Raw material

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Sulfur at harbor in North Vancouver, British Columbia, ready to be loaded onto a ship AlbertaSulfurAtVancouverBC.jpg
Sulfur at harbor in North Vancouver, British Columbia, ready to be loaded onto a ship
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Latex being collected from a tapped rubber tree

A raw material, also known as a feedstock, unprocessed material, or primary commodity, is a basic material that is used to produce goods, finished goods, energy, or intermediate materials that are feedstock for future finished products. As feedstock, the term connotes these materials are bottleneck assets and are required to produce other products.

Contents

The term raw material denotes materials in unprocessed or minimally processed states such as raw latex, crude oil, cotton, coal, raw biomass, iron ore, plastic, air, logs, and water. [1] The term secondary raw material denotes waste material which has been recycled and injected back into use as productive material. [2]

Raw material in supply chain

Supply chains typically begin with the acquisition or extraction of raw materials. [3] For example, the European Commission notes that food supply chains commence in the agricultural phase of food production. [4]

A 2022 report on changes affecting international trade noted that improving sourcing of raw materials has become one of the main objectives of companies reconfiguring their supply chains. [5]

In a 2022 survey conducted by SAP, wherein 400 US-based leaders in logistics and supply chain were interviewed, 44% of respondents cited a lack of raw materials as a reason for their supply chain issues. Forecasting for 2023, 50% of respondents expect a reduced availability of raw materials in the US to drive supply chain disruptions. [6]

Raw materials markets

Raw materials markets are affected by consumer behavior, supply chain uncertainty, manufacturing disruptions, and regulations, amongst other factors. This results in volatile raw materials markets that are difficult to optimize and manage. Companies can struggle when faced with raw material volatility due to a lack of understanding of market demands, poor or no visibility into the indirect supply chain, and the time lag of raw materials price changes. [7]

Volatility in the raw materials markets can also be driven by natural disasters and geopolitcal conflict. The COVID-19 pandemic disrupted the steel industry, and once demand rebounded, prices increased 250% in the US. The war in Ukraine caused the price of natural gas to increase by 50% in 2022. [8]

Raw material processing

Ceramic

While pottery originated in many different points around the world, it is certain that it was brought to light mostly through the Neolithic Revolution. That is important because it was a way for the first agrarians to store and carry a surplus of supplies. While most jars and pots were fire-clay ceramics, Neolithic communities also created kilns that were able to fire such materials to remove most of the water to create very stable and hard materials. Without the presence of clay on the riverbanks of the Tigris and Euphrates in the Fertile Crescent, such kilns would have been impossible for people in the region to have produced. Using these kilns, the process of metallurgy was possible once the Bronze and Iron Ages came upon the people that lived there. [9]

Metallic

Many raw metallic materials used in industrial purposes must first be processed into a usable state. Metallic ores are first processed through a combination of crushing, roasting, magnetic separation, flotation, and leaching to make them suitable for use in a foundry. Foundries then smelt the ore into usable metal that may be alloyed with other materials to improve certain properties. [10] One metallic raw material that is commonly found across the world is iron, and combined with nickel, this material makes up over 35% of the material in the Earth's inner and outer core. [11] The iron that was initially used as early as 4000 BC was called meteoric iron and was found on the surface of the Earth. This type of iron came from the meteorites that struck the Earth before humans appeared, and was in very limited supply. This type is unlike most of the iron in the Earth, as the iron in the Earth was much deeper than the humans of that time period were able to excavate. The nickel content of the meteoric iron made it not necessary to be heated up, and instead, it was hammered and shaped into tools and weapons. [12]

Iron ore

Vyasanakere Iron Ore Mine in Karnataka, India Vyasanakere Iron Ore Mine.png
Vyasanakere Iron Ore Mine in Karnataka, India

Iron ore can be found in a multitude of forms and sources. The primary forms of iron ore today are Hematite and Magnetite. While iron ore can be found throughout the world, only the deposits in the order of millions of tonnes are processed for industrial purposes. [13] The top five exporters of Iron ore are Australia, Brazil, South Africa, Canada, and Ukraine. [14] One of the first sources of iron ore is bog iron. Bog iron takes the form of pea-sized nodules that are created under peat bogs at the base of mountains. [15]

Conflicts of raw materials

Places with plentiful raw materials and little economic development often show a phenomenon known as "Dutch disease" or the "resource curse", which occurs when the economy of a country is mainly based upon its exports because of its method of governance. [16] An example of this is the Democratic Republic of the Congo.[ citation needed ]

See also

Related Research Articles

<span class="mw-page-title-main">Smelting</span> Use of heat and a reducing agent to extract metal from ore

Smelting is a process of applying heat and a chemical reducing agent to an ore to extract a desired base metal product. It is a form of extractive metallurgy that is used to obtain many metals such as iron, copper, silver, lead and zinc. Smelting uses heat and a chemical reducing agent to decompose the ore, driving off other elements as gases or slag and leaving the metal behind. The reducing agent is commonly a fossil fuel source of carbon, such as carbon monoxide from incomplete combustion of coke—or, in earlier times, of charcoal. The oxygen in the ore binds to carbon at high temperatures as the chemical potential energy of the bonds in carbon dioxide is lower than the bonds in the ore.

<span class="mw-page-title-main">Group 6 element</span> Group of chemical elements

Group 6, numbered by IUPAC style, is a group of elements in the periodic table. Its members are chromium (Cr), molybdenum (Mo), tungsten (W), and seaborgium (Sg). These are all transition metals and chromium, molybdenum and tungsten are refractory metals.

<span class="mw-page-title-main">Coke (fuel)</span> Hard fuel containing mostly carbon

Coke is a grey, hard, and porous coal-based fuel with a high carbon content and few impurities, made by heating coal or oil in the absence of air—a destructive distillation process. It is an important industrial product, used mainly in iron ore smelting, but also as a fuel in stoves and forges when air pollution is a concern.

<span class="mw-page-title-main">Iron ore</span> Ore rich in iron or the element Fe

Iron ores are rocks and minerals from which metallic iron can be economically extracted. The ores are usually rich in iron oxides and vary in color from dark grey, bright yellow, or deep purple to rusty red. The iron is usually found in the form of magnetite (Fe
3
O
4
, 72.4% Fe), hematite (Fe
2
O
3
, 69.9% Fe), goethite (FeO(OH), 62.9% Fe), limonite (FeO(OH)·n(H2O), 55% Fe) or siderite (FeCO3, 48.2% Fe).

The abundance of the chemical elements is a measure of the occurrence of the chemical elements relative to all other elements in a given environment. Abundance is measured in one of three ways: by mass fraction, by mole fraction, or by volume fraction. Volume fraction is a common abundance measure in mixed gases such as planetary atmospheres, and is similar in value to molecular mole fraction for gas mixtures at relatively low densities and pressures, and ideal gas mixtures. Most abundance values in this article are given as mass fractions.

<span class="mw-page-title-main">Scrap</span> Recyclable materials left over from manufactured products after their use

Scrap consists of recyclable materials, usually metals, left over from product manufacturing and consumption, such as parts of vehicles, building supplies, and surplus materials. Unlike waste, scrap has monetary value, especially recovered metals, and non-metallic materials are also recovered for recycling. Once collected, the materials are sorted into types — typically metal scrap will be crushed, shredded, and sorted using mechanical processes.

Calcination is thermal treatment of a solid chemical compound (e.g. mixed carbonate ores) whereby the compound is raised to high temperature without melting under restricted supply of ambient oxygen (i.e. gaseous O2 fraction of air), generally for the purpose of removing impurities or volatile substances and/or to incur thermal decomposition.

<span class="mw-page-title-main">Bloomery</span> Type of furnace once used widely for smelting iron from its oxides

A bloomery is a type of metallurgical furnace once used widely for smelting iron from its oxides. The bloomery was the earliest form of smelter capable of smelting iron. Bloomeries produce a porous mass of iron and slag called a bloom. The mix of slag and iron in the bloom, termed sponge iron, is usually consolidated and further forged into wrought iron. Blast furnaces, which produce pig iron, have largely superseded bloomeries.

<span class="mw-page-title-main">Petroleum coke</span> Solid carbon-rich material

Petroleum coke, abbreviated coke, pet coke or petcoke, is a final carbon-rich solid material that derives from oil refining, and is one type of the group of fuels referred to as cokes. Petcoke is the coke that, in particular, derives from a final cracking process—a thermo-based chemical engineering process that splits long chain hydrocarbons of petroleum into shorter chains—that takes place in units termed coker units. Stated succinctly, coke is the "carbonization product of high-boiling hydrocarbon fractions obtained in petroleum processing ". Petcoke is also produced in the production of synthetic crude oil (syncrude) from bitumen extracted from Canada's tar sands and from Venezuela's Orinoco oil sands.

<span class="mw-page-title-main">Direct reduced iron</span> Newly mined and refined type of metal

Direct reduced iron (DRI), also called sponge iron, is produced from the direct reduction of iron ore into iron by a reducing gas or elemental carbon produced from natural gas or coal. Many ores are suitable for direct reduction.

<span class="mw-page-title-main">Rotary kiln</span> Pyroprocessing device

A rotary kiln is a pyroprocessing device used to raise materials to a high temperature (calcination) in a continuous process. Materials produced using rotary kilns include:

Resource refers to all the materials available in our environment which are technologically accessible, economically feasible and culturally sustainable and help us to satisfy our needs and wants. Resources can broadly be classified upon their availability — they are classified into renewable and non-renewable resources. They can also be classified as actual and potential on the basis of the level of development and use, on the basis of origin they can be classified as biotic and abiotic, and on the basis of their distribution, as ubiquitous and localised. An item becomes a resource with time and developing technology. The benefits of resource utilization may include increased wealth, proper functioning of a system, or enhanced well-being. From a human perspective, a natural resource is anything obtained from the environment to satisfy human needs and wants. From a broader biological or ecological perspective, a resource satisfies the needs of a living organism.

The Becher process is an industrial process used to produce rutile, a form of titanium dioxide, from the ore ilmenite. It is competitive with the chloride process and the sulfate process, which achieve similar net conversions.

International Classification of Goods and Services also known as the Nice Classification was established by the Nice Agreement (1957), is a system of classifying goods and services for the purpose of registering trademarks. It is updated every five years and its latest 11th version of the system groups products into 45 classes, and allows users seeking to trademark a good or service to choose from these classes as appropriate. Since the system is recognized in numerous countries, this makes applying for trademarks internationally a more streamlined process. The classification system is specified by the World Intellectual Property Organization (WIPO).

<span class="mw-page-title-main">Charcoal</span> Lightweight black carbon residue

Charcoal is a lightweight black carbon residue produced by strongly heating wood in minimal oxygen to remove all water and volatile constituents. In the traditional version of this pyrolysis process, called charcoal burning, often by forming a charcoal kiln, the heat is supplied by burning part of the starting material itself, with a limited supply of oxygen. The material can also be heated in a closed retort. Modern "charcoal" briquettes used for outdoor cooking may contain many other additives, e.g. coal.

Electron-beam freeform fabrication (EBF3) is an additive manufacturing process that builds near-net-shape parts. It requires far less raw material and finish machining than traditional manufacturing methods. EBF3 is done in a vacuum chamber where an electron beam is focused on a constantly feeding source of metal, which is melted and applied as called for by a three-dimensional layered drawing - one layer at a time - on top of a rotating metallic substrate until the part is complete.

<span class="mw-page-title-main">Torrefaction</span>

Torrefaction of biomass, e.g., wood or grain, is a mild form of pyrolysis at temperatures typically between 200 and 320 °C. Torrefaction changes biomass properties to provide a better fuel quality for combustion and gasification applications. Torrefaction produces a relatively dry product, which reduces or eliminates its potential for organic decomposition. Torrefaction combined with densification creates an energy-dense fuel carrier of 20 to 21 GJ/ton lower heating value (LHV). Torrefaction makes the material undergo Maillard reactions. Torrefied biomass can be used as an energy carrier or as a feedstock used in the production of bio-based fuels and chemicals.

In 2022, the United States was the world’s third-largest producer of raw steel, and the sixth-largest producer of pig iron. The industry produced 29 million metric tons of pig iron and 88 million tons of steel. Most iron and steel in the United States is now made from iron and steel scrap, rather than iron ore. The United States is also a major importer of iron and steel, as well as iron and steel products.

<span class="mw-page-title-main">Red mud</span> Waste product from the production of alumina

Red mud, now more frequently termed bauxite residue, is an industrial waste generated during the processing of bauxite into alumina using the Bayer process. It is composed of various oxide compounds, including the iron oxides which give its red colour. Over 95% of the alumina produced globally is through the Bayer process; for every tonne of alumina produced, approximately 1 to 1.5 tonnes of red mud are also produced. Annual production of alumina in 2020 was over 133 million tonnes resulting in the generation of over 175 million tonnes of red mud.

Since 2011 the European Commission has assessed every 3 years a list of Critical Raw Materials (CRMs) for the EU economy within its Raw Materials Initiative. To date, 14 CRMs were identified in 2011, 20 in 2014, 27 in 2017 and 30 in 2020. These materials are mainly used in energy transition and digital technologies. Then in March 2023 Commission President Ursula von der Leyen proposed the Critical Raw Materials Act, "for a regulation of the European Parliament and of the European Council establishing a framework for ensuring a secure and sustainable supply of critical raw materials". At the time, Europe depended on China for 98% of its rare-earth needs, 97% of its lithium supply and 93% of its magnesium supply.

References

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  2. European Commission, Raw materials, updated 26 March 2020, accessed 31 December 2020
  3. "The Supply Chain: From Raw Materials to Order Fulfillment". Investopedia. Retrieved 2023-03-03.
  4. European Commission, Communication from the Commission to the European Parliament, the Council, the European Economic and Social Committee and the Committee of the Regions: A better functioning food supply chain in Europe, page 2, provisional version published 28 October 2019, accessed 2 February 2023
  5. Economist Impact and DP World, Trade in Transition 2022: Key Findings, accessed 2 February 2023
  6. "New Research Forecasts the State of U.S. Supply Chains in 2023". SAP News Center. October 24, 2022. Retrieved March 14, 2023.
  7. "Read @Kearney: How to navigate a volatile raw materials market". Kearney. Retrieved 2023-03-03.
  8. "Gauging the Risks of Raw-Material Volatility". BCG Global. 2022-10-07. Retrieved 2023-03-03.
  9. James E. McClellan III; Harold Dorn (2006). Science and Technology in World History: An Introduction. JHU Press. ISBN   978-0-8018-8360-6. p. 21.
  10. "Materials processing" . Retrieved 8 February 2018.
  11. Morgan, John W.; Anders, Edward (December 1980). "Chemical composition of Earth, Venus, and Mercury". Proceedings of the National Academy of Sciences of the United States of America. 77 (12): 6973–6977. Bibcode:1980PNAS...77.6973M. doi: 10.1073/pnas.77.12.6973 . PMC   350422 . PMID   16592930.
  12. Understanding materials science, p. 125, Rolf E. Hummel, Springer, 2004
  13. "Mineral Information Institute - IRON ORE". 2006-04-17. Archived from the original on 2006-04-17. Retrieved 2019-03-17.
  14. Workman, Daniel (2018-12-08). "Iron Ore Exports by Country". World's Top Exports. Retrieved 2019-03-17.
  15. "Hurstwic: Iron Production in the Viking Age". www.hurstwic.org. Retrieved 2019-03-17.
  16. Bernard Tchibambelela, Le commerce mondial de la faim: stratégie de rupture positive au Congo-Brazzaville, Éditions L'Harmattan, 2009, p. 183.

Further reading