Follow us:  

  • Home
  • AM Related Projects

AM Related Projects


HyProCell develops and validates integrated multiprocess hybrid production cells for rapid individualized laser-based production. The cells include laser-based additive and subtractive manufacturing machines, ensuring a fully finished product from incoming raw materials.

Continue Reading

Results HYPROLINE project

The HYPROLINE project has ended august 2015.

Reports are availalable, however developed main results and built technogoly are shown in this movie.



The HYPROLINE consortium.


The general objective of Hyproline is to strengthen the competitiveness of the European industry by introducing manufacturing methods, which will allow companies to

  1. reduce time-to-market and number of rejects,
  2. make more customized and innovative products with a higher market value, and
  3. make products > 20% more accurate with considerable savings (>30%) in consump-tion of waste metal, fluids and services, with an equivalent reduction of CO2 emission.
laser-milling  By further developing the manufacturing process itself as well as by research and application work on materials, pre and post treatment of the parts produced and supporting software Hyproline adds capabilities to commercially available manufacturing systems, in terms of speed, product quality and versatility. By keeping focus on the entire process from conceptual outline of the product via product design, engineering and production planning to actual manufacturing and control of quality, the project contributes to the development of a versatile manufacturing process, suited for industrial produc-tion by SMEs of complex custom made metal (meso scale = order 10 mm) parts in small batches or even in one-of-a-kind production mode.

The Hyproline manufacturing concept will be demonstrated by its pilot implementation for serial production of customized high quality meso parts for two different industrial sectors of

  1. electronics and
  2. aerospace.

Cassa Mobile

Flexible mini-factory for local and customized production in a container
The CassaMobile concept aims to provide local, flexible and environmentally friendly production of highly customised parts.

The production system is based on a truly modular architecture, allowing rapid adaptation to new requirements. This 'plug & produce' architecture includes mechanical and control system adaptation. The footprint of the CassaMobile production container is minimised to enable transportation to and deployment in areas with severely limited space, whilst minimising investment and infrastructure costs.
A pool of process modules enables many different configurations. Modules include for Additive Manufacturing, CNC-milling, assembly and cleaning.

A comprehensive pool of interchangeable process modules provides free configuration of the process chain to suit specific product requirements. This includes modules such as Additive Manufacturing, CNC-milling, automated assembly and cleaning which enables continuous production of one-of-a-kind products.

The CassaMobile concept is supported by an easy-to-use human-machine-interface and software for the direct manufacturing of custom designed products making the system cost-effective for end-users, operators and engineers.

All of these components are designed to be embedded within a 20' ISO-container which can be easily transported and deployed wherever required. A comprehensive cleanliness concept allows the CassaMobile system to adapt to differing process environment requirements. If the product requires a validated production process (for medical devices for example), this can be realised within the enclosed unit – thus enabling the possibility of a local validated production system.


SASAM's mission is to drive the growth of AM to efficient and sustainable industrial processes by integrating and coordinating Standardisation activities for Europe by creating and supporting a standardisation organisation in the field of AM.

The Additive Manufacturing (AM) concept is based on additive freeform fabrication technologies for the automated production of complex products.

Additive Manufacturing is defined as the direct production of finished goods using additive processes from digital data.

A key advantage is that AM eliminates the need for tooling, such as moulds and dies, that can make the introduction of new products prohibitively expensive, both in time and money. This enables the production of forms that have been long considered impossible by conventional series production—in fact, they can be created fast, flexibly, and with fewer machines.

SASAM Standardisation roadmap 2014 HOT

This document describes the roadmap for standardisation activities for Additive Manufacturing as drafted from the SASAM project.

The interest and attention for the development of AM standards have gained momentum. A group of over 100 industrially driven stakeholders from all over the world (with a centre of gravity in Europe) is currently active in AM. These stakeholders indicated the need and type of standards to be developed, they must be focussed on customers and market and support industrial implementation of AM. A number of standards categories were distinguished such as design, specific industrial needs, quality of manufactured parts, safety (regulations) and education.

A listing of already existing standards for AM has been drafted. Where relevant, liaisons have first been established with standardisation bodies and an assessment will be made whether further cooperation with Technical Committees will be desirable for AM topics as well. It must be noted that there is no CEN/TC on Additive Manufacturing at the moment. As part of the SASAM project it will be assessed whether the initiation

Date 2015-03-29 File Size 4.57 MB Download 6,517 Download



ManSYS is a MANufacturing and supply chain management SYStem. ManSYS aims to develop and demonstrate a set of e-supply chain tools to enable the mass adoption of Additive Manufacturing.

Most manufacturers outsource some or all of their manufacturing operations to third-parties specialists on a global basis, but not without complications. ManSYS aims to overcome these obstacles through develop and demonstrate a set of e-supply chain tools to enable the mass adoption of 3D printing.

Most manufacturers outsource some or all of their manufacturing operations to third-parties specialists on a global basis. This allows them to realise cost advantages and open new markets. but not without complications. Communication problems with external suppliers, supply chain visibility and coordination are just some of the obstacles.

ManSYS aims to overcome these obstacles by developing and demonstrating a set of e-supply chain tools to enable the mass adoption of 3D printing. Integrating the information systems of all the supply-chain partners makes it possible to overcome these complications. To demonstrate the capabilities of the platform, demonstrator parts are used from Smith & Nephew, GE and Wisildent.


In today globalized world, companies are trying to remain competitive through the adoption of a strategy where high quantity production of goods is the leverage to reduce costs.
By negating this approach, ADDFactor proposes the "Mini-factories" concept, which is conceived to be an innovative solution for most of the actors involved in the whole supply chain: the relationship between retailers and the manufacturing technologies will be considered and characterized by a new production framework concept, founded on central knowledge-based design and local distributed manufacturing.
This high-level concept will be applied focusing on need-driven products, and ADDFactor will manage the complexity of their design phase thanks to a direct connection with the retailer, that will provide "biometric data" of the customers as tacit requirements and "aesthetics tests" as explicit demands, being both fundamental for an effective individual personalization.
ADDFactor achievements will be focused on two different levels of manufacturing solutions, which will be placed:

at retail environment, to consider products simple and/or reduced in terms of assembled components (i.e. orthotics or modular fashion heels and plateau);
and at district level when the products are complex and the manufacturing procedures cannot be scaled at local level (i.e. sport shoes or complete customized fashion shoes).

Within this overall project concept, ADDFactor will structure its activities towards the achievement of different objectives, from diagnostic devices to advanced design tools in order to convert personal data in individual product specifications. The manufacturing is then guaranteed by a local manufacturing through novel ultra-fast and auto-configurable machines.
Thanks to the concurrent impact of these project results, ADDFactor will spark off an innovation virtuous cycle towards a future European industry.


Enlightening Next Generation of Material

Advanced concept of flexible machine for new Additive Manufacturing and Subtractive Manufacturing processes on next generation of complex 3D metal parts.


Borealis brochure 5mar HOT

Enlightening Next Generation of Material

Date 2015-03-10 File Size 1.19 MB Download 2,705 Download


The H2020 European project FoFAM, coordinated by PRODINTEC, started on 1st January 2015. Kick off meeting was celebrated in Brussels, on January 14th.

This project takes up the challenge of clustering technology developments on Additive manufacturing and place them into defined value chains in lead markets for Europe. The project intends to identify gaps for business development and to attack them with specific actions and timeline. It also includes high involvement of European regions to ensure an efficient use of structural funds associated to them.


AM roadmap 2016

AM roadmap 2016

Date 2017-12-20 File Size 813.11 KB Download 2,467 Download



The purpose of the Diginova coordinating work is to determine the current status and assess and promote the expected potential of Digital Fabrication for the future of materials research and manufacturing in Europe, taking the Diginova scope as a starting point. We will map key material innovation and application domains, identify key technology challenges and new business opportunities. We will identify and connect main stakeholders through establishment of innovation networks centered around concrete identified business cases, to determine the added value and feasible routes to commercialization.

On YouTube you'll find a 4 min illustration about the idea of Digital Fabrication (in future).

Our findings will result in a Digital Fabrication roadmap describing new business as well as technology drivers, aligned with a map of the most attractive innovative product categories for applications of new materials and processes, derived from a well-founded business perspective. The roadmap will describe the most promising materials and material deposition and modification technologies and will point out the direction for innovation in materials and digital fabrication to transform EU industries from their 20th century analogue roots to their 21st century digital future.
Achieving the ambitions of the Diginova project will

  • Create a paradigm shift in manufacturing that will open up huge opportunities for future growth for manufacturing and new material developement in Europe.
  • Deliver a roadmap for Digital Fabrication drafted by the project partners together with all identified key actors. This will provide a meaningful framework and guideline for innovation for all actors in the innovation value chain.
  • Help to eliminate compromises that reduce the functionalities of new advanced materials thereby maximising their potential value and shortening the time from lab to market.
  • Lower barriers for adoption and application of advanced new materials leading to faster innovation cycles.
  • Build better coordination networks of three key groups of stakeholders, centred around well described and widly recognized key application focus areas: materials developers, manufacturing equipment developers and application developers/owners.

NOTE! This site uses cookies and similar technologies.

If you not change browser settings, you agree to it. Learn more

I understand


In accordance with the Information Society Services and Electronic Commerce Act 34/2002 LSSI-CE and with the Spanish Royal Decree-Law 13/2012 of 30th March (and European Directive 2009/136/CE), that have made changes to the Spanish Act which affect the use of cookies and commercial messages sent by email, you are informed that this site uses cookies to store information in your computer. This policy explains how we use cookies and may be amended without prior notice. To ensure that you are using this site with complete and up-to-date information on how we use cookies, check this policy regularly as any changes will be updated on the website.

By using this website, you accept the storage of cookies on your computer in accordance with the terms of this policy. If you do not wish to accept cookies from this site, please disable cookies or do not use this website.

1. What are cookies?

Cookies are small files of information that a website transfers to the server or that are stored in your computer’s hard disk so that the website can recognize you when you visit again and remember certain information about you. This information can include which pages you have visited, choices you have made from menus, any specific information you have entered into forms and the time and date of your visit.

2. Types of cookies

The cookies used on this website are shown in the table below:

Domain Name Description Provider Expiration Random ID Name User Session Own 15 minutes after logout cookieAcceptanceCookie

Cookie to verify if the cookie policy was accepted

Own 03-07-2044

In order to provide more detailed information, you are informed that there are two main types of cookies on the website:

Session cookies: these are temporary cookies that expire at the end of a browser session, that is, when you leave the site. Session cookies allow the website to recognise you as you navigate between pages during a single browser session and allow you to use the website more efficiently.

Persistent cookies: in contrast to session cookies, persistent cookies are stored on your computer between browsing sessions until expiration or deletion. Therefore, they allow the website to recognise you and remember your preferences to adapt our website to your browsing experience.

3. Our use of cookies

We currently use, and may use in the future, the following types of cookies on this website:

  • Session cookies to help us maintain security and verify your details while using the website and while navigating from page to page, which allows you to avoid having to re-enter your data each time you enter a new page.
  • Persistent cookies to help us recognise you as a unique user when you return to our website so you do not have to enter your data several times as you move between our pages or services and to remember how you customised your use of this site, such as your preferred currency and time zone. We also use them to collect anonymous, aggregated information for statistical and evaluation purposes to help us understand how users use the website and help us improve the structure of our website.

Many cookies are designed to give you optimum use of the web and improve your user experience. For example, a cookie can recognize whether your browser supports specific technology features, which helps web pages load faster when a large file is requested to be downloaded.

As with your own cookies, you can also block third-party cookies through your browser settings. Below is explained how to disable cookies in major browsers.

4. Refusing cookies on this site

Most browsers are set to accept cookies. However, you have the ability to disable cookies if you wish, usually through your Internet browser settings. It is also possible to configure the browser to allow the acceptance of specific cookies or to notify each time a new cookie is about to be stored on your computer, allowing you to decide whether to accept or reject it. To manage the use of cookies there are several resources available to you, for example, the "Help" section of your browser can help you.

You can also deactivate or delete stored data used by technology similar to cookies, such as local shared objects or Flash cookies, by managing your browser's add-ons or by visiting the manufacturer’s website. Since our cookies allow you to access some of the essential functions of our website, we recommend that you leave cookies enabled, otherwise, if cookies are disabled, it may mean that you experience reduced functionality or that you will not be able to use this site completely.

You can change your cookie settings in your browser options:

  • Internet Explorer: Tools => Internet options => Privacy => Settings. For more information, see Microsoft support or browser help.
  • Mozilla Firefox: Tools => Options => Privacy => History => Custom configuration. For more information, see Mozilla support or browser help.
  • Google Chrome: Settings => Show advanced options => Privacy => Content settings. For more information, see Google support or browser help.
  • Safari: Settings => Security. For more information, see Apple support or browser help.
  • Opera: Settings => Options => Advanced => Cookies. For more information, see Opera Support or browser help.

If you use another browser than any of the above, check usage policies and blocking cookies.

5. When we update our Cookies policy?

We can update the cookies policy on our website at any time, so we recommend you to review the policy each time you access our website to be properly informed about how and for which cookies are used.

Last update: 17/04/2017