principio de funcionamiento del clasificador de color? 1. Los materiales seleccionados desde la parte superior de la tolva hacia la máquina, a través de la vibración del dispositivo vibrador, los materiales seleccionados a lo largo del canal de transmisión, hacia la cámara de clasificación del área de observación y desde el sensor y la placa de fondo entre el pasaje. 2 、 Bajo la acción de la fuente de luz, de acuerdo con la intensidad de la luz y el cambio de color, el sistema produce una señal de salida para impulsar el trabajo de la válvula solenoide para expulsar las partículas de diferentes colores a la tolva de desechos, y los buenos materiales seleccionados continúan cayendo. a la tolva del producto terminado, para lograr el propósito de selección.

Descripción generalLa tecnología de clasificación fotoeléctrica es una tecnología que utiliza las diferencias en las características de los materiales y ha demostrado un enorme potencial en el campo de la clasificación de minerales. Este artículo explorará la aplicación de la tecnología de clasificación optoelectrónica en el campo de la clasificación de minerales, así como los desafíos y estrategias de respuesta en el campo de la clasificación de minerales.Aplicación de la tecnología de clasificación fotoeléctrica en la clasificación de minerales.La tecnología de clasificación optoelectrónica incluye principalmente la clasificación por luz visible, infrarroja, ultravioleta y rayos X. Captura la información de transmisión o reflexión de la luz de las partículas de mineral a través de sensores de alta precisión y luego determina si es valiosa mediante el algoritmo inteligente preestablecido y se separa la esencia.Aventaja1. Mejorar la precisión de la clasificación: la tecnología de clasificación óptica puede mejorar significativamente la precisión de la clasificación de minerales y mejorar eficazmente los productos de mineral en bruto.2. Reducir costos: mediante el lanzamiento previo, se reducen el procesamiento y el costo de la sesión de minería posterior.3. Protección del medio ambiente: el proceso de clasificación optoelectrónico no necesita agregar reactivos químicos para reducir la contaminación ambiental.Aplicaciones1. Clasificación de minerales de fósforo: la tecnología de clasificación óptica muestra una ventaja significativa al tratar con recursos de minerales de fósforo de baja ley, que pueden eliminar rápidamente una gran cantidad de piedras de pulso inútiles y reducir la presión de los segmentos mineros posteriores.2. Clasificación de minas de oro: la tecnología de clasificación óptica puede enriquecer el mineral de oro y lograr productos mineros más económicos.Enfrentando desafíos y estrategias de respuestaCdesafío1. Adaptabilidad: cómo adaptarse a más especies y estructuras minerales más complicadas.2. Estabilidad y capacidad antiinterferencia: Mejorar la estabilidad y capacidad antiinterferencia del sistema.3. Disminuir costos: reducir aún más los costos, aumentar la rentabilidad.Pvengativo msolución1. Innovación técnica: introducir tecnologías de vanguardia como inteligencia artificial y análisis de big data para mejorar el nivel inteligente del sistema de clasificación.2. Actualización de equipos: optimice continuamente el rendimiento de los sensores fotoeléctricos y las agencias de ejecución, y mejore la eficiencia y precisión de la clasificación.3. Promoción de la industrialización: acumular experiencia en aplicaciones y promover la popularización de la tecnología a mayor escala.Equipo de clasificación de optoelectrónica de MingdePara los desafíos de adaptación del equipo de clasificación en la clasificación del mineral, Mingde Optoelectronics Technology Co., Ltd. ha introducido de manera innovadora tecnología de inteligencia artificial en el campo de la clasificación fotoeléctrica tradicional. Al tiempo que mejora la precisión de la clasificación, ha ampliado enormemente los tipos de clasificación de minerales.Para el desafío de la estabilidad de la máquina y la capacidad antiinterferente, la cámara de clasificación de la máquina de Mingde es una cámara de red Gigabit, que tiene imágenes más claras y una clasificación más precisa. La máquina es un marco de acero completo, que adopta una estructura dividida para evitar el impacto del parte de vibración en el host de clasificación. El host de clasificación adopta una estructura cerrada, a prueba de polvo e impermeable, de modo que los resultados de la clasificación sean más estables, y la máquina también es un ambiente hostil con mucho polvo, alta contaminación y alta corrosión de la industria de la maquinaria.Ante los desafíos de costos que enfrentan los equipos de división fotoeléctrica, Mingde Optoelectronics Technology Co., Ltd. ha trabajado duro y ha logrado avances técnicos independientes.El desarrollo independiente de un conjunto completo de sistemas de software resuelve la posibilidad potencial de que las tecnologías externas influyan en las restricciones de producción independiente de la empresa y reducen considerablemente los costos de producción, haciendo que las máquinas sean más asequibles.https://www.mdoresorting.com/mingde-ai-sorting-machine-separate-quartzmicafeldspar-from-pegmatiteConclusiónLas perspectivas de aplicación de la tecnología de clasificación fotoeléctrica en el campo de la clasificación de minerales pueden mejorar efectivamente el sabor del mineral, reducir los costos y tener un buen desempeño de protección ambiental. Ante los desafíos, la industrialización debe fortalecerse mediante la innovación tecnológica y la actualización de equipos para lograr su aplicación generalizada en el campo de la clasificación de minerales.

We have discussed eight ore sorting methods on the market before, and I believe everyone has some understanding of ore sorting. Today, let's change the topic and discuss quartz ore. With the development of AI technology in recent years, the chip industry has become more and more prosperous, and the demand for silicon has also increased. Although the consumption of quartz has declined in the second quarter of this year, the overall situation is still good. Quartz ore is a widely distributed silicate mineral, the main component of which is silicon dioxide (SiO2). Different types of quartz ores differ in their genesis, physical and chemical properties, and industrial applications. There are roughly 7 common quartz deposits in nature. Today we will introduce them all at once, and also briefly talk about the two most popular industrial applications of quartz at this stage. 1. Natural Crystal There are large transparent quartz crystals in nature, which are mainly used for carving crafts. They are less in resources and expensive. This kind of quartz ore is mainly used for carving crafts, such as jewelry and decorations. High-quality natural crystals are also used to make optical crystal materials and piezoelectric crystal materials. 2. Granite Quartz Granite quartz, also known as pegmatite quartz, is a very popular quartz ore in the past two years. It is formed by magma and is the main raw material for producing high-purity quartz. It is used in electronic information, new materials and new energy fields, especially in the semiconductor industry, for the manufacture of quartz crucibles and other key semiconductor manufacturing equipment. 3. Vein Quartz Formed under the action of magma hydrothermal fluids, it has a single mineral composition, almost all of which is quartz, and is suitable for the production of high-purity silicon micropowders. These silicon micropowders have important applications in strategic emerging industries such as electronic information, new materials and new energy. The high purity and low iron content of vein quartz make it one of the ideal mineral raw materials for processing high-purity quartz. 4. Quartz Sandstone It is formed by the deposition and consolidation of siliceous debris and is widely used in the production of daily glass sand, glass fiber, metallic silicon, refractory materials, white carbon black, silicone, etc. Its stable geological occurrence and suitable particle size make it an important raw material in these fields. 5. Quartzite Dense and hard rock formed by regional metamorphism or thermal contact metamorphism, mainly used to make high-strength, high-hardness and wear-resistant building materials, such as artificial stone, artificial granite, artificial jade, etc. Its dense and hard characteristics make it outstanding in decorative effects and durability. 6. Powdered Quartz Natural powdered quartz with extremely fine particles and high silica content, mainly formed by weathering and disintegration of siliceous parent rock, is often used to make fine ceramics, refractory materials, etc. 7. Natural Quartz Sand Sand-like quartz mineral raw materials formed by weathering are mainly used for casting sand, 3D printing sand, etc. Its high purity and refractory properties make it indispensable in the casting industry. The above seven types of quartz deposits can be distinguished by a series of physical and chemical characteristics, including color, transparency, crystal morphology, gloss, hardness, specific gravity and specific optical properties. Here are some commonly used identification methods: 1. Color and Transparency: Different types of quartz ores may show different colors and transparency. For example, crystal is usually transparent, while agate is composed of layered quartz with different color stripes. 2. Crystal Morphology: The crystal morphology of quartz can help identify its type. For example, α-quartz and β-quartz are stable at different temperatures and have different crystal structures. In addition, quartz can also form a variety of homogeneous variants such as tridymite and cristobalite, which have unique crystal morphologies. 3. Luster and Hardness: Quartz usually has a glassy luster and a high hardness, with a Mohs hardness of 7. 4. Specific Gravity: Different types of quartz ores have different specific gravity due to their different impurity content and crystallization state. 5. Optical Properties: Some quartz ores may show birefringence, that is, light splits into two beams when passing through the mineral. This phenomenon can be detected by polarizing microscope observation. 6. Chemical Analysis: By chemically analyzing a quartz sample, its precise chemical composition can be determined and its type can be further confirmed. 7. X-ray Diffraction Analysis: XRD can be used to determine the crystal structure of quartz, thereby helping to distinguish different quartz variants. 8. Infrared Spectrum Analysis: Different types of quartz may show different absorption peaks on the infrared spectrum, which can be used as a basis for identification. For example, if we encounter quartzite and vein quartz in the field, we can base our identification on their structural characteristics and occurrence. The bedding and block structure of quartzite and the vein-like occurrence of vein quartz are important identification points. In addition, although the color of quartzite is not as bright as vein quartz, its bedding structure helps to identify it. If conditions permit, a magnifying glass can be used to observe the arrangement of quartz particles. The quartz particles in quartzite are usually smaller and more closely arranged. Different types of quartz ores are used to meet the needs of different industrial fields due to their specific physical and chemical properties. At present, the most common industrial fields of quartz ores are mainly electronic information industry and construction industry. Quartz ores are mainly used as raw materials for the following products in the electronic information industry: 1. Semiconductor Wafer Manufacturing: Quartz products play a key role in semiconductor wafer manufacturing, including quartz glass products used in key processes such as diffusion, oxidation, deposition, photolithography, etching and cleaning. These products have the characteristics of high purity, pollution-free, and high temperature resistance, ensuring the quality and performance of semiconductor wafers. 2. Single Crystal Silicon Growth: When producing single crystal silicon, quartz crucibles and quartz devices are indispensable because they can withstand high temperature environments without reacting with silicon. 3. Photolithography and Etching Processes: Quartz materials are used to make tools and containers in photolithography and etching processes, such as quartz sheets, quartz rings, and quartz boats. These tools need to have extremely high purity and chemical corrosion resistance. 4. Optical Fiber Manufacturing: Quartz fiber plays an important role in optical fiber communication. High-purity quartz is a key material for manufacturing quartz optical fiber because it determines the light transmission spectrum of the optical fiber. 5. Electronic Packaging: Quartz materials are also used for packaging electronic components to provide electrical insulation and thermal stability. Because of the physical and chemical properties of quartz stone, such as wear resistance, corrosion resistance, high temperature resistance, and easy cleaning, quartz stone is also widely used in the construction industry, as follows: 6. Interior Decoration: Quartz stone can be used as a material for floors and walls, providing beautiful and durable decorative effects. 7. Kitchen Countertops: Quartz is often used as a kitchen countertop material because of its wear-resistant, corrosion-resistant and easy-to-clean properties. 8. Bathroom Walls: Quartz's waterproof and moisture-proof properties make it suitable for bathroom wall paving. 9. Floor Paving: Quartz floor tiles are wear-resistant and corrosion-resistant, and are suitable for floor paving. 10. Commercial Buildings: Quartz is also widely used for interior and exterior decoration in commercial buildings such as shopping malls, hotels, and office buildings. 11. Public Facilities: Quartz is also used as a decorative material in public facilities such as schools, hospitals, and libraries. 12. Building exterior walls: Quartz, as an exterior wall decoration material, can resist external wear and corrosion and maintain long-term beauty. Different industrial applications of quartz have different requirements for the purity and quality of quartz ore, which requires us to sort quartz ore and separate useless minerals and harmful impurities. In addition, quartz ore sorting can also help reduce production costs, improve the comprehensive utilization rate of resources, reduce environmental pollution, and promote the sustainable development of the mining industry. When it comes to quartz sorting, we have to mention the color sorter and AI intelligent sorter launched by Mingde Optoelectronics Technology Co., Ltd. If it is used as a raw material for plates, customers generally have requirements for the color and whiteness of quartz ore, and need to remove iron-containing impurities and some other colors of gangue. Mingde color sorter can accurately separate the ore according to the color of the ore and improve the whiteness of quartz. The ore treated by the color sorter can even be directly ground to make plate materials. If it is used to make high-purity quartz sand, the customer's purity requirements for quartz ore are much higher than that of plate raw materials. At this time, we need to use our AI intelligent machine for processing. It can accurately analyze the sorted ore according to the surface characteristics of the extracted good ore, and accurately separate impurities, associated ores, and good ores. Well, today's introduction to different quartz ores is here. Mingde Optoelectronics Sorting Technology Co., Ltd. is a high-tech enterprise specializing in the research and development, design, manufacturing, sales and service of intelligent sorting, intelligent sorting robots and mining equipment for mining. We have been specializing in the production of sorting equipment for 10 years. If you are interested, please feel free to consult and we will see you another day.

Calcium carbonate (CaCO3 for short) is an inorganic compound, commonly in the form of white solid powder or granules, and is one of the most abundant substances on earth. It is widely distributed in nature and is the main component of rocks, corals, pearls and the shells of many organisms. Calcium carbonate is chemically insoluble in water, but can release carbon dioxide gas in an acidic environment. Calcium carbonate can be divided into several types according to different production methods, particle size, morphology and uses. The focus of this discussion is to understand the difference between heavy calcium carbonate and light calcium carbonate, both of which are widely used in industrial applications. Heavy calcium carbonate Heavy calcium carbonate (GCC for short) is made by physical methods, usually mechanical crushing of natural minerals such as calcite, limestone, chalk, and shells. It is characterized by irregular particle shape, wide particle size distribution, and an average particle size of 5-10μm. Heavy calcium carbonate has a large bulk density, generally between 0.8-1.3g/cm³, and a low oil absorption value, generally 40-60mL/100g. Light calcium carbonate Light calcium carbonate (PCC for short) is produced by chemical precipitation. Its particles are regular in shape and can be regarded as monodisperse powders. The particle size distribution is narrow and the average particle size is generally 1-3μm. The bulk density of light calcium carbonate is small, generally between 0.5-0.7g/cm³, and the oil absorption value is high, generally 60-90mL/100g. Active calcium carbonate Active calcium carbonate is obtained by surface modification on the basis of ordinary calcium carbonate. It is hydrophobic and suitable for occasions with specific needs. Difference Production method: Heavy calcium carbonate is mainly produced by physical crushing, while light calcium carbonate is produced by chemical precipitation. Particle size and shape: The particle size and shape of heavy calcium carbonate are irregular, while the particle size and shape of light calcium carbonate are regular. Bulk density: The bulk density of heavy calcium carbonate is greater than that of light calcium carbonate. Oil absorption value: The oil absorption value of heavy calcium carbonate is lower, while the oil absorption value of light calcium carbonate is higher. Whiteness: The whiteness of light calcium carbonate is generally higher than that of heavy calcium carbonate. Surface modification: Activated calcium carbonate has been surface modified and is hydrophobic. Industrial application Calcium carbonate is widely used in industry. It can be summarized into the following major areas: 1. Rubber industry In the rubber industry, calcium carbonate is used as a filler and reinforcing agent in large quantities. It can effectively improve the hardness, wear resistance, tensile strength, tear resistance and aging resistance of rubber. In addition, calcium carbonate also helps to reduce production costs and increase the output of rubber products. 2. Plastic industry In the plastic industry, calcium carbonate also plays an important role. It can improve the hardness, wear resistance, heat resistance and weather resistance of plastics, while also reducing production costs and improving production efficiency. 3. Construction industry In the construction industry, calcium carbonate, as a raw material for cement, can significantly improve the compressive strength, flexural strength and durability of cement. It can also improve the construction performance of cement and improve the seismic performance of buildings. 4. Agricultural field In the agricultural field, calcium carbonate is used as a fertilizer and feed additive, which can improve the disease resistance of crops, promote root growth and soil acid-base balance, and also improve the yield and quality of crops. 5. Medical field In the medical field, calcium carbonate is used as a calcium supplement and antacid to treat diseases such as osteoporosis and rickets. It can also be used as a pharmaceutical excipient for the manufacture of tablets, capsules and injections. 6. Environmental protection field In the environmental protection field, calcium carbonate is used as an adsorbent and precipitant to remove harmful substances from water, reduce the hardness of water bodies, and improve water quality. It can also be used in waste gas treatment and soil remediation. 7. Cosmetic industry In the cosmetics industry, calcium carbonate is used as an additive for beauty products, which can improve skin texture, increase skin elasticity, and make the skin smoother and more delicate. 8. Other fields In addition to the above application fields, calcium carbonate is also widely used in ceramics, glass, pigments and other industries. It can improve the hardness, wear resistance, corrosion resistance and transparency of materials and other performance indicators. Processing Processing of light calcium carbonate Light calcium carbonate is produced by chemical reaction precipitation. Its production process mainly includes: Calcination stage: calcine the limestone raw material to generate calcium oxide and carbon dioxide. Digestion stage: put the calcined calcium oxide into a continuous digester and add water to digest it to obtain calcium hydroxide emulsion. Carbonization stage: react the calcium hydroxide emulsion with carbon dioxide to generate calcium carbonate precipitation. Dehydration and drying stage: dehydrate and dry the calcium carbonate precipitation to obtain dry calcium carbonate powder. Crushing and screening stage: crush and grade the dried calcium carbonate through crushing and screening equipment to obtain the product of the required fineness. Packaging stage: package the graded calcium carbonate powder to obtain the final product. Processing of heavy calcium carbonate The production process of heavy calcium carbonate generally includes the following steps: Crushing: use a crusher to coarsely crush raw materials such as calcite for subsequent fine grinding. Sorting: generally use hand selection, magnetic separation equipment or photoelectric separation equipment to remove impurities from the ore. CCD Sensor Based Ore Color Separator The color sorter and artificial intelligence sorting launched by Mingde Optoelectronics Technology Co., Ltd. have excellent performance in the sorting of heavy calcium carbonate. They can accurately compare the sorted materials according to the surface characteristics of the ore to achieve accurate sorting. AI Sorting Machine The heavy-duty sorting machine launched by the company can sort large-particle ore, which not only avoids over-crushing of the ore, but also increases the output of ore sorting. Heavy Duty AI Sorting Machine Fine grinding: Fine grinding is carried out by Raymond mill, pendulum mill, roller mill and other equipment to obtain fine limestone powder. Classification: The powder is graded by the classifier, and the powder that meets the particle size requirements is packaged and stored as a product, and the powder that does not meet the requirements is returned to the mill for re-grinding. Packaging and storage: The powder that meets the particle size requirements is packaged and stored to complete the entire production process. As a multifunctional and widely used material, calcium carbonate not only plays an important role in the traditional industrial field, but also shows new possibilities in emerging fields. With the development of science and technology, the application prospects of calcium carbonate will be broader.