What is Octanol
Analysts Sentiment
Bullish
27.4%
Neutral
20.5%
Bearish
52.1%
What's driving sentiment this week:
Past Week (2026-06-01 to 2026-06-07) — Sentiment: Bearish
OPEC+ raised July crude production quotas by 188,000 barrels per day on 2026-06-07, pressuring upstream energy costs and threatening feedstock price stability for naphtha-dependent oxo-alcohol synthesis.
US 2-Ethylhexanoic Acid prices declined 1.17% week-on-week in late May due to ample supply and weak downstream demand, directly damping 2-EH volumes from subdued buying in coatings and plasticizers.
Geopolitical risks from Hormuz disruptions limit the full bearish impact on energy feedstock costs but do not offset the overall downward pressure on margins.
This Week (2026-06-08 to 2026-06-14) — Outlook: Bearish
Downward momentum in 2-EH feedstock pricing and weakening end-use demand will continue to depress Octanol price and margin prospects through this week.
The key market catalyst remains tracking actual naphtha cost movements and OPEC+ output adherence as of mid-June (expected).
A sudden rebound in downstream demand or unplanned supply outages in oxo-alcohol producers would reverse the bearish outlook.
Key Market Impact
Current market action is dominated by weakening 2-EH demand and falling upstream feedstock cost support, driving pressure on Octanol prices and utilization rates.
Traders and buyers are likely deferring purchases amid margin compression while producers may reduce runs to limit inventories.
How About the Price?
Price Trajectory 2020–2026 (Brief Recap)
Phase 1 — Initial decline and disruption (2020): Geopolitical export bans in Southeast Asia and supply chain force majeure events reduced feedstock availability and production, with prices falling from $1205/ton in Jan 2020 to $1100/ton by June 2020.
Phase 2 — Gradual price erosion amid capacity additions and subdued demand (2020–2021): New Chinese 2-EH capacity expansions and pandemic-related demand weakness pressured prices down steadily to $925/ton by December 2021, despite some feedstock cost improvements.
Phase 3 — Continued pressure from export restrictions and capacity fluctuations (2022): Indonesian palm oil export bans and export levy hikes constrained natural octanol feedstock, but OQ Chemicals and Chinese capacity restarts stabilized supply; prices declined further to $805/ton by December 2022.
Phase 4 — Stabilization and mild recovery with balanced supply-demand (2023): Improved palm kernel oil yields, resumed factories, and steady construction-driven demand lifted prices slightly early 2023 but continued new capacity and geopolitical limits kept a generally downward trend to $685/ton by December 2023.
Phase 5 — Renewed force majeure and export levy effects with cautious optimism (2024): OQ Chemicals disruptions, Indonesia export levies, and expanded US capacity created mixed supply pressures offset by growing bio-based octanol demand, with prices decreasing to $625/ton by June 2024 and further to $565/ton by December.
Phase 6 — Supply expansion and demand growth balanced by volatility (2025–2026): New global capacity additions, increasing utilization especially in China and US, plus steady demand growth and feedstock cost volatility continued to push prices lower, reaching $385/ton by June 2026.
Supply-side factors
- Indonesia and Malaysia palm oil export bans and levy changes limiting natural octanol feedstock (2020–2024).
- Multiple force majeure declarations and lifts at German 2-EH producers OQ Chemicals and Oxea impacting synthetic octanol supply (2020, 2022, 2024).
- New capacity expansions in China including +50 kt/yr in 2020 and +60 kt/yr in 2023, raising regional operating rates to 75%-88%-78%.
- US 2-EH Bay City site capacity growth increasing supply by 20%-30% between 2024 and 2025.
- Supply chain disruptions causing port delays in Southeast Asia affecting logistics costs and availability (2020, 2023, 2024).
Demand-side factors
- COVID-19 pandemic driven decline in PVC plasticizer and construction demand in 2020 reducing 2-EH consumption.
- Rebounds in automotive, construction, and plasticizer demand from 2021 onward, with periodic 6%-10% month-on-month growth.
- Bio-based cosmetics and fragrance sector growth increasing demand for natural octanol esters (2021–2024).
- Seasonal and regulatory driven increases in demand for bio-based oleochemicals in Europe and Asia.
- Ongoing global push for biofuel mandates boosting bio-based octanol alternatives demand from 2020 to 2025.
Substitutes & Alternatives
| Substitute | Replacement Scenario / How It Substitutes |
|---|---|
| 2-Ethylhexanol (2-EH) | The most direct and commercially dominant substitute. Used in virtually the same plasticizer applications (e.g., production of DEHP/DOP and DOTP) where octanol is used to make dioctyl phthalate variants. 2-EH is a branched C8 alcohol produced by the oxo process from propylene and is often preferred due to lower cost and higher availability. Substitution is essentially drop-in at the esterification stage for plasticizer manufacture, though the resulting plasticizer has slightly different migration and low-temperature flexibility properties. |
| Isononanol (INA / C9 alcohol mixture) | Used as a substitute in plasticizer production, particularly for non-phthalate plasticizers such as DINP (diisononyl phthalate) and DINA. Replaces octanol when higher molecular weight plasticizers with improved permanence and lower volatility are desired. Requires reformulation of the plasticizer ester but is a well-established industrial alternative, especially in PVC applications requiring low-migration performance. |
| n-Decanol (1-Decanol) | Substitutes for octanol in lubricant additive synthesis, surfactant production, and ester plasticizers where a higher carbon number is acceptable or preferred. In surfactant applications (e.g., alcohol ethoxylates), decanol-based products offer lower aquatic toxicity and better biodegradability profiles. Substitution requires process adjustment due to higher boiling point and viscosity but is technically straightforward. |
| n-Hexanol (1-Hexanol) | Can substitute for octanol in solvent applications, fragrance/flavor intermediates, and some ester synthesis where a shorter-chain alcohol is acceptable. In pharmaceutical and analytical uses (e.g., as a reference solvent or extraction medium), hexanol is sometimes used when the specific log Kow of octanol is not required. Partial substitution in surfactant blends is feasible but alters HLB and foam characteristics. |
| Fatty alcohols from natural sources (e.g., coconut-derived C8 alcohol / caprylic alcohol) | Bio-based 1-octanol derived from reduction of caprylic acid (C8 fatty acid from coconut or palm kernel oil) can substitute directly for synthetic oxo-process octanol in all applications, including plasticizers, surfactants, and pharmaceuticals. It is a drop-in replacement chemically identical to synthetic octanol. Preferred in applications requiring bio-based or natural certification (cosmetics, food-contact materials). Cost and availability are more variable than petrochemical octanol. |
| Isodecanol (C10 branched alcohol) | Substitutes for octanol in the production of acrylate and methacrylate esters used as monomers for adhesives and coatings. Isodecyl acrylate/methacrylate offers lower glass transition temperature and improved flexibility compared to octyl acrylate. Substitution requires reformulation of the monomer blend and adjustment of polymerization conditions but is practiced industrially. |
Regulatory Status
| Region | Regulation / Policy Name | Issuing Authority | Year (enacted or latest revision) | Key Requirement / Threshold | Source |
|---|---|---|---|---|---|
| United States | TSCA - Toxic Substances Control Act | US EPA | 1976 (as amended) | Substance listed as ACTIVE under TSCA | EPA Chemicals under the TSCA |
| United States | 21 CFR 172.230 - Food additives permitted for direct addition to food for human consumption | US FDA | 2015 | Exemption from tolerance requirement for residues of the biochemical pesticide 1-octanol in or on root and tuber vegetables; used in microcapsules for flavoring substances | Federal Register (2015-05-06); FDA |
| European Union | REACH Regulation (EC) No 1907/2006 (amended by 2020/878/EU) | ECHA | 2006 (amended 2020) | Registered substance (EC No 203-917-6); no specific numerical threshold or restriction identified | ECHA REACH database; Carl Roth Safety Data Sheet |
| European Union | CLP Regulation (EC) No 1272/2008 | ECHA | 2008 (as amended) | Classification: Eye Irrit. 2 (H319); Aquatic Chronic 3 (H412) | CLP Regulation; Carl Roth Safety Data Sheet |
| International | UN Recommendations on the Transport of Dangerous Goods | UN | 2025 (current edition) | UN number: 1993 (Combustible liquid, n.o.s. (octan-1-ol)); Hazard class: 3; Packing group: III | UN Model Regulations; ICSC 1030 (August 2002) |
| United States | HTS Code 290516.00 - Octanol (Octyl alcohol) and isomers thereof | US Customs and Border Protection (CBP) | Current (as of 2026) | General duty rate: 3.7% | USITC HTS; Flexport tariff data |
Key Influence Events
Octanol (also known as 1-octanol or n-octanol) is a straight-chain, eight-carbon primary aliphatic alcohol with the molecular formula C8H17OH and CAS number 111-87-5. It is a colorless, oily liquid with a mild, fatty-floral odor, slightly soluble in water but miscible with most organic solvents. Commercially, octanol is produced predominantly via the oxo process (hydroformylation) of heptene fractions derived from propylene oligomerization, followed by hydrogenation of the resulting aldehyde intermediate. It is widely used as a plasticizer alcohol (notably in the production of dioctyl phthalate and other phthalate/non-phthalate plasticizers), as a solvent, as a chemical intermediate for surfactants and lubricant additives, and as a reference compound in the octanol-water partition coefficient (log Kow) used in environmental and pharmaceutical sciences.
Top Countries Production Capacity
Production Process of Octanol
Octanol (also known as 1-octanol or n-octanol) is a straight-chain, eight-carbon primary aliphatic alcohol with the molecular formula C8H17OH and CAS number 111-87-5. It is a colorless, oily liquid with a mild, fatty-floral odor, slightly soluble in water but miscible with most organic solvents. Commercially, octanol is produced predominantly via the oxo process (hydroformylation) of heptene fractions derived from propylene oligomerization, followed by hydrogenation of the resulting aldehyde intermediate. It is widely used as a plasticizer alcohol (notably in the production of dioctyl phthalate and other phthalate/non-phthalate plasticizers), as a solvent, as a chemical intermediate for surfactants and lubricant additives, and as a reference compound in the octanol-water partition coefficient (log Kow) used in environmental and pharmaceutical sciences.
Specs & Grades
| Property | Typical Value / Range | Unit | Grade / Note |
|---|---|---|---|
| Purity (1-Octanol content) | ≥99.0 | wt% | Technical / Plasticizer grade |
| Purity (1-Octanol content) | ≥99.5 | wt% | High-purity / Reagent grade |
| Color (APHA/Hazen) | ≤10 | APHA | Plasticizer grade |
| Color (APHA/Hazen) | ≤5 | APHA | High-purity grade |
| Acid value | ≤0.05 | mg KOH/g | All commercial grades |
| Water content (Karl Fischer) | ≤0.05 | wt% | All commercial grades |
| Density at 20°C | 0.824 – 0.826 | g/cm³ | All grades |
| Boiling point (at 1 atm) | 195 – 196 | °C | Physical constant |
| Flash point (closed cup) | 81 | °C | Physical constant |
| Refractive index (nD20) | 1.429 – 1.431 | — | All grades |
| Aldehydes (as octanal) | ≤0.05 | wt% | Plasticizer / High-purity grade |
| 2-Octanol (isomer) | ≤0.3 | wt% | Technical grade |
| 2-Ethylhexanol (isomer) | ≤0.5 | wt% | Technical grade |
Who are the Top Players?
| Company | Headquarters | Key Facilities |
|---|---|---|
| BASF SE | Ludwigshafen, Germany | Ludwigshafen, Germany, Antwerp, Belgium, Geismar, Louisiana, USA, Freeport, Texas, USA, Zhanjiang, China |
| Dow Chemical | Midland, Michigan, USA | Freeport, Texas, USA, Geismar, Louisiana, USA |
| Eastman Chemical Company | Kingsport, Tennessee, USA | Longview, Texas, USA |
| Oxea GmbH | Witten, Germany | Bay City, Texas, USA |
| Luxi Chemical | Liaocheng, Shandong, China |
Our Analysis are Happy
"Global volatility doesn't have to be a risk for your business. We monitor feedstock shifts and geopolitical trends daily to help you anticipate price movements before they hit the market."
Theo James
"Data is only as good as its source. We go beyond the numbers to ensure that the product grade you select matches your specific application, reducing waste and optimizing your operational efficiency."
Emilia Munro
"Timing is everything in petrochemical procurement. Our goal is to align your purchasing cycles with market troughs, effectively lowering your cost basis and maximizing your margins."
Branden Griffiths
we’re here to all your questions
Everything you need to know about our market analysis, product quality, and procurement process.
How much for a custom market analysis?
Costs vary based on the scope. Please contact our sales team for a custom quote.
Do you offer trade credit or bulk pricing?
Yes, we offer flexible payment terms and volume-based pricing for corporate accounts.
Do you provide product quality documentation?
Yes, every delivery includes a Certificate of Analysis (COA) and safety documentation (MSDS).
Can you help me select the right product specification?
Certainly. Our technical experts are available to guide you to the ideal grade for your specific application.