Surreal illustration of chemical reactors intertwined with green foliage, representing sustainable surfactant production.

Revolutionizing Surfactant Production: Promising New Technologies Emerge

"From BASF's expansions to innovative bio-routes, the future of surfactant manufacturing is looking greener and more efficient."


The surfactant industry is on the cusp of significant transformation, driven by the need for greater efficiency, sustainability, and cost-effectiveness. Recent developments highlight promising new routes for surfactant production, ranging from capacity expansions at major chemical companies to the adoption of innovative technologies and bio-derived materials.

BASF's consideration of a 'significant capacity expansion' at its integrated ethylene oxide (EO) complex in Antwerp, Belgium, signals a major potential shift in the European surfactant landscape. This expansion, if approved, would not only increase EO production but also boost the output of various downstream derivatives, including key surfactants, to meet growing demand.

Beyond large-scale expansions, groundbreaking advancements are also emerging in process technology and bio-derived alternatives. A collaborative project in the UK has successfully developed a novel continuous oscillating baffle reactor (COBR) technology for surfactant manufacturing, promising higher energy efficiency and faster reaction times. Simultaneously, innovative bio-routes to glycidol, a key surfactant precursor, are being pioneered, offering the potential for fully bio-derived and highly biodegradable surfactants.

Continuous Reactor Technology: A Leap Towards Efficiency

Surreal illustration of chemical reactors intertwined with green foliage, representing sustainable surfactant production.

A consortium involving the Centre for Process Innovation (CPI), Croda International, NiTech Solutions, and the University of Cambridge's Institute for Manufacturing has successfully concluded a two-year project focused on developing a new process for manufacturing surfactants. This project centers around NiTech's continuous oscillating baffle reactor (COBR) technology, which offers a modular unit design. This design contrasts sharply with traditional large, stirred batch reactors, promising significantly higher energy efficiency and faster reaction times.

The project's core objective was to evaluate the technical viability and commercial scalability of the COBR technology through industrial-scale testing at one of Croda's UK surfactant manufacturing sites. The results indicate that the COBR technology-based process is considerably more compact than established batch processes without compromising product quality.

  • Significantly higher energy efficiency.
  • Faster reaction times.
  • More compact design.
  • Comparable product quality to traditional methods.
Dr. Will Barton, director at NiTech Solutions, expresses confidence that the COBR technology can operate at full commercial scale and offer great cost benefits for clients. Mark Robinson, managing director, operations Croda Europe, describes the collaborative project as 'hugely exciting,' adding that Croda is eager to continue discovering the benefits of this 'innovative and sustainable' technology for the company and its customers.

Bio-Derived Glycidol: A Sustainable Alternative

Green Lizard Technologies (GLT), a Belfast-based start-up, and Dixie Chemical, a US firm, have entered into a joint development agreement with AkzoNobel Specialty Chemicals. This collaboration focuses on developing a cost-effective route to bio-derived glycidol (2,3-epoxy-1-propanol), a versatile building block for nonionic surfactants.

The GLT-Dixie partnership was recognized as one of the winners in AkzoNobel's 2018 global Imagine Chemistry challenge. GLT's innovative glycidol process, initially developed as a spin-off from Queen's University Belfast, utilizes oil palm derivatives as a starting material, aligning with the growing demand for sustainable and renewable resources.

With a pilot unit already operational, producing glycidol at a scale of 50 kg/day, and a completed conceptual process design for a 10,000 tonnes/y plant, GLT aims to significantly reduce the total production cost of glycidol. This cost reduction is expected to unlock its potential for high-volume applications, particularly in the surfactant industry, paving the way for fully bio-derived and highly biodegradable alternatives.

About this Article -

This article was crafted using a human-AI hybrid and collaborative approach. AI assisted our team with initial drafting, research insights, identifying key questions, and image generation. Our human editors guided topic selection, defined the angle, structured the content, ensured factual accuracy and relevance, refined the tone, and conducted thorough editing to deliver helpful, high-quality information.See our About page for more information.

This article is based on research published under:

DOI-LINK: 10.1016/j.fos.2018.09.001, Alternate LINK

Title: Glimpses Of The Future – Promising New Routes For Surfactants Production

Subject: General Medicine

Journal: Focus on Surfactants

Publisher: Elsevier BV

Authors: Caroline Edser

Published: 2018-09-01

Everything You Need To Know

1

What is BASF planning in Antwerp, and how does it affect surfactant production?

BASF is considering a 'significant capacity expansion' at its ethylene oxide (EO) complex in Antwerp, Belgium. This expansion aims to increase EO production and the output of downstream derivatives, including key surfactants. This move is designed to meet growing demand in the European surfactant market. While this is under consideration, the article does not provide further details on specific timelines or investment amounts.

2

What is continuous oscillating baffle reactor (COBR) technology, and what advantages does it offer over traditional surfactant manufacturing methods?

The continuous oscillating baffle reactor (COBR) technology, developed by NiTech Solutions and tested in collaboration with CPI, Croda International, and the University of Cambridge, offers several advantages. It delivers higher energy efficiency, faster reaction times, a more compact design, and comparable product quality to traditional batch methods. Dr. Will Barton of NiTech Solutions believes that the COBR technology can operate at full commercial scale, offering cost benefits. It achieves efficiency and speed in manufacturing, as Mark Robinson from Croda Europe mentioned, making it a more innovative and sustainable technology.

3

How is bio-derived glycidol being developed, and what role does it play in creating more sustainable surfactants?

Green Lizard Technologies (GLT) and Dixie Chemical are collaborating with AkzoNobel Specialty Chemicals to develop a cost-effective route to bio-derived glycidol (2,3-epoxy-1-propanol). This bio-derived glycidol can be used as a versatile building block for nonionic surfactants, offering a sustainable alternative to traditional, petroleum-based glycidol. The use of bio-derived glycidol in surfactant production reduces the reliance on fossil fuels and offers a pathway towards fully bio-derived and biodegradable surfactants.

4

What are the benefits of using bio-derived glycidol in surfactant production?

The primary benefits of using bio-derived glycidol in surfactant production include increased sustainability and reduced environmental impact. Bio-derived glycidol, such as that developed by Green Lizard Technologies (GLT) and Dixie Chemical in collaboration with AkzoNobel Specialty Chemicals, offers a renewable alternative to traditional, petroleum-based glycidol. This shift can lead to the creation of fully bio-derived and highly biodegradable surfactants, aligning with the growing demand for eco-friendly products. However, the text does not detail the specific environmental impact assessment.

5

What is the future potential of continuous oscillating baffle reactor (COBR) technology for the surfactant industry, and what impact could it have on manufacturing processes?

The continuous oscillating baffle reactor (COBR) technology's potential lies in its ability to significantly improve the efficiency and sustainability of surfactant manufacturing. By offering higher energy efficiency, faster reaction times, and a more compact design, COBR technology can reduce production costs and environmental impact compared to traditional batch processes. If the COBR technology can be successfully scaled and implemented across the industry, it could become a standard in surfactant manufacturing, driving greater resource efficiency and reducing the carbon footprint. Continuous reactors are typically difficult to clean. This impacts how quickly one can transition to other products. The article does not specify if the continuous oscillating baffle reactor has addressed this issue.

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