Market Research Report
High-Performance Films: The U.S. Market
|Published by||BCC Research||Product code||114742|
|Published||Content info||195 Pages
|High-Performance Films: The U.S. Market|
|Published: May 31, 2014||Content info: 195 Pages||
The U.S. high-performance films market reached $1.6 billion in 2013 and is expected to grow to $1.9 billion in 2018, with a compound annual growth rate (CAGR) of 4.5%.
In the years since World War II, plastics, in their many forms, have become ubiquitous in developed nations, and are increasingly becoming common in the developing parts of the world as well. The United States was until recently the world's largest producer and user of polymer products. In recent years China, which has become the world's factory, surpassed North America in plastics production; however, the U.S. remains the largest user of plastics and plastic products. With abundant and cheap natural gas feedstock from hydraulic fracturing ("fracking") of tight gas shales, large petrochemical and polymer plants are again being built in the Ü.S.
Synthetic polymers are made and used in many different forms, from synthetic fibers to extruded and molded products such as films and bottles, to foam mattresses. Often the same polymer can make products with entirely different properties and uses. Polyethylene terephthalate (PET) is a good example; it was first known and used as a synthetic fiber (Dacron and other brands). Later large use was developed for PET as a blow-molded bottle resin for soft drinks and other beverages, and also as a performance film for photographic film and magnetic media.
In this BCC Research report update by a different author, a Ph.D. chemical engineer who did an earlier BCC Research update several years ago, we study one versatile group of polymer products, high-performance plastic films. The noun film is defined in the American Heritage Dictionary as follows:
1. A thin skin or membrane. 2. A thin, opaque, abnormal coating on the cornea of the eye. 3. A thin covering or coating: a film of dust on the piano. 4. A thin, flexible, transparent sheet, as of plastic, used in wrapping or packaging. 5. a. A thin sheet or strip of flexible material, such as a cellulose derivative or a thermoplastic resin, coated with a photosensitive emulsion and used to make photographic negatives or transparencies. b. A thin sheet or strip of developed photographic negatives or transparencies. 6 .a. A movie, especially one recorded on film. b. The presentation of such a work. c. A long, narrative movie. d. Movies collectively, especially when considered as an art form.
It can be seen that "film" has several meanings as a noun and even more as a verb. The firms covered in this report are included in definitions 4, 5.a, and 5.b. Although this definition comes from the most recent edition of this dictionary, the inclusion of "cellulose derivative" is now virtually obsolete since cellulose has long been replaced by synthetic polymers.
There is a difference between film and sheet, with films the thinner form. Plastic extrusions have usually been considered to be films up to about 0.25 mm, equivalent to 10 mils or 0.001 inch. Above this thickness a "film" of most materials usually becomes a "sheet." However, as film technology has improved the flexibility of films, some markets define films slightly differently. Now thicknesses up to 0.40 inches (40 mils) may be defined as film by some engineers.
Thus, these differential points between film and sheet are not absolute, and engineers can define films in different ways. As discussed in this report, while some greater thicknesses are now considered film instead of sheet, minimum film thicknesses are also trending thinner toward micro thicknesses as new technologies emerge. Many high-temperature films are in the range of 0.001 inches to 0.010 inches (10 to 100 mils). At these thicknesses, a little film resin can go a long way. A note on thickness units: in film technology, both English and metric units are commonly used. In addition, in the U.S. film thickness is commonly expressed in gauge. In film technology gauge is a measurement of film thickness, where one gauge unity equals 0.01 mil or about 0.25 micrometer or micron. Perhaps the easiest way to remember the relationship between these units is that 100-gauge film is 1 mil or 25 microns thick. In this report, film gauge will be referred to in the manner that is the standard in the industry under discussion.
High-performance thermoplastic (TP) films, the subject of this study, are playing an increasingly important role as engineers design products in increasingly demanding environments and demand higher performance from the products they use. Historically, the most important applications for these films were for photographic and reprographic applications, both of which are disappearing from use as digital formats take over these businesses. Fortunately, new applications are constantly being developed to replace those lost to technology. Today, these films may make possible safer and lighter packaging, economic electric vehicles, better liquid crystal displays (LCDs) and the growth of an economically practical photovoltaic (PV) solar power industry.
Major polymer and film producing companies are important technology drivers and invest significant capital in R&D to improve their technologies. Innovations were driven initially by polymer chemistry, but increasingly, they are being driven by improved fabrication and treatment of films. One example is the complex development of specialty polyolefin films as membrane separators for lithium-ion batteries.
Goals and objectives of this study include the following:
High-performance plastic films have become a large and important niche market in the much larger overall plastic films industry. High-performance films are specialty products that sell at premium prices because they do jobs that commodity films cannot do. Their use is driven by the specific applications for which they are targeted.
Although the volumes of high-performance films are small when compared to those of commodity films, the dollar value of this market is disproportionately high. High-performance films, since they are specialty items, command higher prices, higher than commodity films and often several times as high.
Markets for high-performance films offer opportunities to create value and move discussions to topics beyond purchase price. Technology advances should help drive technology developments in major areas, including the largest end-use market in packaging. New and better barrier film structures with high-performance films allow longer shelf life and better appearance.
Developments using these films should have some significant effects on our economy and help provide the ability to solve some current problems such as climate change, where improved performance in applications such as solar cells and fuel cells can help attack global warming, one of the most serious environmental concerns.
Similar work is going on in the automotive arena. The ability of engineers to meet design goals for products such as solar cells and/or batteries that power cars will in some major parts depend on development of high-quality performance films.
High-performance markets increasingly are becoming those where the major chemical companies want to place their future. This business is also a global one, with many foreign-owned firms active in the U.S. market. Industry leaders have worldwide marketing and manufacturing facilities, often in joint ventures with local companies. The rise of China as a manufacturing behemoth has led to formation of many Chinese-foreign joint ventures.
BCC Research has continually updated this study to provide an up-to-date reference for those interested in and/or involved in these products and their use.
Because of the size and diversity of the materials and products used in high-performance plastic films, this report should be of interest to a wide group of organizations and individuals. This includes people who are involved in the development, design, manufacture, sale and use of these films, as well as government officials and the general public. This report will be of value to technical and business personnel in the following areas, among others:
High-performance films can be defined in any of several ways: by volume, price, performance, end-use markets, resin types, or a combination of two or more of these characteristics.
For this study, high-performance films are defined as thin-gauge, mostly extruded or solution-cast polymer sheets that generally meet at least one of the following criteria: pricing above commodity film levels, continuous-use temperature above commodity plastics, and end-uses requiring technical capability and thickness at or below 30 mils. These are films that are used primarily for their performance characteristics, not because of their price. Emphasis is on those markets and products where opportunities are the greatest.
Therefore, the distinguishing characteristics of high-performance films are as follows:
High-performance films generally are fabricated (or converted) in relatively small volumes (at least compared to commodity films). Much of their value is created after the film is extruded. The focal point is on high-performance resins and their chemistries, including the following:
We also introduce some newer film resins whose markets at present are too small to measure with any precision. These include polyketones, benzocyclobutenes and polyacetals.
Basic polyolefins, such as polyethylene (PE) and polypropylene (PP), are not included in our scope since they are true commodities used in commodity film applications like grocery and garbage bags. Also excluded are other commodity resins like polyvinyl chloride (PVC) and polystyrene. Specialty polyolefin-based films are included, primarily and particularly when multilayer construction is involved. These specialty films are ethylene vinyl alcohol (EVOH), ionomers, polyvinylidene chloride (PVdC), polyvinyl alcohol (PVOH) and polymethyl pentene (PMP).
The geographic scope of this report is the U.S. market. We include some international discussion, for example of foreign-owned firms that are active in these markets.
Our market estimates are by resin volumes in millions of pounds and we round them to the nearest million pounds. We round to millions since with so many products and applications, many of which are similar and can overlap, market estimates are by nature just that, estimates and not precise beyond millions of pounds, if that. Many applications markets for particular films are small, less than a million pounds, but our precision here is not greater than for larger numbers, and we round up to 1 million those estimated volumes greater than a half-million. Also, compound annual growth rates (CAGRs) for table entries with small volumes may not agree exactly with the 2013 and 2018 volumes; this is again caused by rounding.
Both primary and secondary research sources were used in preparing this study. Extensive searches were made of the literature and the Internet, including leading trade journals, technical papers, company literature, government information and pertinent trade associations. Much product and market information was obtained from the principals involved in the industry. The information in our company profiles was obtained primarily from the companies themselves, especially the larger publicly owned firms. Other sources included directories, articles and Internet sites.
Dr. J. Charles Forman has more than 50 years of chemical engineering and business experience in private business in the healthcare industry, at a major not-for-profit educational association, and as an independent technical writer and analyst. He is an expert in the worldwide chemical process industries, with specializations in healthcare, petroleum and petrochemicals, specialty and agrochemicals, plastics, and packaging. He has written many BCC Research reports on subjects including polymers and plastic packaging, chemical and petroleum processing, catalysts, healthcare policy and products, food and feed additives, chemicals/petrochemicals/specialty chemicals, pesticides, biotechnology, and spectroscopy. He holds an S.B. degree in chemical engineering from the Massachusetts Institute of Technology and Masters and Doctoral degrees in chemical engineering from Northwestern University.