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Department of Applied Chemistry

Explore the world of chemical elements and learn the process of material development.

Gain the knowledge and practical skills in chemistry that drive the advancement of science and technology, while addressing the needs of society.

Acquire the foundational and applied skills necessary to become a chemical engineer who can contribute to the development of industry and society.
Through experiments, you will gain an understanding of the properties and reactivity of substances, while developing your experimental skills.
Additionally, you will develop creative thinking and innovation in chemistry, preparing you to excel in a wide range of fields, such as food, cosmetics, and electronics.

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Department Features

Develop the chemistry experts who can adapt to any future technological advancements.

There are 118 known elements on Earth, and the combinations of these elements are infinite. Applied chemistry involves designing these combinations to create new functional materials. It is a valuable field, not only for our daily lives but also for industry. The Department of Applied Chemistry aims to improve manufacturing processes and products in areas such as food, healthcare, aerospace, automobiles, and electronic devices. With a focus on making contributions to society, the department is also dedicated to developing recyclable materials to reduce our environmental impact, as well as biomaterials for medical treatments. In this field alone, new materials, such as carbon nanotubes and bioplastics, are constantly being developed. Beginning in their first year, students take courses that include lab work to acquire the practical skills necessary to create materials on their own.

  • Diploma Policy
    The Department of Applied Chemistry awards a Bachelor of Engineering degree to students who, after completing the required coursework and earning the necessary credits within the prescribed period, have developed the following qualities and abilities.
     
    (1) Possess not only knowledge and skills in their specialized field but also a broad education that includes the humanities and social sciences, and be able to apply this knowledge comprehensively.
    (2) Acquire foundational knowledge in natural sciences and experimental techniques, and be able to apply them effectively.
    (3) Gain core specialized knowledge and experimental skills in chemistry, and develop the ability to think critically, make sound judgments, and express ideas to solve issues related to materials, life, the environment, and energy.
    (4) Have a sense of responsibility to contribute to society as chemical engineers, act with a strong commitment to ethics and safety, and collaborate proactively with diverse students.
    (5) Approach challenges in applied chemistry with a planned and enthusiastic mindset, and be able to logically summarize results and present or discuss them effectively.
  • Curriculum Policy
    The Department of Applied Chemistry structures its curriculum based on the following principles to develop professionals with the competencies outlined in the diploma policy.
     
    (1) The curriculum includes foundational general education subjects such as communication skills, information literacy, human development (first-year education, career design), and international understanding; ""common general education subjects"" like understanding humanity, society, and nature, and problem-solving seminars; and special general education subjects such as active learning and internships. Together, these subjects ensure that students can apply a broad range of general knowledge.
    (2) The specialized foundational subjects include lectures on chemistry, physics, biology, and mathematics, as well as practical experiments in chemistry and physics. These subjects ensure that students acquire the essential basic knowledge and experimental skills required for the field of applied chemistry.
    (3) The core specialized subjects cover organic chemistry, inorganic chemistry, physical chemistry, and analytical chemistry, which students will study thoroughly in the first and second years. Additionally, starting in the third year, students will take ""specialized elective subjects related to sustainable development, chemical materials, and technologies, applying their chemical knowledge and skills. From the first half of the second year to the first half of the third year, students will engage in Applied Chemistry Laboratory 1, 2, and 3, where they will develop their scientific problem-solving skills, including critical thinking, judgment, and expression.
    (4) In Applied Chemistry Laboratory 1 and 2 during the second year, students will also learn about safety. In the first half of the third year, Engineering Ethics will be introduced to help students develop an awareness of the ethical and social responsibilities of researchers and engineers. Through experiments and exercises, students will also develop a cooperative learning attitude, working with diverse students.
    (5) In the Seminar during the second semester of the third year and the Graduation Thesis in the fourth year, students will develop their abilities in research planning, logical and creative thinking for problem-solving, proactive behavior, judgment, report writing, and presentation skills, preparing them for continuous learning and professional growth.
  • Admissions Policy
    The Department of Applied Chemistry believes that chemistry plays a crucial role in addressing various challenges related to materials, life, the environment, and energy, all of which are pressing global issues. To achieve this, the department ensures that students acquire a broad foundation of natural science knowledge and experimental skills while also integrating a wide range of general education, including humanities and social sciences. Students will develop the ability to apply this knowledge comprehensively and then build on this foundation to acquire core specialized knowledge and experimental techniques in chemistry, taking a focused and proactive approach to addressing challenges in the field of applied chemistry. Furthermore, by logically summarizing results and presenting or discussing them, students will develop the critical thinking, judgment, and communication skills necessary to solve next-generation challenges. At the same time, students will develop a sense of responsibility to contribute to society as chemical engineers, upholding high ethical standards, safety awareness, and the ability to collaborate effectively with diverse students.
     
    〈Ideal Student Profile〉
     
    1. Students with a strong academic mindset and a desire to acquire a broad foundation of knowledge and practical techniques in chemistry.
    2. Students who wish to gain advanced and creative ""chemical knowledge"" through experiments, practical training, seminars, and graduation research.
    3. Students aspiring to become next-generation chemical engineers or researchers who can adapt to the rapidly changing needs of a high-tech society.
     

Curriculum Highlights

  1. 1st year

    Learn the foundational subjects and experience the power of chemistry through hands-on experiments

    Students will solidify their understanding of physics and mathematics, which form the foundation of applied chemistry, preparing them for more specialized studies in the second year and beyond. Additionally, through experiments such as preparing chemicals and creating dyes, students will experience the practical applications of chemistry while enjoying hands-on learning.

  2. 2nd year

    Through repeated experiments, students will learn the reaction and synthesis patterns of substances

    By studying specialized fields in applied chemistry, students will participate in weekly experiments. For example, in dyeing experiments, they will test different ingredients and fabrics to observe how they absorb the dye, gaining a deeper understanding of various substance synthesis and reaction patterns.

  3. 3rd year

    Study the theories and manufacturing methods of advanced materials used in society.

    Students will explore various materials used in real-world applications, such as polymers like plastics and biomaterials like artificial joints. Through experiments, they will also learn the methods used to produce these materials. In the later semesters, students will choose a research lab and delve into areas of interest.

  4. 4th year

    Engage in graduation research to develop practical skills as an engineer

    Students will research new materials and manufacturing processes, continuously refining their work by planning experiments, conducting them, analyzing the results, and making improvements. Through this process, they will enhance their precision and develop the ability to effectively communicate their findings, including through presentations.

Qualifications

  • Junior High School Teacher's License (Grade 1) [Science]
  • High School Teacher's License (Grade 1) [Science]
  • Poison and Hazardous Substances Handling Supervisor
  • Hazardous Materials Handling Specialist (Category A) ※

※ Indicates eligibility requirements for examination

Student Voice

Miona Saito, 4th Year Saitama Prefecture / Graduate of Kasukabe Girls' High School

I am conducting research in quantum chemistry to uncover the process of molecular formation.

Since I was a child, I have been fascinated by space. Researching space typically requires a strong foundation in mathematics and physics, but my strength has always been in chemistry. For me, the Department of Applied Chemistry, which offers research opportunities focused on the molecules and chemical reactions of space, was the perfect fit. Currently, I am using quantum chemistry calculations to study the mechanisms behind the formation of molecules found in interstellar space. My goal is to become an engineer with expertise in quantum chemistry.