Manufacturers are focused on Developing Cost-effective Means of Increasing Productivity of Commodity Chemicals

 

Commodity Chemicals

Both specialty and commodity chemicals can be approached with biotechnology but must make use of the special characteristics of living organisms for successful implementation. For specialty chemicals, key targets must add economic value to the raw starting compound (e.g., cellulose or glucose) and are capable of adding biological value to the end product (e.g., insulin). On the other hand, the use of inorganic chemicals requires the use of templates to drive the development of desired products through a process that is analogous to genetic engineering.

Several advantages exist with respect to commodity chemicals over inorganic chemical compounds that make them an attractive proposition for the designer and developer. First, large scale investors have been unable to duplicate the the success that private investors have had in creating large scale venture capital firms. Biotech companies focusing on developing new materials for a wide range of applications have been able to attract significant venture capital because they have the ability to demonstrate a return on investment via sales of both specialty and core commodities and through the utilization of plant-based resources. Additionally, many of these biotechnological ventures focus on creating materials that can replace, perform similar functions, and/or add value to those existing materials.

Inorganic commodity chemicals have limited application in the production of pharmaceuticals and similar drugs. Although there are some exceptions, this is not a general trait. Many large scale industrial manufacturers have been successful because they have been able to identify specific commodity chemicals that can replace or perform similar functions to those that are missing from their existing inventory. In addition, there are a number of companies in the chemical industry that have been able to leverage their knowledge of biological processes and use this knowledge to develop cost-effective means of increasing the productivity of existing facilities and to reduce the cost of support infrastructure and personnel required for handling specialty chemicals.

Organic commodity chemicals represent a very diverse market. They include such common household products as pesticides, antifreeze, paints, lubricants, fabrics, bleaches, solvents, laundry detergents, fabric softeners, and more. There are also many specialized petrochemicals that fall into this organic category. Petrochemicals refer to the separation of natural gas and crude oil. A petrochemical's development process begins with the separation of these two liquids using a number of mechanical and chemical processes. These materials can be marketed under the names of gasoline, liquid petroleum gas (LPG), diesel, gasoline propane, natural gas, renewable natural gas, and other proprietary names.

The petrochemical sector is also a major player in the chemical industry due to advances made in the chemical manufacturing process. Due to advances in technology for producing large scale quantities of chemical substances, the costs of developing new chemical products has come down significantly. In addition, there have been dramatic changes in the volume of materials that can be handled in the production of commodity chemicals. The development of solid state machines and other technological advancements allow for greater productivity and higher rate of throughput in the chemical sector.

There are also a variety of specialty chemicals. These chemicals are typically developed for applications that cannot be covered by the range of general or petrochemical products. They represent an advanced form of the product and are unique enough to merit their own segment in the chemical industry. Specialty chemicals are the fastest growing segment of the chemical industry, due to advances in the chemistry of certain types of compounds. Examples of such compounds are antimicrobial agents, antineoplastic agents, chlorine compounds, diesel, furanocoumarins, insulin, digestion agents, neurotransmitters, and thyroid hormones. The future of the specialty chemicals looks particularly bright as newer technologies take hold in areas such as energy production, energy distillation, and biotechnology.

As with the petrochemical industry, there are a number of steps that need to be taken to ensure that the specialty chemicals do not end up in human or animal consumption. For example, there is some concern that there is a correlation between the use of petroleum-based products and increased instances of cancer. Many environmental groups are working hard to have these chemicals banned, although this might prove to be extremely difficult to accomplish. Efforts to control the use of petroleum-based products, including oil, natural gas, and coal as well as petroleum byproducts, could prove to be very contentious and could result in substantial job losses in the specialty chemicals area.

Many people are attracted to the idea of using the same materials and processes that have traditionally been used in the petrochemical industry in order to produce commodity-grade chemicals. However, there are significant challenges involved with the design of these products, both in terms of economics and in terms of safety. Due to certain limitations inherent in the design of synthetic compounds, the safety of many of these products is not known for sure until relatively late in the game. For this reason, many chemical producers choose to stick with the more traditional approaches in the chemical production process and use man-made materials instead. By using synthetic materials instead, chemical engineers can be confident that what they are designing is free of any unforeseen reactions from the materials in which it is being made. This gives these synthetic compounds a number of advantages over the man-made alternatives that exist in the chemical industry, including the ability to address a wide range of challenges and the ability to utilize a wide range of processes and technologies.

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