From the Sector

• ADNOC and Borealis confirm final investment agreement to build Borouge 4 in Ruwais, United Arab Emirates (UAE), which will produce 1.4 million tons of polyethylene per annum
• Expansion project includes construction of a 1.5 million tonnes ethane cracker, two state-of-the-art Borstar® polyethylene plants and a cross-linked polyethylene plant
• Borouge 4 will meet growing customer demand across the Middle East, Africa and Asia with differentiated polyolefin solutions in energy, infrastructure, and advanced packaging
• New facility will benefit from industry-leading technologies to significantly improve energy efficiency and lower emissions, with carbon capture study underway
• Upon expansion, Borouge will be the world's largest single-site polyolefin complex and will supply feedstock to TA'ZIZ Industrial Chemicals Zone Body

ADNOC and Borealis AG signed an USD 6.2 billion investment agreement to build the fourth Borouge facility – Borouge 4 – at the polyolefin manufacturing complex in Ruwais, United Arab Emirates (UAE).

The world-scale expansion confirms both partners’ commitment to the growth of Borouge and to support chemical production, and advanced manufacturing and industry in Ruwais, a key pillar of Abu Dhabi and the UAE’s technology, innovation and industrial development strategy. Borouge produces crucial industrial raw materials, which are exported to customers globally and used by local companies, boosting local industrial supply chains and enhancing In-Country Value.

Borouge 4 will capitalize on the projected growth in customer demand for polyolefins, driven by their use in manufactured products in the Middle East, Africa and Asia. The facility will also enable the next phase of growth at the Ruwais Industrial Complex by supplying feedstock to the TA’ZIZ Industrial Chemicals Zone.

Borouge 4 will have an industry-leading focus on sustainability leveraging the capabilities of both shareholders. The facility will utilize Borealis’ proprietary Borstar technology, to produce a product portfolio focused on durable applications for energy, infrastructure, advanced packaging, and agriculture sectors. This unique technology, in combination with hexene co-monomer, will enable the production of advanced packaging grades with up to 50% recycled polyethylene content.

Subject to an in-depth study, a Carbon Capture unit that would reduce CO2 emissions by 80% could also be operational in time for Borouge 4’s start-up. The facility is also designed to capitalize on ADNOC’s recent initiatives on clean energy, decarbonizing its power supply through access to Abu Dhabi’s clean power sources. These initiatives are aligned with the UAE Net Zero by 2050 Strategic Initiative.

The first Borouge facility, producing 450,000 tons of polyethylene per annum was commissioned in 2001. Borouge 2 and Borouge 3 took capacity to 2 million tons and 4.5 million tons of polyethylene and polypropylene per annum in 2010 and 2014 respectively.  Borouge 4 will boost the company’s annual polyolefin production to 6.4 million tons, making Borouge one of the world’s largest single-site polyolefin facilities.

The new Borouge 4 facility will comprise:

• An ethane cracker, with 1.5 million tons ethylene output per annum, which will be the fourth cracker in Borouge’s integrated petrochemical complex in Ruwais
• Two additional Borstar® polyethylene (PE) plants, each with 700 thousand tons per annum capacity, using state-of-the-art Borealis Borstar third generation (3G) technology
• A cross-linked PE (XLPE) plant of 100 thousand tons per annum capacity.
• A hexene-1 unit, which will produce co-monomers for certain grades of polyethylene.

Effective 01 October 2021, Archroma will increase the prices of its products by up to 0.25 USD per kg. These adjustments will apply to all Archroma products globally. The increase is necessary to offset the ongoing exceptionally high freight and logistics costs.

“Archroma made every effort to absorb these increases,” says Marcos Furrer, Chief Operating Officer at Archroma. “We have however reached a point where these adjustments are needed for us to be able to maintain our service levels.”

Indian Tufropes is partnering with Truetzschler Nonwovens and Voith to install its unique pentamerous technology. The company’s first nonwovens production line will be capable to produce 5 different eco-friendly, hydroentangled products.

Truetzschler Nonwovens and Voith are thrilled to be the technology partner for Tufropes’ (patent pending) unique nonwoven line based on pentamerous technology. The new installation relies heavily on Truetzschler/Voith core components for wet-laying, carding and hydroentangling. Proprietary refinements will allow Tufropes to produce any possible hydroentangled nonwoven material, including bio-degradable, natural fibre, eco-friendly high-performance nonwovens. Globally this would be a first industrial-scale pentamerous technology-based nonwoven project. Based in Gujarat, India, the line is expected to be commissioned next year.

Fibre Extrusion Technology Ltd, UK has completed the installation and commissioning of a new FET Laboratory Spunbond system for the University of Leeds.

This FET spunbond system is now an integral part of the research facilities of the CCTMIH (Clothworkers’ Centre for Textile Materials Innovation for Healthcare), led by Prof. Stephen Russell based in the School of Design, University of Leeds, who commented “The new spunbond system is perfectly suited to our academic research work, and is already proving itself to be extremely versatile and intuitive to use”.
 
This spunbond system complements existing research lab facilities at the university, which covers all areas of fibre and fabric processing, physical testing and characterisation. It forms part of a wider investment in facilities to support fundamental, academic research on ‘future manufacturing’ for medical devices, where the focus is on studying small-scale processing of unconventional polymers and additive mixes to form spunbond fabrics with multifunctional properties.
 
Key to this research is developing the underlying process-structure-performance relationships, based on the measured data, to provide detailed understanding of how final fabric performance can be controlled during processing.

As a rule, many exciting materials developed in academic research struggle to progress beyond the bench, because of compatibility issues with key manufacturing processes such as spunbond. By leveraging mono, core-sheath and island-in-the-sea bicomponent technology, the Leeds University team is working with polymer and biomaterial research scientists, engineers and clinicians to explore the incorporation of unusual materials in spunbond fabrics, potentially widening applications.
 
FET has built on its melt spinning expertise to develop a true laboratory scale spunbond system and is currently working on a number of other such projects globally with research institutions and manufacturers.

Outdoor apparel company Patagonia and circular fashion and textile technology group Infinited Fiber Company have signed a multiyear sales agreement for Infinited Fiber Company’s unique, premium-quality regenerated textile fiber Infinna™, which is created out of textile waste. The move marks a major milestone for both companies towards making textile circularity an everyday reality: The deal guarantees Patagonia access to the limited-supply fiber over the coming years and secures future sales income for Infinited Fiber Company as it ramps up production.

Infinna is a unique, virgin-quality regenerated textile fiber with the soft and natural look and feel of cotton. It is created from cotton-rich textile waste that is broken down at the molecular level and reborn as new fibers. Because it’s made of cellulose – a building block of all plants – Infinna is biodegradable and contains no microplastics to clog our seas. Clothes made with it can be recycled again in the same process together with other textile waste.

In April, Infinited Fiber Company announced plans to build a flagship factory in Finland to meet the growing demand for Infinna from global fashion brands. It is currently supplying customers from its R&D and pilot facilities in Espoo and Valkeakoski, Finland. The planned flagship factory will have an annual production capacity of 30,000 metric tons, which is enough fiber for roughly 100 million T-shirts made with 100% Infinna. Infinited Fiber Company expects to have sold the new factory’s entire output for several years during 2021.

More than 92 million metric tons of textile waste is produced globally every year and most of this ends up in landfills or incinerators. At the same time, textile fiber demand is increasing, with Textile Exchange estimating the global textile fiber market to grow 30% to 146 million metric tons by 2030 from 111 million metric tons in 2019. Infinited Fiber Company’s fiber regeneration technology, which uses cellulose-rich waste streams as its raw material, offers a solution both to stop waste from being wasted and to reduce the burden of the textile industry on the planet’s limited natural resources.

On the occasion of releasing its 2021 Spring Report, EURATEX calls the European Institutions to implement a new Industrial Strategy which will effectively support the European textiles industry. EURATEX welcomes the fact that Textile and Clothing industry is recognised as one of the 14 essential ecosystems of the European economy, but we need to take effective measures to support these sectors, and take into consideration the global dimension.

Economic data for 2020 in EURATEX Spring Report show preoccupying trends. Figures reflect a dramatic contraction in demand and production: EU turnover contracted by -9.3% in textiles (which is in line with the general manufacturing average) and by -17.7% in clothing, compared with 2019. Furthermore, supply chain disruptions and substantial price increases of some raw materials are putting significant pressure on the T&C industries across Europe. The trade deficit for European textiles and clothing jumped from € -47 bln in 2019 to € -62 bln in 2020, an increase of more than 30%, which is almost entirely due to the import of Chinese face masks and related products. Fortunately, more recent figures from the 1st quarter of 2021 indicate some signs of recovery.

That figure illustrates very well today’s political discussions on the future of the European industry. Many European companies have made considerable efforts to adapt their production to the pandemic, but clearly this was not enough. Whether the production cost in Europe is too high or the EU should adapt its procurement rules, the industry needs have a coherent long-term plan to become more competitive and conquer new markets.

EURATEX General Assembly highlighted the critical role of the new EU Industrial Strategy. The inclusion of textiles and clothing in the fourteen ecosystems is a step in the right direction to consolidate the industrial base but we should look also at the global challenges. European companies should continue investing in innovation, design and quality, in combination with a structural move towards more sustainable textiles. At the same time, the EU should create an environment - both inside the Single Market and globally - where everybody plays by the same rules.