Biochemistry
The term "biochemistry" itself is derived from a combination of biology and chemistry. In 1877, Felix Hoppe-Seyler used the term ("biochemie" in German) as a synonym for physiological chemistry in the foreword to the first issue of "Zeitschrift für Physiologische Chemie" (Journal of Physiological Chemistry) where he argued for the setting up of institutes dedicated to this field of study. The German chemist Carl Neuberg however is often cited to have coined the word in 1903, while some credited it to Franz Hofmeister.
It was once generally believed that life and its materials had some essential property or substance (often referred to as the "vital principle") distinct from any found in non-living matter, and it was thought that only living beings could produce the molecules of life. Then, in 1828, Friedrich Wöhler published a paper on the synthesis of urea, proving that organic compounds can be created artificially. Since then, biochemistry has advanced, especially since the mid-20th century, with the development of new techniques such as chromatography, X-ray diffraction, dual polarisation interferometry, NMR spectroscopy, radioisotopic labeling, electron microscopy, and molecular dynamics simulations. These techniques allowed for the discovery and detailed analysis of many molecules and metabolic pathways of the cell, such as glycolysis and the Krebs cycle (citric acid cycle), and led to an understanding of biochemistry on a molecular level. Philip Randle is well-known for his discovery in diabetes research is possibly the glucose-fatty acid cycle in 1963.He confirmed that fatty acids reduce oxidation of sugar by the muscle. High fat oxidation was responsible for the insulin resistance.
Biomolecular engineering
Biochemistry is the study of chemical processes in living organisms, including, but not limited to, living matter. Biochemical processes govern all living organisms and living processes and the field of biochemistry seeks to understand and manipulate these processes.
Bioelectrical engineering involves the electrical fields generated by living cells or organisms. Examples include the electric potential developed between muscles or nerves of the body. This discipline requires knowledge in the fields of electricity and biology to understand and utilize these concepts to improve or better current bioprocesses or technology.Biomedical engineering is a sub category of bioengineering that uses many of the same principles but focuses more on the medical applications of the various engineering developments. Some applications of biomedical engineering include:Chemical engineering is the processing of raw materials into chemical products. It involves preparation of raw materials to produce reactants, the chemical reaction of these reactants under controlled conditions, the separation of products, the recycle of byproducts, and the disposal of wastes. Each step involves certain basic building blocks called “unit operations,” such as extraction, filtration, and distillation. These unit operations are found in all chemical processes. Biomolecular engineering is a subset of Chemical Engineering that applies these same principles to the processing of chemical substances made by living organisms.