Tag hydrocarbons

How Much Hydrocarbon Can You Fit in a 200-Liter Steel Drum?

Abstract: Hydrocarbons are organic compounds that are widely used as fuels, solvents, and raw materials. In this article, we will explain how to calculate how much hydrocarbon you can fit in a 200-liter steel drum, using four examples: n-pentane, n-heptane, cyclopentane, and isohexane. We will use their densities and a safety filling factor of 95% to account for possible expansion or contraction due to temperature or pressure changes.

Keywords: hydrocarbons, density, net weight, safety filling factor, steel drum

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Hydrocarbons are organic compounds that consist of only carbon and hydrogen atoms. They have different shapes and sizes, which affect their physical and chemical properties. Some hydrocarbons are straight chains, such as n-pentane and n-heptane. Some are rings, such as cyclopentane. Some have branches, such as isohexane. These hydrocarbons are widely used as fuels, solvents, and raw materials for various industries.

But how much hydrocarbon can you fit in a 200-liter steel drum? This is an important question for storing and transporting hydrocarbons safely and efficiently. To answer this question, we need to know two things: the density and the safety filling factor of the hydrocarbon.

The density of a substance is the mass per unit volume. It is usually expressed in grams per milliliter (g/mL) or kilograms per liter (kg/L). The density of a hydrocarbon depends on its molecular structure, temperature, and pressure. For this article, we will use the density values at 20°C and 1 atm, which are available from various sources¹²³⁴.

The safety filling factor is the percentage of the drum volume that can be safely filled with the hydrocarbon. We cannot fill the drum completely, because the hydrocarbon may expand or contract due to temperature or pressure changes. This could cause the drum to leak or burst, which could be dangerous and wasteful. Therefore, we need to leave some empty space in the drum to allow for possible expansion or contraction. For this article, we will use a safety filling factor of 95%, which means that we will fill the drum with 95% of its volume.

The net weight of a hydrocarbon in a drum is the mass of the hydrocarbon that fills the drum. To calculate the net weight, we need to multiply the volume of the drum by the density of the hydrocarbon and by the safety filling factor. The formula is:

$$W = V \times D \times F$$

where W is the net weight in kilograms (kg), V is the volume of the drum in liters (L), D is the density of the hydrocarbon in kilograms per liter (kg/L), and F is the safety filling factor as a decimal number (0.95).

The volume of a drum is the space that it occupies. It is usually expressed in liters (L) or cubic meters (m^3^). The volume of a drum depends on its shape and size. For this article, we will assume that the drum is cylindrical, with a height of 0.9 m and a diameter of 0.6 m. The volume of a cylindrical drum can be calculated by multiplying the area of the base by the height. The area of the base is the area of a circle, which can be calculated by multiplying pi (π) by the square of the radius. The radius is half of the diameter. Therefore, the volume of the drum is:

$$V = \pi r^2 h$$

$$V = \pi (0.3)^2 (0.9)$$

$$V = 0.254 m^3$$

$$V = 254 L$$

Now, we can calculate the net weight of each hydrocarbon in the drum, using the formula and the density values from the sources. The results are:

  • The net weight of n-pentane in the drum is:

$$W = 254 \times 0.626 \times 0.95$$

$$W = 150.7 kg$$

  • The net weight of n-heptane in the drum is:

$$W = 254 \times 0.679 \times 0.95$$

$$W = 164.1 kg$$

  • The net weight of cyclopentane in the drum is:

$$W = 254 \times 0.746 \times 0.95$$

$$W = 180.1 kg$$

  • The net weight of isohexane in the drum is:

$$W = 254 \times 0.659 \times 0.95$$

$$W = 159.1 kg$$

In conclusion, we have explained how to calculate how much hydrocarbon you can fit in a 200-liter steel drum, using four examples: n-pentane, n-heptane, cyclopentane, and isohexane. We have used their densities and a safety filling factor of 95% to account for possible expansion or contraction due to temperature or pressure changes. This article can help us understand how to store and transport hydrocarbons safely and efficiently.

Product Price Bulletin: Pentane and Other Hydrocarbons Unchanged on January 4, 2024

The prices of pentane and other hydrocarbons, such as n-hexane, isohexane, n-heptane, n-butane and isobutane, remained unchanged on January 4, 2024, according to Junyuan Petroleum Group. Pentane is a saturated hydrocarbon that has five carbon atoms and can exist in three isomers: n-pentane, isopentane and cyclopentane. Pentane is mainly used as a blowing agent for insulation materials, such as polyurethane and polystyrene foams. Pentane can also be used as a refrigerant, a solvent, a working medium in geothermal plants, and a process medium in the production of polyethylene and polypropylene. Pentane has a high performance and no measurable ozone depletion potential. The prices of pentane and other hydrocarbons are influenced by various factors, such as the supply and demand of crude oil and natural gas, the availability of pentane isomers, and the environmental regulations in different regions. Junyuan Petroleum Group is a leading chemical manufacturer, supplier and distributor of pentane and other hydrocarbons in China and abroad. The company is committed to science and technology and environmental protection industries.

What are the uses of petroleum ether?

What are the uses of petroleum ether? How many kinds of petroleum ethers are there?

There are several uses of petroleum ether:

1. It is mainly used as solvent and oil extraction.

2. Used as organic solvent and chromatographic analysis solvent; It is used as organic high-efficient solvent, pharmaceutical extractant, fine chemical synthesis assistant, etc; It can also be used in organic synthesis and chemical raw materials.

3. It is used for organic synthesis and chemical raw materials, such as synthetic rubber, plastic, nylon monomer, synthetic detergent, pesticide, etc. it is also a good organic solvent. It is mainly used as a solvent, as a foaming agent for foamed plastics, and as an extractant for drugs and essence.

Petroleum ether can be divided into three types according to the boiling points during preparation, which are 30-60 ℃, 60-90 ℃ and 90-120 ℃.

Petroleum ether 30-60 ℃ means that the initial boiling point of the distillate is not lower than 30 ℃ and the final boiling point is not higher than 60 ℃. By analogy, 30-60 petroleum ether is the most volatile, 60-90 is the second, and 90-120 is relatively less volatile.

Product Synonyms Specifications CAS No. EINECS: Applications
Petroleum Ether Light Petroleum, Petroleum Spirits, Ligroin, Light Oil, P-tolylmagnesium Bromide, Magnesium, Bromo 4-methylphenyl, Solvent for Fats, Solvent for Resins, essential oils, Hydrocarbons 61-76°C , 30-60 ℃, 60-90 ℃ and 90-120 ℃.
8032-32-4 232-453-7 laboratory solvents, solvent for extract of herbals,component in pharmaceutical manufacturing by helping to isolate beta-sitosterol, component of food additive E499, a thinner for varnish, paint and printing ink formulations, a glue remover

Petroleum Ether Storage Tank V406

Petroleum Ether, 61-76 °C

Visit our homepage Junyuanpetroleumgroup.com to find MSDS, related peer-reviewed papers, technical documents. We are providing an excellent quality array of Petroleum Ether to our prestigious clients.

Price Trend of Petroleum Ether in Recent Year in the China Market

Price Trend of Petroleum Ether in Recent Year in the China Market

Focusing on China’s petroleum ether market, the price of petroleum ether soared from less than 6,000 yuan / ton in August 2021 to more than 9,100 yuan / ton in mid February 2022, and then began to decline gradually. Until June 2022, the price of petroleum ether gradually stabilized and remained at about 8,000 yuan / ton. From June 2022 to August 2022, the price of petroleum ether began to fall, and the current price shows a downward trend. At present, the market supply of class I petroleum ether is in short supply, and the price remains around 8,200 yuan / ton.

Petroleum ether, a petroleum distillation fraction, is a mixture of low molecular weight aliphatic hydrocarbons (mostly pentanes and hexanes) with a low boiling range, typically around 30-60 ℃. It is mostly used by pharmaceutical companies and in the manufacturing process. Petroleum ether is a light, volatile, petroleum fraction predominantly composed of aliphatic hydrocarbons. Available in various quantities and reagent grades. Petroleum ether is one of these factions and is made out of aliphatic hydrocarbons. Specifically, it is the one that has a boiling point of 35 to 60 °C or 95 to 140 °F. Packaging: ISO Tank Container. Residue after Evaporation: 0.001% max. Saponification Value: 0.015mg KOH/g max. Specific Gravity: 0.630 to 0.660 (at 25°C).

Boiling Point: 90-100 °C
Common Name: petroleum ether
CAS Number: 8030-30-6
Density: 0.77 g/mL at 20 °C
Boiling Range: 36° to 60°C, Pass Test
Grade: I, II, III
Doctor Test: Pass Test Sweet/Fail
Physical Form: Liquid
Petroleum Ether
CAS Number: 8032-32-4
EC Number: 232-453-7

Petroleum Ether Storage Tank V406

Petroleum Ether, 61-76 °C

Visit our homepage Junyuanpetroleumgroup.com to find MSDS, related peer-reviewed papers, technical documents. We are providing an excellent quality array of Petroleum Ether to our prestigious clients.

Polyurethane (PU) Foam Projects in Progress

Report on completion of fire-fighting and halon sector plan

The ozone layer in the stratosphere can absorb majority of harmful ultraviolet rays and protect the earth’s organisms from harm. However, some man-made chemicals used extensively by human beings have seriously damaged the ozone layer, resulting in a large number of harmful ultraviolet rays directed at the earth, causing serious damage to the earth’s biological and ecological environment. These ozone-depleting chemicals are collectively referred to as ozone-depleting substances (ODS) by the scientific community. In order to protect the ozone layer and phase out ODS, the “Vienna Convention for the Protection of the Ozone Layer” (hereinafter referred to as the Convention) and the “Montreal Protocol on Substances that Deplete the Ozone Layer” (hereinafter referred to as the Protocol) were signed by the international community in 1985 and 1987 respectively. China acceded to the Convention and the Protocol in 1989 and 1991, respectively.

In accordance with the provisions of the Protocol, China’s fire-fighting sector needs to phase out Annex A, Group II Halon 1211 and Halon 1301. On 12th January 1993, Chinese Government approved the implementation of the “National Programme for the Phase-out of Ozone-depleting Substances in China “(hereinafter referred to as the National Programme) and, with the support of the Multilateral Fund, the ODS phase-out action began.

In order to ensure the progress of Halon elimination in the sector, China has carried out a lot of work in the early stage of halon elimination. Under the unified planning of the State Environmental Protection Administration (SEPA), the Ministry of Public Security (MPS) and the Fire Department held many exchanging meeting, did sufficient propaganda work, conducted a thorough investigation of the whole sector, conducted a series of seminars, studied the development strategy of alternatives, and organized many important activities such as Halon Elimination Strategy.

From 1993 to 1997, China implemented a series of Halon elimination projects with a total amount of 4.657 million US dollars, which played a certain role in the elimination of halons. However, the elimination methods of single projects have limitations as China’s complex and diversified sectors and rapid economic growth. At the “International Symposium on Sector Strategy of China’s ODS Elimination” held in Xi’an in June 1995, the concept of sector overall phase-out was first proposed. At the 17th Executive Committee meeting, the Executive Committee approved the project preparation fee of “further development of sector mechanism by the World Bank (hereinafter referred to as WB)”. WB applies for funds on behalf of the Chinese government for the development of sector-based elimination methods. The consumption of Halon 1211 and halon 1301 in China’s fire-fighting sector accounts for more than one third of the national ODS consumption, and the ODP value of Halon is larger. Therefore, the elimination of halons in fire-fighting sector is of great significance to the effective implementation of the National Program. The fire sector was chosen as a pilot for the overall elimination of the other sectors, and firefighting become the first sector in China that achieved overall phase-out.

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