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Sunday, January 19, 2020

Petroleum naphtha

From Wikipedia, the free encyclopedia
 
Petroleum naphtha is an intermediate hydrocarbon liquid stream derived from the refining of crude oil with CAS-no 64742-48-9. It is most usually desulfurized and then catalytically reformed, which rearranges or restructures the hydrocarbon molecules in the naphtha as well as breaking some of the molecules into smaller molecules to produce a high-octane component of gasoline (or petrol).
 There are hundreds of different petroleum crude oil sources worldwide and each crude oil has its own unique composition or assay. There are also hundreds of petroleum refineries worldwide and each of them is designed to process either a specific crude oil or specific types of crude oils. Naphtha is a general term as each refinery produces its own naphthas with their own unique initial and final boiling points and other physical and compositional characteristics.

Naphthas may also be produced from other material such as coal tar, shale deposits, tar sands, and the destructive distillation of wood.

The major source of petroleum naphtha in a petroleum refinery

The first unit operation in a petroleum refinery is the crude oil distillation unit. The overhead liquid distillate from that unit is called virgin or straight-run naphtha and that distillate is the largest source of naphtha in most petroleum refineries. The naphtha is a mixture of many different hydrocarbon compounds. It has an initial boiling point (IBP) of about 35 °C and a final boiling point (FBP) of about 200 °C, and it contains paraffins, naphthenes (cyclic paraffins) and aromatic hydrocarbons ranging from those containing 4 carbon atoms to those containing about 10 or 11 carbon atoms. 

The virgin naphtha is often further distilled into two streams:
  • a virgin light naphtha with an IBP of about 30 °C and a FBP of about 145 °C containing most (but not all) of the hydrocarbons with six or fewer carbon atoms
  • a virgin heavy naphtha containing most (but not all) of the hydrocarbons with more than six carbon atoms. The heavy naphtha has an IBP of about 140 °C and a FBP of about 205 °C.
The virgin heavy naphtha is usually processed in a catalytic reformer, because the light naphtha has molecules with six or fewer carbon atoms—which, when reformed, tend to crack into butane and lower molecular weight hydrocarbons that are not useful as high-octane gasoline blending components. Also, the molecules with six carbon atoms tend to form aromatics, which is undesirable because the environmental regulations of a number of countries limit the amount of aromatics (most particularly benzene) in gasoline.

Types of virgin naphthas

The table below lists some typical virgin heavy naphthas, available for catalytic reforming, derived from various crude oils. It can be seen that they differ significantly in their content of paraffins, naphthenes and aromatics:

Typical heavy naphthas
Crude oil name
Location
Barrow Island
Australia
Mutineer-Exeter
Australia
CPC Blend
Kazakhstan
Draugen
North Sea
Initial boiling point, °C 150 140 149 150
Final boiling point, °C 200 190 204 180
Paraffins, liquid volume % 46 62 57 38
Naphthenes, liquid volume % 42 32 27 45
Aromatics, liquid volume % 12 6 16 17

Cracked naphthas

Some refinery naphthas also contain some olefinic hydrocarbons, such as naphthas derived from the fluid catalytic cracking, visbreakers and coking processes used in many refineries. Those olefin-containing naphthas are often referred to as cracked naphthas. 

In some (but not all) petroleum refineries, the cracked naphthas are desulfurized and catalytically reformed (as are the virgin naphthas) to produce additional high-octane gasoline components. 

Other uses

Some petroleum refineries also produce small amounts of specialty naphthas for use as solvents, cleaning fluids and dry-cleaning agents, paint and varnish diluents, asphalt diluents, rubber industry solvents, recycling products, and cigarette-lighter, portable-camping-stove and lantern fuels. Those specialty naphthas are subjected to various purification processes. 

Sometimes the specialty naphthas are called petroleum ether, petroleum spirits, mineral spirits, paraffin, benzine, hexane, ligroin, white oil or white gas, painters naphtha, refined solvent naphtha and Varnish makers' & painters' naphtha (VM&P). The best way to determine the boiling range and other compositional characteristics of any of the specialty naphthas is to read the Safety Data Sheet (SDS) for the specific naphtha of interest.

On a much larger scale, petroleum naphtha is also used in the petrochemicals industry as feedstock to steam reformers and steam crackers for the production of hydrogen (which may be and is converted into ammonia for fertilizers), ethylene, and other olefins. Natural gas is also used as feedstock to steam reformers and steam crackers. 

Safety

People can be exposed to petroleum naphtha in the workplace by breathing it, swallowing it, skin contact, and eye contact. The Occupational Safety and Health Administration (OSHA) set the legal limit (permissible exposure limit) for petroleum naphtha exposure in the workplace as 500 ppm (2000 mg/m3) over an 8-hour workday. The National Institute for Occupational Safety and Health (NIOSH) has set a recommended exposure limit (REL) of 350 mg/m3 over an 8-hour workday and 1800 mg/m3 over 15 minutes. At levels of 1100 ppm, 10% of the lower explosive limit, petroleum naphtha is immediately dangerous to life and health.

Other napthas

Mixtures labelled naphtha have been produced from natural gas condensates, petroleum distillates, and the distillation of coal tar and peat

In different industries and regions naphtha may also be crude oil or refined products such as kerosene. Mineral spirits, also historically known as "naphtha", are not the same chemical.

Nephi and naphthar are sometimes used as a synonyms.

Etymology

White gas, exemplified by Coleman Camp Fuel, is a common naphtha-based fuel used in many lanterns and torches
 
The word naphtha is from Latin and Ancient Greek (νάφθα), derived from Middle Persian naft ("wet", "naphtha"), the latter meaning of which was an assimilation from the Akkadian napṭu (see Semitic relatives such as Arabic نَفْط nafṭ ("petroleum"), Syriac ܢܰܦܬܳܐ naftā, and Hebrew נֵפְט neft). In Ancient Greek, it was used to refer to any sort of petroleum or pitch

In the Song of the Three Children the Greek word νάφθα designates one of the materials used to stoke the fiery furnace. The translation of Charles Brenton renders this as "rosin".

The book of II Maccabees tells how a "thick water" was put on a sacrifice at the time of Nehemiah and when the sun shone it caught fire. It adds that "those around Nehemiah termed this 'Nephthar', which means Purification, but it is called Nephthaei by the many [literally hoi polloi]."

It enters the word napalm, a contraction of the "na" of naphthenic acid and "palm" of palmitic acid, originally made from a mixture of naphthenic acid combined with aluminium and magnesium salts of palmitic acid. Naphtha is the root of the word naphthalene, and can also be recognised in the word phthalate, and the paint colour phthalo blue

In older usage, "naphtha" simply meant crude oil, but this usage is now obsolete in English. It was also used for mineral spirits (also known as "Stoddard Solvent"), originally the main active ingredient in Fels Naptha laundry soap. The Ukrainian and Belarusian word нафта (nafta), Lithuanian, Latvian and Estonian "nafta", the Russian word нефть (neft') and the Persian naft (نفت) mean "crude oil". Also, in Albania, Bosnia and Herzegovina, Bulgaria, Croatia, Finland, Italy, Serbia, Slovenia, nafta (нафта in Cyrillic) is colloquially used to indicate diesel fuel and crude oil. In the Czech Republic and Slovakia, nafta was historically used for both diesel fuel and crude oil, but its use for crude oil is now obsolete and it generally indicates diesel fuel. In Bulgarian, nafta means diesel fuel, while neft, as well as petrol (петрол in Cyrillic), means crude oil. In Nafta is also used in everyday parlance in Argentina, Paraguay and Uruguay to refer to gasoline/petrol. In Poland, the word nafta means kerosene,, as in lampa naftowa "paraffin lamp"; crude oil and (colloquially) diesel fuel are called ropa "pus". In Flemish, the word naft is used colloquially for gasoline.

There is a hypothesis that the word is connected with the name of the Indo-Iranian god Apam Napat, which occurs in Vedic and in Avestic; the name means "grandson of (the) waters", and the Vedas describes him as emerging from water golden and shining "with bright rays", perhaps inspired by a burning seepage of natural gas.

Types

Various qualifiers have been added to the term "naphtha" by different sources in an effort to make it more specific: 

One source distinguishes by boiling point:
Light naphtha is the fraction boiling between 30 °C and 90 °C and consists of molecules with 5–6 carbon atoms. Heavy naphtha boils between 90 °C and 200 °C and consists of molecules with 6–12 carbon atoms.
Another source differentiates light and heavy comments on the hydrocarbon structure, but offers a less precise dividing line:
Light [is] a mixture consisting mainly of straight-chained and cyclic aliphatic hydrocarbons having from five to six carbon atoms per molecule. Heavy [is] a mixture consisting mainly of straight-chained and cyclic aliphatic hydrocarbons having from seven to nine carbon atoms per molecule.
Both of these are useful definitions, but they are incompatible with one another and the latter does not provide for mixes containing both 6 and 7 carbon atoms per molecule. These terms are also sufficiently broad that they are not widely useful. 

Uses


Heavy crude oil dilution

Naphtha is used to dilute heavy crude oil to reduce its viscosity and enable/facilitate transport; undiluted heavy crude cannot normally be transported by pipeline, and may also be difficult to pump onto oil tankers. Other common dilutants include natural-gas condensate, and light crude. However, naphtha is a particularly efficient dilutant and can be recycled from diluted heavy crude after transport and processing. The importance of oil dilutants has increased as global production of lighter crude oils has fallen and shifted to exploitation of heavier reserves.

Health and safety considerations

The safety data sheets (SDSs) from various naphtha vendors are also indicative of the non-specific nature of the product and reflect the considerations due for a flammable mixture of hydrocarbons: flammability, carcinogenicity, skin and airway irritation, etc.

Humans can be exposed to naphtha in the workplace by inhalation, ingestion, dermal contact, and eye contact. The US Occupational Safety and Health Administration (OSHA) has set the permissible exposure limit for naphtha in the workplace as 100 ppm (400 mg/m3) over an 8-hour workday. The US National Institute for Occupational Safety and Health (NIOSH) has set a recommended exposure limit (REL) of 100 ppm (400 mg/m3) over an 8-hour workday. At levels of 1000 ppm, which equates to 10% of the lower explosive limit, naphtha is immediately dangerous to life and health.

BASF

From Wikipedia, the free encyclopedia
 
Societas Europaea
Traded asFWBBAS
DAX Component
ISINDE000BASF111 Edit this on Wikidata
IndustryChemicals
Founded6 April 1865; 154 years ago (as Badische Anilin und Soda Fabrik); Mannheim, Baden
FounderFriedrich Engelhorn Edit this on Wikidata
HeadquartersLudwigshafen, Germany
Key people
Jürgen Hambrecht (Chairman of the supervisory board), Martin Brudermüller (CEO and Chairman of the executive board)
ProductsChemicals, plastics, performance chemicals, catalysts, coatings, crop technology, crude oil and natural gas exploration and production
RevenueIncrease 62.675 billion (2018)
Decrease €6.033 billion (2018)
Decrease €4.707 billion (2018)
Total assetsIncrease €86.556 billion (end 2018)
Total equityIncrease €36.109 billion (end 2018)
Number of employees
Increase 122,404 (end 2018)
Websitebasf.com

BASF SE is a Germany-based European chemical company and the largest chemical producer in the world. The BASF Group comprises subsidiaries and joint ventures in more than 80 countries and operates six integrated production sites and 390 other production sites in Europe, Asia, Australia, the Americas and Africa. Its headquarters is located in Ludwigshafen, Germany. BASF has customers in over 190 countries and supplies products to a wide variety of industries. Despite its size and global presence, BASF has received relatively little public attention since it abandoned manufacturing and selling BASF-branded consumer electronics products in the 1990s.

At the end of 2017, the company employed around 115,490 people, with over 52,000 in Germany. In 2015, BASF posted sales of €70.4 billion and income from operations before special items of about €6.7 billion. The company is currently expanding its international activities with a particular focus on Asia. Between 1990 and 2005, the company invested €5.6 billion in Asia, for example in sites near Nanjing and Shanghai, China and Mangalore, India.

BASF is listed on the Frankfurt Stock Exchange, London Stock Exchange, and Zurich Stock Exchange. The company delisted its ADR from the New York Stock Exchange in September 2007. The company is a component of the Euro Stoxx 50 stock market index.

History

BASF Werk in Ludwigshafen, 1865
 
BASF is an initialism for Badische Anilin und Soda Fabrik (German for 'Baden Aniline and Soda Factory'). It was founded by Friedrich Engelhorn on 6 April 1865 in Mannheim, in the German-speaking country of Baden. Engelhorn had been responsible for setting up a gasworks and street lighting for the town council in 1861. The gasworks produced tar as a byproduct, and Engelhorn used this for the production of dyes. BASF was set up in 1865 to produce other chemicals necessary for dye production, notably soda and acids. The plant, however, was erected on the other side of the Rhine river at Ludwigshafen, because the town council of Mannheim was afraid that the air pollution from the chemical plant could bother the inhabitants of the town. In 1866, the dye production processes were also moved to the BASF site.

Dyes

BASF Werk in Ludwigshafen, 1881
 
The discovery in 1857 by William Henry Perkin that aniline could be used to make intense colouring agents had led to the commercial production of synthetic dyes in England from aniline extracted from coal tar. BASF recruited Heinrich Caro, a German chemist with experience of the dyestuffs industry in England, to be the first head of research. Caro developed a synthesis for alizarin (a natural pigment in madder), and applied for a British patent on 25 June 1869. Coincidentally, Perkin applied for a virtually identical patent on 26 June 1869, and the two companies came to a mutual commercial agreement about the process.

Further patents were granted for the synthesis of methylene blue and eosin, and in 1880, research began to try to find a synthetic process for indigo dye, though this was not successfully brought to the market until 1897. In 1901, some 80% of the BASF production was dyestuffs.

Soda

BASF main laboratory in Ludwigshafen, 1887
 
Sodium carbonate (soda) was produced by the Leblanc process until 1880 when the much cheaper Solvay process became available. BASF ceased to make its own and bought it from the Solvay company thereafter.

Sulfuric acid

Indigo production at BASF in 1890
 
Sulfuric acid was initially produced by the lead chamber process, but in 1890, a unit using the contact process was brought on stream, producing the acid at higher concentration (98% instead of 80%) and a lower cost. This development followed extensive research and development by Rudolf Knietsch, for which he received the Liebig Medal in 1904.

Ammonia

The development of the Haber process from 1908 to 1912 made it possible to synthesize ammonia (a major industrial chemical as the primary source of nitrogen), and, after acquiring exclusive rights to the process, in 1913 BASF started a new production plant in Oppau, adding fertilizers to its product range. BASF also acquired and began mining anhydrite for gypsum at the Kohnstein in 1917.

IG Farben

In 1916, BASF started operations at a new site in Leuna, where explosives were produced during the First World War. On 21 September 1921, an explosion occurred in Oppau, killing 565 people. The Oppau explosion was the biggest industrial accident in German history. Under the leadership of Carl Bosch - a critic of Nazi policies - BASF founded IG Farben with Hoechst, Bayer, and three other companies, thus losing its independence. BASF was the nominal survivor, as all shares were exchanged for BASF shares prior to the merger. Rubber, fuels, and coatings were added to the range of products. 

World War II

Following the appointment of Adolf Hitler as Chancellor in 1933, IG Farben collaborated with the Nazi regime, profiting from guaranteed volumes and prices, and from the slave labor provided by the government's Nazi concentration camps. IG Farben also achieved notoriety owing to its production of Zyklon-B, the lethal gas used to murder prisoners in German Nazi extermination camps. In 1935, IG Farben and AEG presented the magnetophon – the first tape recorder – at the Radio Exhibition in Berlin.

The Ludwigshafen site was almost completely destroyed during the Second World War and was subsequently rebuilt. The allies dissolved IG Farben in November 1945.

Both the Ludwigshafen and Oppau plants were of strategic importance for the war because the German military needed many of their products, e.g., synthetic rubber and gasoline. As a result, they were major targets for air raids. Throughout the war, Allied bombers attacked the plants 65 times.
Shelling took place from the autumn of 1943 and saturation bombing inflicted extensive damage. Production virtually stopped by the end of 1944.

Due to a shortage of male workers during the war, women were conscripted to work in the factories, and later prisoners of war and foreign civilians. Concentration camp inmates did not work at the Ludwigshafen and Oppau plants.

In July 1945, the American military administration confiscated the entire assets of IG Farben. That same year, the Allied Commission decreed that IG Farben should be dissolved. The sites at Ludwigshafen and Oppau were controlled by French authorities. 

BASF refounded

On 28 July 1948, an explosion occurred at a BASF site in Ludwigshafen, killing 207 people and injuring 3818. In 1952, BASF was refounded under its own name following the efforts of former Nazi Party member and Third Reich Wehrwirtschaftsführer (war economy leader) Carl Wurster. With the German economic miracle in the 1950s, BASF added synthetics such as nylon to its product range. BASF developed polystyrene in the 1930s and invented Styropor in 1951. 

Production abroad

In the 1960s, production abroad was expanded and plants were built in Argentina, Australia, Belgium, Brazil, France, India, Italy, Japan, Mexico, Spain, United Kingdom and the United States. Following a change in corporate strategy in 1965, greater emphasis was placed on higher-value products such as coatings, pharmaceuticals, pesticides and fertilizers. Following German reunification, BASF acquired a site in Schwarzheide, eastern Germany, on 25 October 1990. It expanded to Podolsk, Russia, in 2012, and to Kazan in 2013.

The company announced the start of a US$10 billion investment project at Zhanjiang, China, in November 2019. This ″Verbund″ site is intended for the production of engineering plastics and TPU. The site would be the third-largest BASF site worldwide, following Ludwigshafen, Germany, and Antwerp, Belgium, and is expected to be operational by 2022.

Takeovers

In 1968 BASF (together with Bayer AG) bought the German coatings company Herbol. BASF completely took over the Herbol branches in Cologne and Würzburg in 1970. Under new management, the renewal and expansion of the trademark continued. After an extensive reorganisation and an increasing international orientation of the coatings business, Herbol became part of the new founded Deco GmbH in 1997.

BASF bought the Wyandotte Chemical Company, and its Geismar, Louisiana chemical plant in the early 1980s. The plant produced plastics, herbicides, and antifreeze. BASF soon tried to operate union-free, having already reduced or eliminated union membership in several other US plants. Challenging the Geismar OCAW union resulted in a labor dispute that saw members locked out from 1984-1989 and eventually winning their case. A worker solidarity committee at BASF's headquarters plant in Ludwigshafen, Germany, took donations from German workers to support the American strikers and organized rallies and publicity in support. The dispute was the subject of an academic study The union also exposed major accidental releases of phosgene, toluene and other toxic gases, these being publicized in the local media and through a video, Out of Control. A court threw out a $66,700 fine against BASF for five environmental violations as "too small".

BASF's European coatings business was taken over by AkzoNobel in 1999. BASF bought the Engelhard Corporation for $4.8 billion in 2006. Other acquisitions in 2006 were the purchase of Johnson Polymer and the construction chemicals business of Degussa.

The acquisition of Johnson Polymer was completed on 1 July 2006. The purchase price was $470 million on a cash and debt-free basis. It provided BASF with a range of water-based resins that complements its portfolio of high solids and UV resins for the coatings and paints industry and strengthened the company's market presence, particularly in North America.

BASF Portsmouth Site in the West Norfolk area of Portsmouth, Virginia, United States. The plant is served by the Commonwealth Railway.

The acquisition of Degussa AG's construction chemicals business was completed in 2006. The purchase price for equity was about €2.2 billion. In addition, the transaction was associated with a debt of €500 million.

The company agreed to acquire Ciba (formerly part of Ciba-Geigy) in September 2008. The proposed deal was reviewed by the European Commissioner for Competition. On 9 April 2009, the acquisition was officially completed.

On 19 December 2008, BASF acquired U.S.-based Whitmire Micro-Gen together with U.K.-based Sorex Ltd, Widnes, Great Britain. Sorex is a manufacturer of branded chemical and non-chemical products for professional pest management. In March 2007 Sorex was put up for sale with a price tag of about £100 million.

In December 2010, BASF completed the acquisition of Cognis.

In May 2015, BASF agreed to sell parts of its pharmaceutical ingredients business to Swiss drug manufacturer Siegfried Holding for a fee of €270 million, including assumed debt.

In October 2017, BASF announced it would buy seed and herbicide businesses from Bayer for €5.9 billion ($7 billion), as part of its acquisition of Monsanto.

In August 2019, BASF agreed to sell its global pigments business to Japanese fine chemical company DIC for €1.15 billion ($1.28 billion) on a cash and debt-free basis.

In September 2019, BASF signed an agreement with DuPont Safety & Construction, a subsidiary business unit of DuPont Co., to sell its ultrafiltration membrane business, Inge GmbH. According to BASF executives, Inge Gmbh and its products fit better with DuPont and their business strategy.

Finances

For the fiscal year 2017, BASF reported earnings of EUR€6.1 billion, with an annual revenue of EUR€64.5 billion, an increase of 12% over the previous fiscal cycle. BASF's shares traded at over €69 per share, and its market capitalization was valued at US€63.7 billion in November 2018. In October 2019, BASF reported a drop of operating income for July to September amounting to 24 percent, along with a drop in EBIT earnings of €1.1 billion ($1.2 billion). The US-China trade war as well as uncertainties related to Brexit were identified as contributing factors. However, overall third quarter profit beat expectations as the acquisition of Bayer AG's agrochemical and seed business help to offset some of the effects of the trade war.

Year Revenue
in bn. EUR€
Net income
in bn. EUR€
Total Assets
in bn. EUR€
Employees
2013 73.973 4.842 64.382 112,206
2014 74.326 5.155 71.359 113,292
2015 70.449 3.987 70.836 112,435
2016 57.550 4.056 76.496 113,830
2017 61.223 6.078 78.768 115,490
2018 62.675 4.707 86.556 122,404

Business segments

Former BASF building in Ludwigshafen
 
BASF headquarters, Ludwigshafen, Germany
 
BASF operates in a variety of markets. Its business is organized in the segments of Chemicals, Plastics, Performance Products, Functional Solutions, Agricultural Solutions, and Oil and Gas.

Chemicals

BASF produces a wide range of chemicals such as solvents, amines, resins, glues, electronic-grade chemicals, industrial gases, basic petrochemicals, and inorganic chemicals. The most important customers for this segment are the pharmaceutical, construction, textile, and automotive industries. 

Plastics

BASF's plastic products include high-performance materials in thermoplastics, foams, and urethanes.

Engineering Plastics
 
BASF's Engineering Plastics consists of the "4 Ultras" - Ultramid polyamide (PA) nylon-based resins, Ultradur, polybutylene terephthalate (PBT), Ultraform, polyacetal (POM), and Ultrason, polysulfone (PSU) and polyethersulfone (PES).

Styrenics
 
BASF Styrenics consists of the Foams and Copolymers. BASF's styrenic copolymers have applications in electronics, building and construction, and automotive components. In 2011 BASF and INEOS blended their global business activities in the fields of styrene monomers (SM), polystyrene (PS), acrylonitrile butadiene styrene (ABS), styrene butadiene copolymers (SBC) and other styrene-based copolymers (SAN, AMSAN, ASA, MABS) into a joint venture named Styrolution.

Polyurethanes
 
BASF's Polyurethanes business consists of diverse technologies and finished products. Urethane chemicals are raw materials used in rigid and flexible foams commonly used for insulation in the construction and appliance industries, furniture, packaging, and transportation.
 
Foams
 
Foams like Styropor are generally used as insulating materials. They are eco-efficient and offer advantages over other materials in terms of cost-effectiveness, preservation of resources and environmental protection. Investments made for insulating materials usually pay for themselves within a short time and contribute to retaining and even enhancing the value of buildings. 

Polyamides and Intermediates
 
BASF manufactures polyamide precursors and polyamide


Biodegradable plastics
 
BASF developed a biodegradable plastic with a high content of polylactic acid.

Performance products

BASF produces a range of performance chemicals, coatings and functional polymers. These include raw materials for detergents, textile and leather chemicals, pigments and raw materials for adhesives, paper chemicals. Customers are the automotive, oil, paper, packaging, textile, sanitary products, detergents, construction materials, coatings, printing, and leather industries.

Functional Solutions

BASF-sponsored Museum for Laquerware in Münster, Germany
 
BASF in Ludwigshafen
 
BASF's Functional Solutions segment consists of the Catalysts, Construction Chemicals and Coatings divisions. These divisions develop customer-specific products, in particular for the automotive and construction industries. 

Agricultural

BASF supplies agricultural products and chemicals including fungicides, herbicides, insecticides and seed treatment products. The company also researches nutrigenomics. BASF opened a new crop protection technology center in Limburgerhof, Germany in 2016.

Biotechnology

BASF was cooperating with Monsanto Company in research, development and marketing of biotechnology. In correlation to this work, BASF has licensed many gene editing tools including CRISPR Cas9 and CRISPR Cpf1.

The BASF Plant Science subsidiary produces the Amflora and Starch Potato genetically modified potato with reduced amylose. In 2010 BASF conducted Department of Environment, Food and Rural Affairs approved trials of genetically modified potatoes in the United Kingdom. Starch Potato was authorised for use in USA in 2014. 

Other GM crops are Phytaseed Canola varieties with phytase, sulfonylurea herbicide tolerant soybean and drought tolerant corn (with cold shock protein B) developed with Monsanto.

Oil and gas

BASF explores for and produces oil and gas through its subsidiary Wintershall Holding AG. In Central and Eastern Europe, Wintershall works with its Russian partner Gazprom

Investors

75% of the BASF shares are held by institutional investors (BlackRock more than 5%). 36% of the shares are held in Germany, 11% in the UK and 17% in the U.S.

Production

Ludwigshafen production site at night.
 
BASF's recent success is characterized by a focus on creating resource efficient product lines after completely abandoning consumer products. This strategy was reflected in production by a re-focus towards integrated production sites. The largest such integrated production site is located in Ludwigshafen employing 33,000 people.

Integrated production sites are characterized by co-location of a large number of individual production lines (producing a specific chemical), which share an interconnected material flow. Piping is used ubiquitously for volume materials. All production lines use common raw material sourcing and feed back waste resources, which can be used elsewhere (e.g. steam of various temperatures, sulfuric acid, carbon monoxide). The economic incentive for this approach is high resource and energy efficiency of the overall process, reduced shipping cost and associated reduced risk of accidents. Due to the high cost of such an integrated production site, it establishes a high entry barrier for competitors trying to enter the market for volume chemicals. 

BASF built a new chemical complex in Dahej, Gujarat at a cost of $100 million. This facility has South Asia's first methylene diphenyl diisocyanate (MDI) splitter for processing crude MDI. BASF has 8 production facilities in India.

BASF SE has succeeded in developing a semi-crystalline polyamide that allows light to pass through largely unhindered. Ultramid Vision combines very high light transmission with low light scattering. This makes it the world's first semi-crystalline polyamide for semi-transparent or transparent components in chemically challenging environments. Additionally, the unique polyamide is UV and temperature resistant, scratch-proof as well as suitable for flame-retardant requirements. Ultramid Vision can be used in various application fields: It recommends itself especially for parts for visual check, illumination or light design. Ultramid Vision presents a versatile alternative to commonly used materials such as amorphous aliphatic polyamides, polycarbonate or styrene-acrylonitrile copolymers.

Environmental record

In 2006 BASF was included in the Climate Leadership Index for their efforts in relation to climate change and greenhouse gas emissions.

BASF has created filters for wastewater treatment plants that help to reduce emissions.

The BASF Company and Columbia University formed a partnership to further research “environmentally benign and sustainable energy sources”. The company has recently reported their emissions in 2006 to be “1.50 million metric tons of waste,” which is a decrease from previous years. The amount of waste BASF produces has continued to fall.

While BASF publishes its environmental information in the US and Europe, Greenpeace has expressed deep concerns at BASF's refusal to release environmental information on its operations in China.

In May 2009, a BASF Plant in Hannibal, Missouri, United States, accidentally discharged chromium into the Mississippi River. The local Department of Natural Resources performed tests in December 2009 showing the chromium levels did not exceed regulatory safety limits. BASF worked with the Missouri Department of Natural Resources (MoDNR) to resolve questions regarding the elevated level of hexavalent chromium that was detected in the effluent from one of its permitted outfalls into the Mississippi River. The state department of health reviewed the test results and determined that the amounts found were well below recommended public health screening levels.

In 2013, BASF reported a spill of several hundred kilograms of the chelating agent Trilon-B (tetrasodium EDTA) into the river Rhine from BASF's headquarters in Ludwigshafen, Germany.

Anarchism

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