From the Sector

Leading fashion and textile industry training centre offers UK professionals hands-on experience with 3D digital design tools
 
EFI™ Optitex®, Electronics For Imaging's global provider of integrated end-to-end 2D & 3D CAD/CAM software solutions for the fashion and apparel industry, today announced its partnership with Fashion Enter Ltd. (FEL), a UK training and technical skills development centre for the fashion and textile industry. FEL has implemented EFI Optitex 3D solutions into its course curriculum.
 
Established in 2006, London-based FEL is a veritable "all-in-one" technology hub for the fashion and textile industry, offering multiple training and technical skills development services encompassing the entire design to production cycle. A not for profit, social enterprise, FEL also provides apprenticeships and adult learning through an Educational Skills and Finding Agency- and Social Enterprise London-approved technical centre supported by Haringey Council, Mayor's Good Growth Fund and online fashion retailer ASOS®.
 
To help lay the foundation for the UK's fashion and textile industry on its imminent journey towards digital transformation, FEL was determined to close the mounting skills gap in both industry and academia and offer UK professionals hands-on experience and exposure to 3D digital design tools. With a keen understanding of the market's growing need for speed, flexibility and shifting demands, in September 2019, FEL selected EFI Optitex as its 3D technology partner. FEL sought advanced 3D solutions that would enable innovative digital design courses, apprenticeships and bespoke training, including collaboration with leading fashion retailers such as Marks & Spencer®, ASOS, Next®, and many others.
 
After a short but highly intensive training period FEL implemented EFI Optitex 3D into its design and production processes, including pattern design and 3D tools for design and fitting. Since the recent implementation, FEL has already reaped the benefits of EFI Optitex 3D fully digital design, from sampling and grading, through to production. During a preliminary implementation phase, EFI Optitex 3D will enable FEL to deliver a wide range of accredited 3D design courses and forge collaborations with new customers, a result of EFI Optitex 3D's intuitive design tools, ease of use, and time and resource savings.

In the AZL Workgroup "High-Performance SMC", a project was developed in cooperation with M-Base, the IKV and the AZL partner network for the efficient and standardized provision of engineering data for SMC. Within the scope of the project, companies can participate in the definition of the required characteristic material data, the guidelines for the production of test specimens and the test specifications.
Sheet Moulding Compounds (SMC) are used in various application areas such as vehicles, electronics, construction and infrastructure.

Driven by the requirements to reduce the production costs of lightweight components, a new generation of SMC components with high mechanical properties is of highest relevance. SMC offers enormous potential to realize structural components with good lightweight characteristics at significantly reduced costs compared to conventional continuous fiber-reinforced components.
In order to further establish SMC in broad industrial applications companies participating within the AZL Workgroup recognized the value of a data bank for data harmonization of SMC to provide the possibility of easily finding the right material with its characteristics for the needed specific requirements.

“The segment of SMC is with 250,000 tons production per year the largest composites market in Europe. I am very pleased that we start now with the project of data harmonization along the complete value chain. The goal is to have a similar data base as already established by Campus® for thermoplastics and thermoplastic composites. Only with a reliable set data we can convince the engineering experts to use SMC in a larger variety of applications,” says Dr. Michael Effing, Chairman of the Board of AVK and Composites Germany.

As of right now a databank for engineered thermoplastic materials (by Campus®) already exists and is offering an immense value.
Under the lead of M-Base, Dr. CEO Erwin Baur who has successfully established the CAMPUS database, the AZL, IKV and companies along the value chain of long fibre reinforced SMC initiated to build a CAMPUS-compatible data structure and material characterization methodology during the High-Performance SMC Workgroup Meetings.

United Carton Industries Company (UCIC), a leader in Saudi Arabia's packaging industry, is achieving a breakthrough advancement in digital print for corrugated packaging with the installation of an EFITM Nozomi C18000 six-colour, single-pass LED inkjet printer from Electronics For Imaging, Inc. The new printer will bring exciting opportunities for UCIC to enter new market segments, expand its customer base, and create a competitive advantage in the region.
 
"UCIC's priority is to meet customer expectations, which are constantly increasing due to ever changing market conditions," said UCIC President Mohnish Rikhy. "New technologies such as digital printing with EFI's Nozomi C18000 printer help us meet these demands and stay ahead of the competition."

The Board of Directors of Autoneum Holding Ltd appoints Bernhard Wiehl, the longstanding Head of Finance & Controlling of Business Group Europe, as Chief Financial Officer (CFO) and member of the Group Executive Board with immediate effect. The previous CFO Dr Martin Zwyssig has decided to leave Autoneum.

Bernhard Wiehl has been responsible for Finance & Controlling at Business Group Europe since 2013. Also thanks to his financial leadership, this Business Group with its numerous legal units has become highly profitable in recent years. Prior to joining Autoneum, he held senior finance and controlling positions with various automotive suppliers and has therefore extensive experience in the financial management of internationally active suppliers. Additionally, he is very familiar with the challenges of the automotive industry in a global environment. From 2007 to 2013, he was Head of Finance & Controlling and member of the Executive Board of the Lighting and Electronics division at the German automotive supplier Hella and from 2004 to 2007, among other things, in charge of controlling of the Europedivision of the supplier Hydraulik-Ring. Wiehl started his professional career in 1995 at TRW Automotive in Germany. He studied mechanical and industrial engineering at the Esslingen University of Applied Sciences, Germany, and holds a degree in industrial engineering (FH).

Bernhard Wiehl’s predecessor Dr Martin Zwyssig decided to leave the Company and to take up a new professional challenge. The Board of Directors and CEO Matthias Holzammer thank him for the commitment to the Company and wish him all the best for his professional and private future.

IPC, the Industrial Technical Centre with expertise dedicated to plastic and composite innovation, is presenting two prototypes on its stand: an intelligent motorcycle helmet and a multifunctional windturbine blade. "With these two prototypes, IPC demonstrates its ability to functionalize composites, particularly with printed electronic components. Live demos will be organized during the three days of the show on our booth," explains Bertrand Fillon, General Manager of Research at IPC. The helmet was manufactured in partnership with the technical and creative paper manufacturer Arjowiggins, and the wind turbine blade, with the CEA. These two demonstrators will also be exhibited in Germany at the LOPEC exhibition 2019 in Munich on 20-21 March.

IMPROVE THE USER EXPERIENCE
The objective is to add new features to improve the user experience, without impacting security. The motorcycle helmet is equipped with sensors and NFC communication functions. "Here, printed organic electronics are used in the helmet to allow remote temperature changes," adds Lionel Tenchine, Program Line Manager for "Technologies for Intelligent Products" at IPC. The helmet manufacturing process is based on the use of composites and the infusion process.

DETECTING POTENTIAL DAMAGE IN ADVANCE
Developing predictive maintenance is an important issue when it comes to avoiding sudden, serious accidents. A recent McKinsey study estimates that by 2025 it will save $630 billion for companies, for example. The wind turbine blade presented at JEC World detects potential damage that could occur on the blade structure beforehand, making it possible to carry out preventive repairs on the one-meter-long blade. Printed organic electronics are used in the demonstrator to integrate strain gauges and the temperature detection function.

The Mechanical Engineering Industry Association (VDMA) has awarded two prizes to graduates of the Institut für Textiltechnik (ITA) of RWTH Aachen University - the dissertation prize and the creativity prize of the Walter Reiners Foundation of German Textile Machinery 2018. ITA alumnus Dr Benjamin Weise was awarded the dissertation prize for the development of novel fibres for textile charge storage devices. For their work on a guide to 4D product design, Jan Merlin Abram and Aalon Tal (both ITA students) were honoured with the creativity prize. The dissertation prize is endowed with €5,000 whilst the creativity prize contains a one-year scholarship of €250 per month. Peter D. Dornier, President of the Walter Reiners Foundation and Chairman of the Management Board of Lindauer DORNIER, presented the awards on the 18 September 2018 at the 18th Textile Machinery Forum in the Digital Capability Center in Aachen, Germany.

Graphene revolutionizes all-in-one - supercaps, reduction of terahertz radiation and antistatics

In his dissertation "Development of graphene-modified multifilament yarns for the production of textile charge storage devices", laureate Dr Benjamin Weise developed novel fibres made of polyamide and graphene and further processed them into textile surfaces. The newly developed polyamide graphene fibres are featuring a multitude of advantages:

• Due to their high performance in the charge storage area, they are predestined for use in double-layer capacitors, so-called super capacitors, or supercaps in short. Compared to lithium-ion batteries, supercaps offer significantly higher power density and a longer lifetime as no chemical reactions are taking place. towing to the graphene platelets in the filaments, it is now possible for the first time to integrate a charge storage device directly into a textile without having to sew in a rechargeable battery. This new fibre is therefore suitable for prospective use in smart textiles, for instance in a textile defibrillator.
• The new graphene-modified polyamide fibres can attenuate inident terahertz radiation up to 25 % of their original intensity. Terahertz radiation, for example, offers transmission rates of 100 Mbit/sec and is therefore of high interest for high-performance wireless communication. However, the radiation could damage sensible electronics as in aircrafts if this technology will be used widespread. Consequently, the shielding of the radiation is of high importance, e.g. in the form of fibre composite components in the aircraft, which protect the on-board electronics.
• As the fibres are showcasing a dissipative electrical conductivity, personal protective equipment is another prospective field of application.  

The development of a pilot process for graphene-modified fibres and the production of textile demonstrators are novel and disruptive attainments of Dr Weise’s PhD thesis and the reason for the award ceremony to him. Due to its outstanding properties, the European Union is funding research on graphene within the frame of the "Graphene Flagship" with an overall budget of one billion Euro (source: http://graphene-flagship.eu/project/Pages/About-Graphene-Flagship.aspx).

Modular product design of 4D products is now possible in simplified form

How can three-dimensional products change their shape over time and thus become "four-dimensional"? The students Jan Merlin Abram and Aalon Tal provide answers to this question in their project work "Leitfaden zur Auslegung hybrider morphender Textilien am Beispiel eines Scharniers" (Guidelines for the Design of Hybrid Morphing Textiles Using the Example of a Hinge), for which they were awarded the creativity prize. In their work, the students offer a guideline for the development of a four-dimensional textile from the idea to the demonstrator. Four-dimensional textiles, for example, consist of a hybrid material of elastic textile on which three-dimensional structures are printed. The fourth dimension describes the change in shape and/or a property over a defined period of time (= morphing).  This change is caused by external influences such as light and heat.

Every year, the Foundation of the German Textile Machinery awards prizes for the best dissertation, diploma or master's thesis and the creativity prize for the smartest student research project. Further prizes were awarded to Eric Otto, ITM Dresden, and Susanne Fischer, Reutlingen University.