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Metallurgical engineering. What?
Metallurgical engineering is an engineering technology field that studies the extraction of metals and their compounds from ores and other resources and makes them into materials with good processing and using properties. Its master's degree in engineering authorizes the unit to train senior engineering and technical personnel engaged in metallurgical technology and its theory, smelting process and control, smelting process and equipment design, production technology improvement, performance improvement and testing of smelting finished products, and metallurgical enterprise management.

I. On-site introduction

The field of metallurgical engineering is an engineering technology field that studies the extraction of metals or compounds from ores and other resources and makes them into materials with good performance and economic value.

Metallurgy is the foundation of national economic construction and the symbol of national strength and industrial development level. It provides materials and products for machinery, energy, chemical industry, transportation, construction, aerospace, national defense and military industries. The development of modern industry, agriculture, national defense and science and technology constantly puts forward new requirements for metallurgical industry, which promotes the development of metallurgical discipline and engineering technology. On the other hand, the development of metallurgical engineering constantly provides a new material basis for the progress of human civilization.

The development trend of metallurgical engineering technology is to enrich, update and deepen the new achievements of related disciplines and engineering technology, deepen the research on metallurgical thermodynamics, metal, matte, slag, molten salt structure and physical properties, establish intelligent thermodynamics and dynamics database, strengthen the research on metallurgical kinetics and metallurgical reaction engineering, and gradually realize the computer optimization design and automatic control of the whole metallurgical process. Metallurgical production technology will realize the flexibility, high speed and continuity of production, make full use of resources and energy and protect the ecological environment best. With the appearance of new metallurgical technology, new equipment and new technology, metallurgical products will develop in the direction of ultra-pure and ultra-high performance, and play an increasingly important role in supporting the development of economy, national defense and high technology.

Metallurgical engineering is closely related to many disciplines and promotes their development. Metallurgical engineering includes: iron and steel metallurgy and nonferrous metal metallurgy. Metallurgical physical chemistry is the applied theoretical basis of metallurgical engineering. This engineering field is closely related to materials engineering, environmental engineering, mining engineering, control engineering, computer technology, physics, chemistry, engineering thermophysics and other basic disciplines, which promote each other and develop together.

Second, the training objectives

Cultivate high-level talents in metallurgical engineering fields such as scientific research, development and application, engineering design and implementation, technical research and technical transformation, popularization and application of new technologies, engineering planning and metallurgical enterprise management.

Master of Engineering students majoring in metallurgical engineering should have a solid basic theory of modern metallurgical technology and systematic professional geography knowledge, and have a comprehensive understanding of the present situation and development trend of metallurgical engineering technology at home and abroad. Can skillfully use advanced science and technology and experimental methods, and have the ability to engage in engineering technology research, transformation, development and application (including engineering design and engineering management).

Third, the scope of the field.

The scope of metallurgical engineering can be divided into two categories: iron and steel metallurgy and nonferrous metallurgy. From the research direction and technical nature, it can be subdivided into:

Physical and chemical theory and application of (1) metallurgical process and material synthesis.

(2) Comprehensive utilization of mineral resources and environmental protection during smelting.

(3) Design and construction of technology, equipment and production system in iron and steel smelting.

(4) Solidification processing technology.

(5) Simulation of metallurgical process.

(6) Pure steel manufacturing technology.

(7) Analysis and comprehensive integration of steel manufacturing process.

(8) The principle, technology and application of electrochemical metallurgy in the process of nonferrous metallurgy, and the application of solid ions and related theoretical metallurgical engineering in metallurgy and materials.

(9) Hydrometallurgy and powder engineering in the process of nonferrous metallurgy.

(10) Development and application of non-ferrous metal functional materials.

Fourth, the curriculum.

Basic courses: scientific socialist theory, dialectics of nature, foreign languages, calculation methods or mathematical statistics or mathematical equations or fuzzy mathematics and its application, computer technology application foundation, etc.

Technical basis: metallurgical physical chemistry, metallurgical transmission principle and reaction engineering, modern physical chemistry research methods, introduction to material science and engineering, enterprise management or engineering economy, etc.

Specialized courses: iron and steel metallurgy, new technology of nonferrous metallurgy, mathematical simulation and simulation of metallurgical process, comprehensive utilization of metallurgical resources and environmental protection, modern metallurgy and material testing technology, physical metallurgy theory of plastic processing, solidification principle and continuous casting process, metallurgical quality control, foam metallurgical melt, structure and performance of refractory materials, rolling process and equipment, physical chemistry of hydrometallurgy, principles and methods of nonferrous metallurgy, nonferrous metal materials and processing, etc.

The above courses can be divided into degree courses and non-degree courses. Other courses can also be determined by training units and cooperative enterprises according to actual needs, and the total credits of the course shall not be less than 28 credits.

Verb (abbreviation of verb) paper

Combined with the actual projects of metallurgical enterprises, the research work can be the research and development of new smelting technologies, new processes and new equipment, the technological innovation of original metallurgical processes and equipment systems, the detection technology and quality control of metallurgical processes, the research of metallurgical engineering equipment condition monitoring and fault diagnosis system, and the innovation of management mode of large metallurgical enterprises. Write a paper according to the research results: for the results of new product design and development technology, the paper should have the comparison and evaluation of design schemes, design calculation and complete drawings; For the achievements of major technological transformation and innovation, there should be an evaluation of the original equipment and technology, an opinion on the transformation and innovation plan and an analysis of the technical and economic effects of the achievements; For product quality control and test results, there must be a test plan, complete experimental data, data processing and analysis methods and result analysis; For the production equipment management achievements, we must give a new management theory system, analyze the effect of enterprise output and quality, and give an innovative management information system.

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Domestic professional ranking

1. University of Science and Technology Beijing

2. Central South University

3. Northeastern University

4. Kunming University of Science and Technology

5. Shanghai University

6. Chongqing University

7. Wuhan University of Science and Technology

8. Beijing Institute of Technology

9. Inner Mongolia University of Science and Technology

/kloc-0 0. Sichuan University

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Historical position

Speaking of metallurgical engineering, it can be traced back to the bronze age of Shang and Zhou Dynasties in China. At that time, rich copper smelting technology became the source of China metallurgical industry, and quickly pushed the whole bronze technology to a higher stage, establishing the most brilliant "bronze civilization" in the world.

After that, China took the lead in making a breakthrough in metallurgical technology in the world: people gradually mastered the high-temperature technology and advanced metallurgical treatment technology needed for metal smelting in the long smelting process. Such as softening treatment technology, steel explosion technology, steel-making technology, steel casting technology and so on. In the15th century, in the middle of the Ming dynasty, China began to produce zinc in large quantities. Tiangong Hardware in Song Dynasty recorded the method of smelting "Japanese lead" (that is, zinc) by sealed heating. The Ming Dynasty's "Yongle Bao Tong" coins also had a high zinc content. Zinc smelting didn't begin in Europe until the 18th century. In addition, Song's Heavenly Creations recorded many achievements of China's ancient metallurgical technology, such as the continuous production process of smelting pig iron and wrought iron, and the heat treatment process of steel such as annealing, normalizing and quenching.

Since the founding of New China, the state has always attached great importance to the development of metallurgical industry. China's steel output continuously ranks in the forefront of the world, showing the country's attention and good momentum of rapid and stable development. It is true that the progress of modern science and technology has given birth to the birth and application of some high-tech new materials. However, the advantages and characteristics of metallurgical materials will still be incomparable and irreplaceable by other materials for a long time to come.

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Occupational characteristics

professional field

Metallurgical engineering is an applied discipline to study the extraction and processing of steel or non-ferrous metal materials from ores, and to cultivate senior professionals in metallurgical engineering fields such as scientific research and development, engineering design and implementation, technical research and technical transformation, popularization and application of new technologies, engineering planning, metallurgical enterprise management, etc.

The combination of high technology and discipline development is a major feature of this major. Mainly reflected in the following two aspects: first, English course is to meet the requirements of related industries for high-quality metallurgical materials to the greatest extent through the optimization of metallurgical technology and the development of new technologies; The second is to minimize the consumption of resources and energy in metallurgical production and reduce environmental pollution. This is also the frontier main attack direction of this major. Considering the low level of clean production in China metallurgical industry and the unique characteristics of diversified composite ore resources, this major should not only devote itself to the comprehensive technology of "four modernizations" (that is, reduction, recycling, recycling and harmlessness) of waste in the process, but also evaluate and guide the smelting technology of composite ore from the environmental and economic significance, and develop the comprehensive utilization technology of composite ore under this principle, and finally realize the ecological production of high-quality metallurgical materials in China.

research field

According to the above characteristics, metallurgical engineering has three major research directions. 1. Physical and chemical direction of metallurgy: The study contents include new theories and methods of metallurgy, metallurgy and physical chemistry of materials, physical chemistry of material preparation, metallurgy and energy electrochemistry. 2. Metallurgical engineering direction: The study contents include the research of new metallurgical processes, technologies and equipment for steel and nonferrous metals, the basic theory of modern metallurgy and soft science of metallurgical engineering, the comprehensive utilization of metallurgical resources, the manufacturing of high-quality and high value-added metallurgical products and the preparation technology of special materials. 3. Direction of energy and environmental engineering: The study contents include environmental control of metallurgical engineering, clean combustion of fuel and energy limit utilization, process energy saving and surplus energy recovery, industrial solid waste, urban garbage disposal, air pollution control, development and test of technology and new products, etc. These broad branches constitute an important part of metallurgical engineering, which greatly promotes the development of metallurgical materials industry and the industrial construction of the country.

At the same time, metallurgical engineering technology is constantly absorbing the new achievements of related disciplines and engineering technology to enrich, update and deepen, and the research on metallurgical thermodynamics, metals, matte, slag and molten salt structure is deeper. With the appearance of new metallurgical technology, new equipment and new technology, metallurgical products will develop towards ultra-pure and ultra-high performance.

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Career prospects

Only more than 20 colleges and universities in China offer this major, and the number of professionals trained each year is very limited, and the market demand is particularly large. Relevant statistics show that the market demand of metallurgical engineering professionals is 10 times of the actual number of graduates. Such a large market demand also provides students with broad employment prospects.

Because students majoring in metallurgical engineering have a broad foundation, solid theory and comprehensive skills, they also have knowledge and skills in metallurgy and metal material processing. In addition, the metallurgical industry belongs to one of the basic and pillar industries of the national economy, and graduates have a wide range of employment choices and strong adaptability. Graduates can go to the production, scientific research and management departments of metallurgy, chemical industry, materials, environmental protection and related industries to engage in production technology management, engineering design, technology development, research and development of new structural materials and functional materials, and also engage in professional teaching in junior colleges and higher vocational colleges. "I feel that college students majoring in steel metallurgy are too popular now." At a graduate double election meeting held by Northeastern University in 2005, a graduate majoring in iron and steel metallurgy described the good employment opportunities of graduates like this. Indeed, the vigorous construction of the motherland needs a large number of metallurgical engineering professionals, and many iron and steel metallurgical and non-ferrous metal metallurgical enterprises are good places for students to show their talents.

With the rapid development of modern science and technology, this major also puts forward higher requirements for the comprehensive quality of employees, such as the wide application of computer technology in metallurgical engineering, which enables students to gradually contact and master rich and practical computer knowledge in universities. In addition, the development of this field at home and the exchange of foreign advanced technology are becoming more and more frequent, which also puts forward quite high requirements for students' foreign language use.