From the Sector

Kornit Digital (Nasdaq: KRNT), a worldwide market leader in digital textile printing technology, announced UK textile printing company Rialto Designs has invested in a Kornit Presto S with Softener Solution to drive printed textile fashion innovation.

Founded 25 years ago by textile technologist brothers Riyaz and Mohsin Omarji, Rialto Designs has established a client base that includes many of the UK’s leading fashion brands.
In recent years, the company has downsized its analog screen production and adopted digital direct-to-garment capabilities. Two Kornit Avalanche HD6 systems for on-demand DTG production have streamlined operations and increased output to gain new market opportunities.

The latest single-step, eco-friendly Kornit Presto S helps align Rialto’s roll-to-roll workflow with commercial growth and delivers high-quality natural and synthetic pieces, in any quantity and in short order.

Kornit’s DTG technology supports Rialto to deliver a service that sets it apart on speed, sustainability, and high quality. Clients can now order printed samples across hundreds of fabric bases—polyester and natural—and receive their orders within 24 hours.

It is exactly 100 years ago on August 17th this year that Carl Axel Gustafsson returned from the USA to Sweden with a significant agency agreement from the Boston-based sewing machine leader Reece.

Back in 1921, Reece, along with its competitor Singer, entirely dominated the buttonhole machine market and were the world’s only manufacturers of these machines for jackets, trousers and coats.

Gustafsson’s license enabled his new company A C Gustafsson to become one of Europe’s first leasing organisations, hiring out Reece buttonhole machines and receiving payment per sewn buttonhole stitch.

This business thrived for many decades and formed the basis for the entire ACG Group as it exists today.

Forty years later, on September 2nd 1961 to be precise, Reimar Westerlind walked out of a restaurant after a long and enjoyable lunch with someone he’d never met before, having signed his intention to buy a company he knew nothing about on an improvised contract written on the back of a menu.

“What I didn’t know then was that my dining partner was the family lawyer of Carl Axel Gustafsson,” Reimar explains. “I had no money and knew nothing about the textile industry and I also quickly discovered the business was not doing so well at that time and tried to get out of the agreement, but he insisted I honour it. He told me he had money and would back me, but I’d have to work hard and pay him back in full.”

Reimar certainly took that advice, and at the age of 92 still travels to his office every day to oversee the operations of the diverse companies now operating under the ACG umbrella.

Although textiles remain the bedrock of the business, under Reimar Westerlind’s management, ACG Group has branched out into many other fields of activity over the past 60 years, and its diversity has also led to some highly unexpected developments.

Like many other European manufacturers, ACG also began to expand beyond its traditional borders from the 1970s onwards – initially into the former Soviet Union and subsequently establishing subsidiaries in Estonia, Lithuania, Finland, the Ukraine and Denmark.

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.