Honeywell UOP

Last updated
Honeywell UOP
Company type Subsidiary
Industry Engineering
PredecessorUniversal Oil Products
National Hydrocarbon Company
Founded1914;110 years ago (1914)
Headquarters,
United States
Number of locations
25 Locations
Key people
Ken West (President)
ProductsCatalysts
Adsorbents
Process Technology
Parent Honeywell
Website www.uop.com

Honeywell UOP, formerly known as UOP LLC or Universal Oil Products, is an American multi-national company developing and delivering technology to the petroleum refining, gas processing, petrochemical production, and major manufacturing industries.

Contents

The company's roots date back to 1914, when the revolutionary Dubbs thermal cracking process created the technological foundation for today's modern refining industry.[ citation needed ] In the ensuing decades, UOP engineers generated thousands of patents, leading to important advances in process technology, profitability consultation, and equipment design. [1]

History

UOP was founded in 1914 to exploit the market potential of patents held by inventors Jesse A. Dubbs and his son, Carbon Petroleum (C. P.) Dubbs. Perhaps because he was born in Pennsylvania oil country, Jesse Dubbs was enamored with the oil business. He even named his son Carbon after one of the elemental constituents of oil. Later, Carbon added the P. to make his name "euphonious," he said. People started calling him "Petroleum" for fun, and the name stuck. C. P.'s son and grandson were also named Carbon, but each had a different middle initial. [2] [3]

When founded in 1914 it was a privately held firm known as the National Hydrocarbon Company. J. Ogden Armour provided initial seed money and kept the firm going the first years it lost money. [4] [3] Most of the losses were incurred during lengthy legal battles with petroleum firms that were using technology patented by Dubbs.[ citation needed ]

In 1919 the firm's name became Universal Oil Products.[ citation needed ]

By 1931, petroleum firms saw a possible competitive advantage to owning UOP. A consortium of firms banded together to purchase the firm. These firms were Shell Oil Company, Standard Oil Company of California, Standard Oil Company of Indiana, Standard Oil Company of New Jersey, The Texas Company, and N. V. de Bataafsche Petroleum Maatschappij. This worried oil firms that were not part of the group and it helped prompt the Justice Department to begin an investigation of this arrangement as a possible violation of antitrust laws.[ citation needed ]

The oil firms placed the assets of UOP into a trust to support the American Chemical Society (ACS). In 1959 UOP went public and the income from that sale still provides monies to ACS to administer grants to universities worldwide. [2]

In the 1970s UOP was acquired by The Signal Companies, which merged with Allied Corporation in 1985, becoming AlliedSignal. [5]

In August 1988 Union Carbide Corporation and AlliedSignal formed a joint venture combining the latter's wholly owned subsidiary, UOP Inc., and the Catalyst, Adsorbents and Process Systems (CAPS) business of Union Carbide.

AlliedSignal acquired Honeywell in 1999 and assumed the latter's name. In 2005, what was now known as Honeywell acquired Union Carbide's stake in UOP, making it again a wholly owned subsidiary. The reported payment to Union Carbide was $835 million, valuing UOP at $1.6 billion. [6]

Facilities

A Honeywell refinery producing green diesel from natural oils in Pasadena, Texas. Honeywell green fuel refinery in Pasadena, Texas.jpg
A Honeywell refinery producing green diesel from natural oils in Pasadena, Texas.

The UOP Riverside research and development laboratory in McCook, Illinois was conceived in 1921 by Hiram J. Halle, the chief executive officer of Universal Oil Products (now simply UOP), as a focal point where the best and brightest scientists could create new products and provide scientific support for the oil refining industry. Between 1921 and 1955, Riverside research resulted in 8,790 U.S. and foreign patents and provided the foundation on which UOP built its success. [2]

The company benefited immensely by the addition to its research staff of Professor Vladimir Ipatieff, famous Russian scientist known internationally for his work in high-pressure catalysis. His contribution in catalytic chemistry gave UOP a position of leadership in the development of catalysis as applied to petroleum processing, the first being catalytic polymerization. Vladimir Haensel, a student of Ipatieff’s, joined UOP and developed Platforming in the 1950s. This process used very small amounts of platinum as a catalyst for the high yield of high-octane gasoline from petroleum-based feeds. [7]

In 1963 Universal Oil Products purchased a chemical plant in East Rutherford, New Jersey. The plant was used for solvent recovery operations from waste chemicals. Operations ended in 1979, and ownership of the site was retained by Honeywell. Some of the chemical operations had contaminated adjacent soils, groundwater and waterways in the New Jersey Meadowlands. The New Jersey Department of Environmental Protection and the U.S. Environmental Protection Agency (EPA) ordered cleanup of the plant site, and in 1983 EPA designated the plant as a Superfund site. Honeywell signed agreements and orders to cooperate with EPA in the cleanup operations. As of 2023, several stages of the cleanup have been completed. Remediation of the adjoining wetlands and plans for long-term site maintenance are pending. [5]

The Riverside facility was recognized as a National Historic Chemical Landmark by the American Chemical Society in 1995. [2]

Technologies

Adsorption separation technology

Distillation is the most common way to separate chemicals with different boiling points. The greater the difference in boiling points, the easier it is to do. However, when boiling points are too similar, this isn't feasible. Adsorption separation might be possible. In adsorption separation, a mixture of chemicals flows past a porous solid called the adsorbent and some chemicals tend to "hang out" longer. A valid analogy is to imagine a busy street with people walking in the same direction past great places to eat. The hungriest people will tend to stop right away. The people that were pretty full will make it far down the street. Now imagine flooding the whole town with water and everyone runs out where you can collect them according to how hungry they were. In technical terms the liquid flush is called the desorbent.

This type of separation was first commonly used in the laboratory to separate small test samples. UOP pioneered a method of separating large volumes of chemicals. They call the counter-current embodiment of it the Sorbex family of processes. [8] These are the major ones designed by UOP:

Parex: separation of para-xylene from a mixture of xylene isomers
MX Sorbex: separation of meta-xylene from a mixed of xylene isomers
Molex: linear paraffins from branched and cyclic hydrocarbons
Olex: olefins from paraffins
Cresex: para-cresol or meta-cresol from other cresol isomers
Cymex: para-cymene or meta-cymene from other cymene isomers
Sarex: fructose from mixed sugars

Renewable fuels technology

In 2008, UOP revealed its Ecofining process which takes vegetable oils, or lipids, and converts them into replacements for diesel and jet fuels. The resultant fuels from this refining process are indistinguishable from existing fossil-based petro-diesels and jet fuels. [9]

Catalytic converter

Most of UOP's work is not known to the general public since most applications are within refineries and petrochemical plants. However, one technology UOP helped develop is familiar to automobile owners. During the 1970s, UOP worked on pioneering a combined muffler catalytic converter. To help publicize their work they sponsored CanAm and Formula One teams. The race cars used were developed by Shadow Racing Cars. Many race fans were drawn to the team's innovative designs and underdog status. UOP finally achieved a goal when California adopted the catalytic converter after the UOP governmental relations rep, Donald Gazzaniga, helped push legislation through the state Senate and Assembly. [10]

See also

Related Research Articles

<span class="mw-page-title-main">Catalysis</span> Process of increasing the rate of a chemical reaction

Catalysis is the increase in rate of a chemical reaction due to an added substance known as a catalyst. Catalysts are not consumed by the reaction and remain unchanged after it. If the reaction is rapid and the catalyst recycles quickly, very small amounts of catalyst often suffice; mixing, surface area, and temperature are important factors in reaction rate. Catalysts generally react with one or more reactants to form intermediates that subsequently give the final reaction product, in the process of regenerating the catalyst.

<span class="mw-page-title-main">Petrochemical</span> Chemical product derived from petroleum

Petrochemicals are the chemical products obtained from petroleum by refining. Some chemical compounds made from petroleum are also obtained from other fossil fuels, such as coal or natural gas, or renewable sources such as maize, palm fruit or sugar cane.

<span class="mw-page-title-main">Xylene</span> Organic compounds with the formula (CH3)2C6H4

In organic chemistry, xylene or xylol are any of three organic compounds with the formula (CH3)2C6H4. They are derived from the substitution of two hydrogen atoms with methyl groups in a benzene ring; which hydrogens are substituted determines which of three structural isomers results. It is a colorless, flammable, slightly greasy liquid of great industrial value.

<span class="mw-page-title-main">Oil refinery</span> Facility that processes crude oil

An oil refinery or petroleum refinery is an industrial process plant where petroleum is transformed and refined into useful products such as gasoline (petrol), diesel fuel, asphalt base, fuel oils, heating oil, kerosene, liquefied petroleum gas and petroleum naphtha. Petrochemical feedstock like ethylene and propylene can also be produced directly by cracking crude oil without the need of using refined products of crude oil such as naphtha. The crude oil feedstock has typically been processed by an oil production plant. There is usually an oil depot at or near an oil refinery for the storage of incoming crude oil feedstock as well as bulk liquid products. In 2020, the total capacity of global refineries for crude oil was about 101.2 million barrels per day.

<span class="mw-page-title-main">Cracking (chemistry)</span> Process whereby complex organic molecules are broken down into simpler molecules

In petrochemistry, petroleum geology and organic chemistry, cracking is the process whereby complex organic molecules such as kerogens or long-chain hydrocarbons are broken down into simpler molecules such as light hydrocarbons, by the breaking of carbon-carbon bonds in the precursors. The rate of cracking and the end products are strongly dependent on the temperature and presence of catalysts. Cracking is the breakdown of large hydrocarbons into smaller, more useful alkanes and alkenes. Simply put, hydrocarbon cracking is the process of breaking a long chain hydrocarbon into short ones. This process requires high temperatures.

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

Vladimir Nikolayevich Ipatieff, also Ipatyev was a Russian and American chemist. His most important contributions are in the field of petroleum chemistry and catalysts.

Butene, also known as butylene, is an alkene with the formula C4H8. The word butene may refer to any of the individual compounds. They are colourless gases that are present in crude oil as a minor constituent in quantities that are too small for viable extraction. Butene is therefore obtained by catalytic cracking of long-chain hydrocarbons left during refining of crude oil. Cracking produces a mixture of products, and the butene is extracted from this by fractional distillation.

<span class="mw-page-title-main">Catalytic reforming</span> Chemical process used in oil refining

Catalytic reforming is a chemical process used to convert petroleum refinery naphthas distilled from crude oil into high-octane liquid products called reformates, which are premium blending stocks for high-octane gasoline. The process converts low-octane linear hydrocarbons (paraffins) into branched alkanes (isoparaffins) and cyclic naphthenes, which are then partially dehydrogenated to produce high-octane aromatic hydrocarbons. The dehydrogenation also produces significant amounts of byproduct hydrogen gas, which is fed into other refinery processes such as hydrocracking. A side reaction is hydrogenolysis, which produces light hydrocarbons of lower value, such as methane, ethane, propane and butanes.

<i>p</i>-Xylene Chemical compound

p-Xylene (para-xylene) is an aromatic hydrocarbon. It is one of the three isomers of dimethylbenzene known collectively as xylenes. The p- stands for para-, indicating that the two methyl groups in p-xylene occupy the diametrically opposite substituent positions 1 and 4. It is in the positions of the two methyl groups, their arene substitution pattern, that it differs from the other isomers, o-xylene and m-xylene. All have the same chemical formula C6H4(CH3)2. All xylene isomers are colorless and highly flammable. The odor threshold of p-xylene is 0.62 parts per million (ppm).

<i>m</i>-Xylene Chemical compound

m-Xylene (meta-xylene) is an aromatic hydrocarbon. It is one of the three isomers of dimethylbenzene known collectively as xylenes. The m- stands for meta-, indicating that the two methyl groups in m-xylene occupy positions 1 and 3 on a benzene ring. It is in the positions of the two methyl groups, their arene substitution pattern, that it differs from the other isomers, o-xylene and p-xylene. All have the same chemical formula C6H4(CH3)2. All xylene isomers are colorless and highly flammable.

<span class="mw-page-title-main">Fluid catalytic cracking</span> Petroleum conversion process

Fluid Catalytic Cracking (FCC) is the conversion process used in petroleum refineries to convert the high-boiling point, high-molecular weight hydrocarbon fractions of petroleum into gasoline, alkene gases, and other petroleum products. The cracking of petroleum hydrocarbons was originally done by thermal cracking, now virtually replaced by catalytic cracking, which yields greater volumes of high octane rating gasoline; and produces by-product gases, with more carbon-carbon double bonds, that are of greater economic value than the gases produced by thermal cracking.

<span class="mw-page-title-main">Hydrodesulfurization</span> Chemical process used to remove sulfur in natural gas and oil refining

Hydrodesulfurization (HDS), also called hydrotreatment or hydrotreating, is a catalytic chemical process widely used to remove sulfur (S) from natural gas and from refined petroleum products, such as gasoline or petrol, jet fuel, kerosene, diesel fuel, and fuel oils. The purpose of removing the sulfur, and creating products such as ultra-low-sulfur diesel, is to reduce the sulfur dioxide emissions that result from using those fuels in automotive vehicles, aircraft, railroad locomotives, ships, gas or oil burning power plants, residential and industrial furnaces, and other forms of fuel combustion.

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

Visakhapatnam Refinery, is one of the two oil refineries of HPCL in India, the other being Mumbai Refinery. This was one of the first major industries of Visakhapatnam and first oil refinery on the East Coast. After the nationalisation, HPCL has transformed itself into a mega Public Sector Undertaking and it is second largest integrated oil company in India.

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

The Penex process is a continuous catalytic process used in the refining of crude oil. It isomerizes light naphtha (C5/C6) into higher-octane, branched C5/C6 molecules. It also reduces the concentration of benzene in the gasoline pool. It was first used commercially in 1958. Ideally, the isomerization catalyst converts normal pentane (nC5) to isopentane (iC5) and normal hexane (nC6) to 2,2- and 2,3-dimethylbutane. The thermodynamic equilibrium is more favorable at low temperature.

<span class="mw-page-title-main">Indian Institute of Petroleum</span>

The Indian Institute of Petroleum (IIP), established in 1960, is one of the 37 constituent laboratories of the Council of Scientific and Industrial Research (CSIR), dedicated to R&D in the hydrocarbon sector.

<span class="mw-page-title-main">Edith M. Flanigen</span> American chemist

Edith Marie Flanigen is a noted American chemist, known for her work on synthesis of emeralds, and later zeolites for molecular sieves at Union Carbide.

<span class="mw-page-title-main">BTX (chemistry)</span> Mixtures of benzene, toluene, and the three xylene isomers

In the petroleum refining and petrochemical industries, the initialism BTX refers to mixtures of benzene, toluene, and the three xylene isomers, all of which are aromatic hydrocarbons. The xylene isomers are distinguished by the designations ortho –, meta –, and para – as indicated in the adjacent diagram. If ethylbenzene is included, the mixture is sometimes referred to as BTEX.

Gustav Egloff (1886–1955) was an American chemist nicknamed Gasoline Gus. He was Universal Oil Products' first chemist and by 1917 became their director, serving in that capacity until death. Science magazine described him as a "human catalyst".

Herman Pines was a Russian Empire-born American chemist. Born in Łódź—then part of the Russian Empire—he left his hometown as a young man as Jewish quotas and other anti-Jewish practices prevented Jewish students from attending university. After earning a degree in chemical engineering at the École Supérieure de Chimie Industrielle de Lyon in France, he worked at Universal Oil Products from 1930 to 1952. Pines also worked at Northwestern University beginning in 1941, and served from 1953–1970 as the Ipatieff Research Professor of Chemistry and director of the Ipatieff High Pressure and Catalytic Laboratory.

The Dangote Refinery is an oil refinery owned by Dangote Group that was inaugurated on the 22nd of May 2023 in Lekki, Nigeria. When in full operation, it is expected to have the capacity to process about 650,000 barrels per day of crude oil, making it the largest single-train refinery in the world. The investment is over 19 billion US dollars.

References

  1. "Universal Oil Products". Archived from the original on 2009-08-17. Retrieved 2009-09-21.
  2. 1 2 3 4 "Universal Oil Products (UOP) Riverside Laboratory". American Chemical Society . Retrieved April 27, 2012.
  3. 1 2 "Founding Years". UOP. Retrieved September 28, 2017.
  4. http://www.abcolby.com/ A.B. Colby, Inc., UOP distributor
  5. 1 2 "Universal Oil Products (Chemical Division), East Rutherford, NJ; Cleanup Activities". Superfund. New York, NY: U.S. Environmental Protection Agency (EPA). 2023-04-04.
  6. "Honeywell to acquire remaining stake in UOP LLC Joint Venture". Arlington, VA: National Electrical Manufacturers Association. Retrieved 2012-01-29.
  7. "A history of industrial catalysis 2010, Author Nicholas Nicholas". Ebah.com.br. Retrieved 2012-01-29.
  8. "UOP Sorbex family of technologies, Author James Johnson". Chemeng-processing.blogspot.com. 2009-02-21. Retrieved 2012-01-29.
  9. "UOP/Eni Ecofining Process for Green Diesel Fuel" . Retrieved 2009-12-27.
  10. UOP