Biochemical engineering combines biological and chemical engineering disciplines, and knowledge of both fields is advantageous. The ability to create products or processes from biological, living organisms is the most important feature of a biochemical engineer’s job. A typical biochemical engineer is involved in areas such as product development, safety, and energy generation.
The first branch of biochemical engineering, also known as biological engineering, studies and solves problems involving living things using physics and mathematics principles. Biological engineers investigate individual biological components and use their findings to develop new ideas and products. Disease prevention is one of the many areas where it can be used. Chemical engineering, on the other hand, applies physics and math principles to the transformation of raw materials and chemicals into new forms. Chemical engineering, for example, is crucial in the design and operation of fuel plants.
When biological and chemical engineering are combined, the goal is to create processes or machines that convert materials using living organisms. A biochemical engineer is in charge of designing and developing such systems. A bioreactor is an example of a machine that can be designed using biochemical engineering techniques. In a sewage treatment plant, bacteria can be used to chemically alter and treat sewage. A biochemical engineer may work in areas such as pharmacology, food processing, and developing products and guidelines for agricultural maintenance, in addition to sanitation.
A biochemical engineer typically collaborates with a variety of organizations. Paper, plastic, film, and paint manufacturers frequently use the services of a biochemical engineer at some point during their manufacturing processes. Farmers may require a new type of fertilizer or a novel method of product development. In processes such as antibiotic development, pharmaceutical companies value the expertise of a biochemical engineer. Biochemical processes are also an effective source of energy generation for alternative fuel and even traditional fuel ventures.
Biochemical engineer responsibilities and skill sets are constantly evolving to meet the demands of an ever-changing world due to the complex and technical nature of the work. A potential employee must feel at ease in both an office and a laboratory. A strong foundation in physics and mathematics, as well as an analytical and creative mindset, are essential. A basic biochemical engineer education, which includes an undergraduate degree in engineering and subsequent engineering certification, can provide this foundation. Because the engineer will work with various scientific personnel as well as any individuals encountered in the chosen area of specialty, people skills are also important.
Biochemical engineers are, in a sense, the ultimate applicators. They take raw, natural materials and turn them into materials that are both useful and valuable through innovation and technique. These employees are strong advocates for safety and progress. A prospective biochemical engineer might want to concentrate on the research side of his or her career, or move up to a supervisory position.