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Autor: Syspro User

The SM@RTM project comes to an end

2 - Juli - 2025

 

The SM@RTM project aimed to improve the competitiveness of RTM processes using predictive digital technologies, in-situ process monitoring and automated control systems, providing plant support in all phases of production using artificial vision systems with thermal cameras to monitor automated preforming processes, fibre optic-based embedded sensors in moulds for monitoring RTM process parameters, implementation of a closed-loop control system based on electro-valves, implementation of an HMI system with integration of reduced order models (ROM) for process parameter evaluation, and implementation of new resin injection moulding technologies using large-format additive manufacturing.

Following the completion of the technical work packages, the proposed developments are obtained:

 

Integration of a thermal imaging camera into a robotic arm for the manufacture of dry fibre preforms: the thermal footprint of the material (after its temperature activation process) is used to assess the possible appearance of defects in the preform and their effect on the subsequent stages of manufacture.

 

Large-format smart additive manufacturing moulds: Fibre optic-based process sensors (pressure + temperature) were developed. They are integrated both into the mould structure for monitoring process temperatures and into the surface in contact with the part to measure the injection process in the RTM stage. These moulds were developed using large-format additive manufacturing (LFAM) with high-performance plastics reinforced with short carbon fibre for high pressure loads.

 

Closed-loop control system, integrating injection vessel and human-machine interface (HMI) with reduced-order models (ROM) for process evaluation: An industrial system was developed that integrates a pressurised resin injection vessel, an electro-actuated valve system and activation mechanisms for closed-loop control of the resin injection process, enabling flow control during the process. All the sensors and data generated in the process feed into a user interface, powered by simulation models, for process parameter evaluation and quality control in the preforming and RTM resin injection stages.

Following the latest integration tests and manufacturing at the COMPOXI facilities, the technical developments of the project have been completed, pending final evaluation and audit of the project. This last year has seen outstanding joint work by all the partners and participating entities in the completion of all the technical developments.

 

SM@RTM Project (PTAP-20221007) funded by:

File: PTAP-20221007
Acronym: SM@RTM
Name: INTELLIGENT, ADAPTIVE AND SUSTAINABLE TECHNOLOGIES FOR AGILE, ZERO-DEFECT MANUFACTURING OF COMPOSITE MATERIALS USING RESIN TRANSFER PROCESSES.
Project Grant Awarded (€): €1,551,133.99
Duration: 2022-2024
Description: CDTI Aeronautical Technology Programme, 2022 call for proposals.
This project is funded by the Ministry of Science and Innovation and ‘Subsidised by the CDTI’.

For more information, visit the SM@RTM project website: https://www.smartm-id.com/

BEAMSHAPE. Project Description.

The objective of BEAMSHAPE is to develop a dynamic laser beam shaping device (MPLC_Multi Plane Light Converter) that allows to carry out customized laser welding processes on metallic materials that are difficult to weld, such as copper and/or aluminum, widely used in the e-mobility sector, and especially in the manufacture of electric battery components such as bus-bars. This device stands out because it can be implemented in any fiber-guided laser source.

BEAMSHAPE includes process monitoring using real-time infrared (IR) imaging and the generation of a digital platform that provides artificial intelligence (AI)-based data analysis services to correlate process stability, defect generation and process parameters.

The BEAMSHAPE consortium covers the entire value chain through research on innovative digital and sustainable manufacturing solutions and services to be demonstrated in relevant production environments (FORMINSA).

It consists of 4 SMEs (CAILABS, NIT, SYSPRO, FORMINSA), comprising high quality technology developers and relevant “early adopters”.

BEAMSHAPE will supply 3 products and 1 service. CAILABS will market the dynamic beamforming module. NIT will offer a monitoring solution compatible with that module, available as a stand-alone solution or as an add-on to the CAILABS product. SYSPRO will provide end users with cloud-based process optimization services. FORMINSA will introduce an enhanced product for the e-mobility sector.

Acronym: BEAMSHAPE

Project: CIIP-20242011

Duration: from 10/01/2024 to 03/31/2027

Budget: 669.037€.

CDTI grant: 335.777,96€.

This project has received funding from the Eurostars-3 programme, co-financed by CDTI and the European Union’s Horizon Europe Framework Programme for Research and Innovation.

TRIHSENS. Notice 3.

12 - Februar - 2025

TRIHSENS Research Project Results Presented on World Water Day

  • Organized by Viaqua in the context of World Water Day and the presentation of TRIHSENS project results.
  • Over 50 private entities, public administrations, universities, and technology centers participated.
  • Mila Castro, Santiago de Compostela’s Councilor for the Environment, closed the event.

Innovation and Collaboration in Water Management

Santiago de Compostela, March 18, 2021 – Ahead of World Water Day on March 22, and marking the completion of the TRIHSENS research project, Viaqua, as the project leader, along with the consortium partners, organized an online event to present innovative water management solutions developed in Galicia—particularly those offered by TRIHSENS. The event gathered over 50 private companies, public administrations from Galicia and other regions of Spain, universities, and technology centers.

The session began with a presentation by TRIHSENS project partners—Roca Roibás, Syspro, Ayco, and Viaqua—who summarized the work carried out over the last three years. This research led to the development of a comprehensive real-time monitoring solution for drinking water, ensuring efficient management and the protection of this vital resource.

TRIHSENS is part of the CONECTAPEME 2018 program, supported by the Xunta de Galicia through the Axencia Galega de Innovación (GAIN) and the Consellería de Economía, Emprego e Industria, co-financed by the European Regional Development Fund (FEDER) under Axis 1 of the Galicia 2014-2020 Operational Program.

Cutting-Edge Water Management Projects

During the event, two Galician technology centers involved in TRIHSENS presented additional innovative water management projects:

  • Project Nayades (AIMEN) – Focused on automated and intelligent management of water resources.
  • City Sentinel (Suez España & Cetaqua) – A wastewater COVID-19 monitoring tool, developed through the REVEAL project.

Additionally, the new European Water Directive was introduced, highlighting the increasingly strict regulations and the need for innovative tools like those showcased at the event. These solutions aim to anticipate potential issues and shift toward a proactive, preventive management approach.

Public-Private Collaboration for a Sustainable Future

Marcos Martín, CEO of Viaqua, emphasized the importance of strengthening alliances and fostering collaboration between institutions, businesses, and the third sector. He reaffirmed the crucial role of public-private partnerships in achieving sustainable growth and development. He stated, “Through collaborative projects like TRIHSENS, we aim to develop technologies that address existing and future water management challenges and provide public administrations with solutions for their implementation.”

To close the session, Mila Castro, Santiago’s Councilor for the Environment, highlighted the complex processes, technologies, and workforce required to deliver high-quality tap water for human consumption. She expressed the city’s willingness to continue participating in research projects, recognizing that being a case study is a significant advantage for staying up to date with the latest technological advancements.

„We consider R&D&I support essential as a driver of economic, social, and environmental change. We would like to thank all members of this project for their hard work and commitment to improving this public service.“ – Mila Castro.

TRIHSENS. Notice 2.

12 - Februar - 2025
  • TRIHSENS is validating its comprehensive control system to enhance response time and efficiency in the water purification process at the Tambre Water Treatment Plant (ETAP), owned by the Concello de Santiago and managed by Viaqua.

  • TRIHSENS establishes faster and more precise operational protocols for the drinking water purification system.

Automated Control System for Water Purification

Santiago de Compostela – The TRIHSENS project is validating an automated system aimed at improving water purification processes. Its goal is to develop a complete control and alarm system to optimize water treatment operations. The system—comprising a fluorescence sensor, a predictive model, and a decision-support tool—represents a strong commitment to protecting and preserving water quality.

As part of the 2020 implementation phase, a monitoring probe was installed at the Tambre Water Treatment Plant (ETAP) to continuously monitor the purification process. This probe, equipped with low-cost LED-based fluorescence sensors, has been integrated into the predictive model and the decision-support tool. The system enables rapid and precise responses to events, ensuring high-quality drinking water control.

A More Efficient and Cost-Effective Solution

The development of this fully integrated system guarantees the safe and efficient management of drinking water for the population of Santiago de Compostela. This solution proposes a more agile and economical model, aiming to replace manual sampling and external laboratory analyses, thereby reducing response time and costs.

TRIHSENS aligns with new European policies, promoting preventive and efficient water management. At the same time, it continues to support research, development, and innovation (R&D&I) projects through collaborative efforts.

Innovation and Collaboration

This project is part of the CONECTAPEME 2018 program and exemplifies innovation and cooperation among its partners: Roca Roibás, Syspro Automation, Ayco, Viaqua, AIMEN, and Cetaqua. It began in 2018 with the support of the Xunta de Galicia, through the Axencia Galega de Innovación (GAIN) and the Consellería de Economía, Emprego e Industria, co-financed by the European Regional Development Fund (FEDER) under Axis 1 of the Galicia 2014-2020 Operational Program.

TRIHSENS. Notice 1.

12 - Februar - 2025
  • The technological solution will be implemented at the Tambre Water Treatment Plant (ETAP), owned by the Concello de Santiago and managed by Viaqua.

  • The initiative’s partners—ROCA ROIBAS, SYSPRO, AYCO, and VIAQUA, along with the AIMEN and CETAQUA technology centers—have already begun developing this R&D initiative under the TRIHSENS project.

TRIHSENS Project – A Model of Innovation and Collaboration

Santiago de Compostela – The TRIHSENS project, part of the CONECTAPEME 2018 program, is an example of both innovation and cooperation between small and large companies, as demonstrated by the consortium members: Roca Roibás, Syspro, Ayco, Viaqua, AIMEN, and Cetaqua.

The project’s goal is to enhance current water purification systems, moving toward a more efficient management model that enables the development of a comprehensive real-time monitoring solution for drinking water quality. This initiative reflects a commitment to the protection and conservation of this natural resource.

Technological Advances and Implementation

After the project’s initial months, the effectiveness of fluorescence sensors—based on LED technology—has been confirmed. These sensors represent a significant breakthrough in the real-time monitoring of the water treatment process. The system ensures efficient management and strict control of drinking water distributed in Santiago de Compostela.

This innovative technology, soon to be installed at the Tambre Water Treatment Plant (ETAP), is powered by artificial neural networks, which act as a predictive and protective system within the water purification process.

A Step Toward Preventive and Efficient Water Management

TRIHSENS aligns with new European policies by developing technology focused on proactive and efficient water management. At the same time, it continues to promote collaboration through the support of research, development, and innovation (R&D&I) projects.

Launched in 2018, the project has received support from the Xunta de Galicia, through the Axencia Galega de Innovación (GAIN) and the Consellería de Economía, Emprego e Industria, and is co-financed by the European Regional Development Fund (FEDER).

Significant progress in the SM@RTM project to reduce defects in composite parts

12 - Februar - 2025

 

In the world of engineering, every advance represents a step forward towards excellence and efficiency. In this regard, the consortium led by CiTD has achieved significant milestones in the SM@RTM project, aimed at mitigating defects in composite parts using the resin transfer moulding (RTM) technique.

One of the project’s most notable branches, developed by CiTD in collaboration with IMDEA, focuses on optimising the RTM process through advanced computational models. Computational Fluid Dynamics (CFD) techniques have been applied to model mould filling, taking into account different mould defect scenarios, such as gaps or overlaps, inherent in manufacturing using Automated Fibre Placement (AFP). These models, supported by accurate data obtained from the collaboration between CiTD and AIMEN, also within the scope of the project, allow for a detailed simulation of the filling process, providing a deep understanding of the factors that influence the final quality of the part.

Furthermore, an innovative leap forward has been made by developing surrogate models using neural network techniques in Python. These models significantly reduce the computational time required to simulate different defect scenarios, allowing for rapid evaluation of the influence of injection parameters and mould defects on the final porosity of the part. This approach, based on data obtained from CFD models, demonstrates an effective synergy between numerical simulation and machine learning.

In the final stage of this simulation process, from complex CFD simulation models to surrogate models, including the learning of these models, CiTD has played a crucial role in the analysis and interpretation of the results obtained. Through exhaustive studies, it has been identified how different types of mould defects affect the injection pressures required during the RTM process. It has been observed that gap-type defects require lower pressures compared to overlap-type defects. Based on these findings, optimal pressures have been determined for each error distribution, thus achieving more precise and efficient control of the moulding process. In short, real-time corrective actions have been developed, a powerful tool for operators, and RTM control strategies have been established.

In summary, the advances achieved in the SM@RTM project represent a significant milestone in the pursuit of excellence in composite parts manufacturing. The combination of advanced simulation models and innovative machine learning techniques paves the way for a more efficient, reliable and adaptive RTM process.

 

SM@RTM Project (PTAP-20221007) funded by:

File: PTAP-20221007
Acronym: SM@RTM
Name: INTELLIGENT, ADAPTIVE AND SUSTAINABLE TECHNOLOGIES FOR AGILE, ZERO-DEFECT MANUFACTURING OF COMPOSITE MATERIALS USING RESIN TRANSFER PROCESSES.
Project Grant Awarded (€): €1,551,133.99
Duration: 2022-2024
Description: CDTI Aeronautical Technology Programme, 2022 call for proposals.
This project is funded by the Ministry of Science and Innovation and ‘Subsidised by the CDTI’.

For more information, visit the SM@RTM project website: https://www.smartm-id.com/

SALTO. PROJECT DESCRIPTION.

  • This laser cutting system enables the automation of highly deformable decorated fabric cutting for short production runs.
  • Part of the 2016 PEME Connect Programme, the project consortium is led by SELMARK and is completed by the companies SYSPRO, UNIMATE and ENXENIA. AIMEN participates as a collaborating entity.
  • This new solution, at the pre-mass production stage, allows the cutting process cycle time to be reduced, adapting to a variety of fabrics and designs, ensuring a low failure rate.

The SALTO project has developed a flexible and adaptive laser cutting system for the textile sector with a new concept of reconfigurable robotic manufacturing. Specifically, it proposes the development of a new comprehensive manufacturing system that enables the automation of the cutting of highly deformable decorated fabric for short production runs and with a large number of catalogue items, designs and product models.

In this way, it is intended to make a qualitative and quantitative leap in the productive capacities for textile cutting operations. The technologies developed will have a positive impact on the efficiency in manufacturing and lead time, as well as on the manufacturing capacity of increasingly individualized products and the improvement of operators‘ working conditions.

This new solution, at the pre-mass production stage, will reduce the cycle time of the cutting process and the manufacturing time of a new product from the current three days, to an estimated half-day. In addition, SALTO will allow savings in fabric and an improvement in the rate of failures or rejections that can be detected during the quality control process.

With this new solution, an innovative manufacturing system is presented that involves industrial modernization which is of particular interest for fabric-cutting processes in textile manufacturing companies.

Main Milestones Achieved

The following project activities were completed in the 2018 twelve-month period: adaptive and online process control software, cell manufacturing management software and manufacturing system validation. This includes the integration of artificial vision in the control application, the adaptive control of the automatic generation of industrial robot trajectories, as well as the integration in the control of the multi-process cell, both in terms of automation and the manufacturing process of laser cutting for the variety of products used and of interest in the lingerie sector.

To achieve these technical advances, throughout 2018, the integration of subsystems in two robotized cells with similar configuration was carried out, located in AIMEN and Selmark, and this made it possible to evaluate and validate these developments in laboratory and pre-mass production environments.

Inter-sectoral collaboration

The SALTO project, with a budget of 357,435 euros and a total duration of 34 months, is part of the 2016 ConectaPEME Programme.

For the development of this project, a multidisciplinary consortium was set up led by SELMARK (design and manufacture of lingerie garments) and completed by the companies SYSPRO (services aimed at the integration of technologies in the fields of automation, industrial software, robotics and artificial vision), UNIMATE (engineering specializing in the automation of processes with industrial robots) and ENXENIA (engineering and R&D specializing in mechanical design and assistance in the production process to manufacturing and product transformation companies).

This corporate grouping works in collaboration with the AIMEN Technological Centre.

REPACELL. Notice 1.

12 - Februar - 2025

This project has been co-financed by the European Regional Development Fund (FEDER) with the aim of promoting technological development, innovation, and high-quality research.

„A way to make Europe“
SYSPRO AUTOMATION, S.L.U

At SYSPRO AUTOMATION, we have been selected by CDTI (Center for Industrial Technological Development) to receive funding for our new R&D project:
„Automated and optimized production of micro/nanoparticles of cellulose from recycled paper“ (IDI 20210367).

The objective of this project is the research and development of systematized and automated processes for obtaining cellulose nanofibers from the valorization of paper and cardboard waste, to be used as a reinforcement material in enhanced recycled papers.

Nanocellulose possesses unique properties that make it highly versatile for various applications. It offers high strength, a large surface area, lightweight properties, and rigidity, while also being a sustainable resource. By utilizing raw materials such as wood, agricultural residues, fruits, or paper waste, high-value applications can be developed across different sectors.

To integrate this project effectively, we have applied our R&D efforts in several cutting-edge fields, including:

  • The production of micro/nanoparticles of cellulose
  • The automation and sensorization of processes at a pilot scale
  • The application of R&D in micro/nanoparticles of cellulose for enhanced paper production

This project has been executed in Nigrán (Pontevedra), starting in 2020 and concluding in December 2022. It was carried out with the support of a grant of up to €580,014.50, representing 85% of the total approved budget of €682,370.00.

REPACELL. Project Description.

12 - Februar - 2025

The REPACELL project focuses on developing fully systematized, sensorized, and automated processes for obtaining cellulose nanofibers from the valorization of paper and cardboard waste. These nanofibers can be used to enhance the production of higher-quality recycled paper. The project’s main goal is to study techniques for obtaining cellulose nanoparticles and the quality parameters that define them, enabling process automation. Additionally, it involves the production of cellulose nanoparticles with suitable properties for future applications.

The primary objective of the project is the research and development of systematized and automated processes for obtaining cellulose nanofibers from recycled materials. The project achieves the valorization of recycled paper and other raw materials, as well as the production of micro/nanofibers for application in enhanced paper products (improved mechanical properties, hydrophobicity, recyclability). A pilot-scale upscaling is also carried out, along with sensorization and automation of the system.

Key project activities:

  • Development and optimization of processes for obtaining micro/nanoparticles of cellulose (pre-treatments and treatments) from new cellulose sources like recycled paper. Through sensorization, process conditions are monitored to ensure control. Different methods are analyzed to verify the system’s versatility and establish automation guidelines.
  • Scaling up cellulose nanofiber production to a semi-industrial scale.
  • Development of automated control systems for the pulp production and nanofiber development process.
  • Implementation of in-situ sensing technologies to monitor key parameters (viscosity, turbidity, particle size, etc.).
  • Process engineering development, including design bases, balances, battery limits, flow diagrams, product and effluent streams, etc.
  • Process modeling to create a Digital Twin, enabling monitoring and replication of the process in a virtual environment. This model will be used to simulate process scaling, validating its industrial feasibility.
  • Development and optimization of drying processes.
  • Evaluation of cellulose nanoparticle applications to enhance recycled paper quality. The feasibility of using micro/nanoparticles in recycled paper production will be assessed to validate the project’s developments and close the cycle within a circular economy framework.

PEATON. Project Description.

  • The project is presented as a great opportunity for the development of more economical and lightweight materials, whose final properties can be adjusted to size.
  • Under the 2016 Interconnect Program, the project consortium is led by the COPO GROUP Technology Centre, and is completed by the companies COPO GALICIA S.L., SYSPRO and the ANTOLÍN-PGA GROUP. AIMEN and CELLMAT TECHNOLOGIES participate as collaborating entities.

PEATON “Application of eco-efficient processes to the development of new expanded polypropylene materials for automotive components” is an integrated project of industrial development and multidisciplinary character whose main aim is the manufacture Expanded Polypropylene (PPE) components that can be incorporated in structural and non-structural elements of the vehicle. The aims are to improve the passive safety and reduce the final weight of the car, aims that feature in all the road maps of the automotive sector.

These components will be manufactured through eco-efficient processes thanks to the development of new PPE materials (raw material). Thus, the project is presented as a great opportunity to create materials with custom properties and much more cheaply. With them one can achieve components that are lighter than the current ones and that deliver with the same mechanical performance, as well as improving the absorption of energy through the modification of the component’s cellular structure. . In this way, the materials can be manufactured adapting them to the needs of density or improvement of properties against impact, depending on the type of component to be manufactured.

Another of the innovations that PEATON will bring will be the development of new hybrid materials in which PPE foams will be integrated. Additionally, a mold control system will be implemented from which a much more efficient and energy-optimized production system will be obtained.

Inter-sectoral collaboration

The PEATON project, with a budget of 1.1 million euros and a total duration of 30 months, is part of the 2016 Interconnect Programme.

The consortium, led by the COPO GROUP Technology Centre, specialists in the manufacture of molds and foam formulation, is completed by COPO GALICIA S.L., expert PPE parts manufacturers; SYSPRO, leaders in the application of control systems to process optimization and the ANTOLÍN-PGA GROUP, specialists in the manufacture of passive safety metal components for the automotive industry.

This group of companies has the backing of AIMEN Technology Centre and CELLMAT TECHNOLOGIES, experts in the development of multi-material systems and process control and in the development and characterization of cellular materials respectively.

INSIGNIA. Project Description

12 - Februar - 2025

The project (On-lINe acoustic monitoring system for laSer claddInG aNd additIve manufActuring), approved under the Eurostars-2 call, focuses on developing an online monitoring system using acoustic sensors for crack detection in advanced manufacturing processes (Laser Cladding and Additive Manufacturing).

The contactless, online acoustic monitoring system includes data acquisition and processing capabilities with an Edge computing system, enhanced by a digital platform (a modular and interoperable software architecture) for data collection and aggregation. This aims to foster data exchange and vertical integration, optimizing processes through intelligence-based strategies within a zero-defect manufacturing approach.

INSIGNIA is built on three pillars:

  1. Acoustic monitoring system
  2. Data analysis, defect detection, and localization
  3. Integrated process optimization in LMD manufacturing applications

This project has received funding from the Eurostars-2 joint program, co-financed by CDTI and the Horizon 2020 Framework Programme for Research and Innovation of the European Union.

With a total project budget of €1,582,617.19, CDTI approved a subsidy of €330,616 for the company SYSPRO.

  • File number: Eurostars E!115303 – CIIP-20212006
  • Acronym: INSIGNIA
  • Project name: Online acoustic monitoring system for laser cladding and additive manufacturing
  • Partners: Syspro Automation, S.L.U., Talleres Comas S.L.U., XARION Laser Acoustics GmbH
  • Duration: 2021 – 2024

 

FADO. PROJECT DESCRIPTION.

  • The FADO project, part of the ERDF-INNTERCONECTA Programme, is led by CT Ingenieros with the participation of Hydracorte, Airgrup, Syspro, Unimate Robotica, and the research organisations Aimen and the University of A Coruña.
  • With this project, additive manufacturing by laser of large parts will be achieved, through a hybrid feed process that combines the contribution of material in the form of yarn with feeding in powder form.
  • In the aeronautical industry it can be used for the manufacture of large parts in light alloys; while in the automotive and metalworking sectors it will facilitate the production of large structural components. Furthermore, the system will contribute to manufacturing high value-added parts for the energy, petrochemical and shipbuilding industries.

Syspro participates in the development of an innovative robotic system of additive manufacturing by laser, which will enable the repair and manufacturing of large components for the aeronautical, automotive, metalworking and shipbuilding sectors, among others. This robotic system will combine the laser supply of wire and powder. The device will consist of a hybrid head that will guarantee the flexibility, productivity and robustness necessary to add one or other material depending on the precision requirements of the piece. Thanks to this solution, which will be industrially validated on prototype aluminum components for the aeronautical sector, it is intended to improve the “Buy-to-Fly” ratio, that is, the efficiency of the final material used, by more than 30%.

Furthermore, a significant amount of material will be saved by promoting the use of wire feed instead of powder, a cleaner and more environmentally friendly technology that also means a reduction in costs. Other benefits derived from this innovative system are the decrease in the amount of waste generated, compared to usual subtractive processes; and the improvement in productivity, by achieving higher material deposition rates (with respect to exclusive powder deposition systems) and a greater process speed.

The industrial applications of the project are many and varied. In the aeronautical industry, it can be used for the manufacture of large parts in light alloys; while in the automotive and metalworking sectors, it will enable the production of large structural components. Furthermore, the system will contribute to manufacturing high value-added parts for the energy, petrochemical and shipbuilding industry.

A technological leap for the manufacture of large parts with greater profitability.

At present, additive manufacturing by laser is used in small components of high added value that require great precision, while its application in larger parts is very limited, due to the low deposition rates of the material offered by current technologies, based on powder feeding. A further issue is the lack of simulation tools capable of predicting the behavior of the components manufactured using this technology, so the work methodology is based on trial and error models, which reduces profitability.

The technological challenge that the FADO project sets out to overcome is to resolve these deficiencies to exploit this system in more products and in a faster and more effective way. The developments that will be carried out will be aimed at enabling additive manufacturing by laser of large parts, improving the quality of the final product and increasing profitability. In addition, the entire process will be monitored and controlled online with numerical simulation models, in order to ensure the repeatability of said process and reduce the effect of deformations induced by thermal input.

Inter-sectoral collaboration

The FADO project, with a budget of 1.5 million euros, is part of the 2015 ERDF INNTERCONECTA Programme (ITC-20151267), subsidized by the CDTI with funding from ERDF funds, and supported by the Spanish Ministry of the Economy and Competitiveness.

The consortium, led by CT Ingenieros (experts in software development and with extensive knowledge of the aeronautical sector) is completed by Hydracorte (a firm that uses laser technology for cutting and welding processes), Airgrup (components manufacturer for the aeronautical sector), Unimate Robótica (a company engaged in robotic solutions for industry) and Syspro Ingenieria (which is engaged in the monitoring and control of industrial processes through technologies such as Automation, Artificial Vision, Robotics and Process Engineering).

Within the framework of this initiative, two research organizations are participating: AIMEN Technological Centre and the University of A Coruña. AIMEN will collaborate in the design of the online control system and will be in charge of the additive manufacturing process and its validation, given its extensive experience in the development of laser technologies for industry. For its part, the University of A Coruña will participate in the development of the numerical model for the simulation of the Advanced Manufacturing process.

EDAR 360. NOTICE 2.

12 - Februar - 2025

The EDAR 360 project arises from the need to develop digital solutions that allow for the control and optimization of wastewater treatment processes, thereby promoting the protection of water bodies in our community.

Led by Viaqua, alongside the technological centers Instituto Tecnológico de Galicia (ITG) and Cetaqua Galicia.

Syspro’s specific strategic objectives are framed within the fields of research in the context of industrial monitoring and control. Specifically:

  • Research on the data lifecycle in federated architectures.

  • Research on the use of Artificial Intelligence techniques to improve robotic systems for process supervision based on image analysis.

To achieve these objectives, Syspro investigated the best combinations of techniques and procedures for deploying federated architectures to improve the learning of control algorithms for treatment plants. Additionally, the focus was on the development and applicability of new artificial intelligence algorithms aimed at defining supervision strategies for vision-based processes supported by robotic platforms, a task primarily carried out during the last year of the project.

From this project, not only have significant advances been made in the main topic, but new perspectives and possibilities have also emerged in terms of applications in other contexts and infrastructures. These additional lines of work could lead to promising future developments in various fields.

This project, framed within the Conecta Hubs 2021 program, is subsidized by the Axencia Galega de Innovación (GAIN) to support the growth and competitiveness of Galician companies (http://gain.xunta.gal/) and co-financed with FEDER funds, aimed at strengthening the labor market and regional economies (https://www.europarl.europa.eu/) within the framework of the Feder Galicia 2014-2020 operational program. It also receives support from the Second Vice-Presidency and the Department of Economy, Business, and Innovation of the Xunta de Galicia. This call seeks to finance a collaborative project aligned with the areas of the Galician Digital Innovation Hubs, allowing it to consolidate within the framework of Galicia’s Smart Specialization strategy.

EDAR 360. NOTICE 1.

12 - Februar - 2025

A consortium of Galician companies and technology centers, join together with the aim of developing digital solutions that allow the control and optimization of wastewater treatment processes, thus favoring the protection of water bodies in our Community.

The EDAR360 project has a total budget of 1,080,387.70 € and is led by Viaqua. The consortium is completed by the Galician technology-based companies Syspro Automation S.L.U. and Ednon S.L. This consortium will also have the collaboration of the research centers Instituto Tecnológico de Galicia (ITG) and Cetaqua Galicia.

This project, framed in the Conecta Hubs 2021 program, is subsidized by the Galician Innovation Agency (GAIN) to support the growth and competitiveness of Galician companies (http://gain.xunta.gal/), and co-financed by ERDF funds, aimed at strengthening the labor market and regional economies (https://www.europarl.europa.eu/) under the Feder Galicia 2014-2020 operational program, in addition to receiving the support of the Second Vice-Presidency and the Ministry of Economy, Enterprise and Innovation of the Xunta de Galicia. From this call seeks to finance a collaborative project aligned with the areas of the Galician Digital Innovation Hubs, which allows to consolidate within the framework of Smart Specialization of Galicia.

During this year, Syspro’s main objective was to participate in the optimization of wastewater treatment processes through research in the development and applicability of new artificial intelligence algorithms oriented to the definition of process supervision strategies based on vision supported by robotic platforms. Based on the work carried out, an improvement in the safety of industrial systems was achieved, specifically in wastewater treatment through the use of Artificial Intelligence.

EDAR360 aligns with one of the major strategic challenges in the water sector set by European guidelines, undertaking its modernization through the development of digital technological solutions that ensure optimal wastewater management.

EDAR 360. PROJECT DESCRIPTION

12 - Februar - 2025

A consortium of Galician companies and technology centers, join together with the aim of developing digital solutions that allow the control and optimization of wastewater treatment processes, thus favoring the protection of water bodies in our Community.

The EDAR360 project has a total budget of 1,080,387.70 € and is led by Viaqua. The consortium is completed by the Galician technology-based companies Syspro Automation S.L.U. and Ednon S.L. This consortium will also have the collaboration of the research centers Instituto Tecnológico de Galicia (ITG) and Cetaqua Galicia.

This project, framed in the Conecta Hubs 2021 program, is subsidized by the Axencia Galega de Innovación (GAIN) and co-financed by ERDF Funds under the Feder Galicia 2014-2020 operational program, in addition to receiving the support of the Second Vice-Presidency and the Consellería de Economía, Empresa e Innovación de la Xunta de Galicia.

The innovative solutions developed in the framework of this project, will be validated in different facilities operated by Viaqua in order to ensure the replicability of the results obtained.

EDAR360 is aligned with one of the great strategic challenges of the water sector marked by the European guidelines, undertaking its modernization through the development of digital technological solutions that guarantee an optimal management of sanitation.

PROGRAMA OPERATIVOUna manera de hacer Europa
FEDER Galicia
2014-2021

DIAMANTE. NOTICE 2.

12 - Februar - 2025

The importance of the granite sector in the Galician economy is fundamental. The Galician granite industry is the 2nd most important in Europe (after Italy) and the 5th in the world, ahead of powers such as Belgium, Portugal or Germany.

In this context, the DIAMANTE project represents an opportunity for Galicia to increase production and improve the competitive situation of the natural stone production sector, after years of relocation to countries with lower labor costs, thanks to an innovative control system developed for multithread cutting machines for granite blocks. Specifically, DIAMANTE proposes the development of a solution capable of analyzing the reality of the cutting process thanks to the implementation of advanced sensorization and control systems, under the paradigm of Industry 4.0.

The objective of DIAMANTE is the improvement of the main factors affecting the process, which in this case are the consumption of diamond wire (main cost factor of consumables) and the inherent costs of multiwire machines in downtime due to breakdowns and unforeseen failures. As an example, a company with a monthly production of about 45,000 m2 of laminated granite loses about 150,000 euros for each day of stoppage. As for the cost of the diamond wire, it can represent about 40-50k€/month.

Therefore, DIAMANTE proposes a solution based on the Industry 4.0 paradigm, allowing greater control of all the parameters of the cutting machines, which will lead to an improvement in production, a reduction in waste that will transform the process into a more environmentally friendly one, with an increase in the added value of the product and an improvement in production costs.

During the last 2020 year of the project, actions have been carried out for the sensorization and control of the cutting wire. These activities have focused on the installation of artificial vision cameras, together with modifications in the cutting wire to facilitate its correct detection, and the installation of different optical sensors and accelerometers, all with the aim of performing predictive maintenance of the DIAMANTE demonstration machine during the process of cutting different qualities of granite.

With the installation of these sensors and the pertinent modifications in the wire, the aim is to control different important points both for the control of the correct stone cutting and for the correct functioning of the wire, being able to measure and report key parameters during the cutting process, such as rotation, speed or wire wear.
Another line of work has consisted in measuring the size of the bead to determine when it can be replaced, measuring the wear between the beginning of its life cycle and when it is approaching its end, being able to observe a decrease in its width during the process.


Figure 1: Images of the wear process in the bead width.

Another key point throughout this last year in the control of both the correct cutting process and predictive maintenance has been the analysis of vibrations that occur in the motor drum that produces the wire rotation. The frequency of these vibrations increases the greater the wear of the wire or when there is a problem in the cutting of the stone, since any possible problem is transferred to the motor drum and this factor causes vibrations.


Figure 2: Example of graph for vibration analysis in DIAMOND

The image shows the increase in vibrations over time. Green shows the vibrations that occur on the first day of the yarn’s life, yellow shows its vibration at 2 weeks of life and red at the third week of its life cycle.
In yellow it shows the vibration at 2 weeks of life and in red in the third week of its life cycle.
Finally, it is worth mentioning that the different partial developments have been integrated into the demonstrator installed at GRANISA. More specifically, this has entailed the integration of the artificial vision systems, the acquisition systems and the control and processing hardware architecture. Likewise, the final validation phase has involved the corresponding tests in a relevant environment and the analysis of pre-industrial implementation.

DIAMOND CONSORTIUM
To achieve the above objectives, the Galician companies of the DIAMANTE consortium cover the entire value chain of project activities and have formed a multidisciplinary group with the complementary know-how necessary for the proper execution of the project:

NODOSAFER, leader of the project, is an international benchmark in the manufacture of industrial stone cutting machines and its equipment is one of the best performing cutting wire. NODOSAFER has a wide experience in R&D projects related to its products.
SYSPRO is an engineering company focused on the integration of technologies in the field of automation, industrial software, robotics, artificial vision and advanced sensorization and has made a qualitative leap in recent years in R&D initiatives.

WDIAMANT is a developer of diamond cutting wire for the natural stone sector, with extensive experience in R&D projects related to its products, established in the world market and with a high volume of exports.

GRANISA is the end user and ultimate recipient of the technology developed in DIAMANTE. It is the 5th company in added value in the sector in Galicia. It has
contributed its experience in granite transformation and has implemented the solutions in a real environment for pre-industrial validation.
With the aim of promoting innovative activity within the companies, strengthening their international leadership capacity, improving their competitive position and complementing the developments of the project, the consortium has had the support of the AIMEN Technology Center, an entity with proven experience in artificial vision, monitoring, industrial control and advanced data processing activities.

PROJECT FUNDING:
The DIAMANTE project, framed in the CONECTAPEME 2018 program, is funded by the Xunta de Galicia through the Axencia Galega de Innovación (GAIN) and the support of the Consellería de Economía, Emprego e Industria and is co-financed by FEDER Funds under Axis 1 of the Feder Galicia 2014-2020 operational program.

DIAMANTE. NOTICE 1.

12 - Februar - 2025

The importance of the granite sector in the Galician economy is fundamental. The Galician granite industry is the 2nd most important in Europe (after Italy) and the 5th in the world, ahead of powers such as Belgium, Portugal or Germany.

In this context, the DIAMANTE project represents an opportunity for Galicia to increase production and improve the competitive situation of the natural stone production sector, after years of relocation to countries with lower labor costs, thanks to an innovative control system developed for multithread cutting machines for granite blocks. Specifically, DIAMANTE proposes the development of a solution capable of analyzing the reality of the cutting process thanks to the implementation of advanced sensorization and control systems, under the paradigm of Industry 4.0.

The objective of DIAMANTE is the improvement of the main factors affecting the process, which in this case are the consumption of diamond wire (main cost factor of consumables) and the inherent costs of multiwire machines in downtime due to breakdowns and unforeseen failures. As an example, a company with a monthly production of about 45,000 m2 of laminated granite loses about 150,000 euros for each day of stoppage. As for the cost of the diamond wire, it can represent about 40-50k€/month..

Therefore, DIAMANTE proposes a solution based on the Industry 4.0 paradigm, allowing greater control of all the parameters of the cutting machines, which will lead to an improvement in production, a reduction in waste that will transform the process into a more environmentally friendly one, with an increase in the added value of the product and an improvement in production costs.

During the second year of the project (December 2018 – September 2019), actions have been carried out for the sensorization and control of the cutting wire. These actions have focused on the installation of colorimetric sensors and artificial vision cameras together with modifications in the cutting wire to facilitate its correct detection.

With the installation of these sensors and the pertinent modifications in the wire, it is intended to control different important points both for the control of the correct stone cutting and for the correct operation of the wire, being able to measure and report key parameters such as rotation, speed or wire wear.

With the measurement of wire wear, it is possible to calculate the useful life of the wire and perform preventive maintenance, indicating when the wire wear is incompatible with its continuation in the cutting process and must be changed. In addition, with the control of the rest of the cutting parameters that could not be measured until now, such as the correct rotation of the wire during cutting so that the wire suffers uniform wear and the control of possible slippage or tensioning problems, it is possible to increase the useful life and improve the cutting of the wire, also avoiding marks on the stone during cutting that make them need to be repaired before being sold.

DIAMOND CONSORTIUM

To achieve the above objectives, the Galician companies of the DIAMANTE consortium cover the entire value chain of project activities and form a multidisciplinary group with the complementary know-how necessary for the proper execution of the project:

NODOSAFER, leader of the project, is an international benchmark in the manufacture of industrial stone cutting machines and its equipment is one of the best performing cutting wire. NODOSAFER has a wide experience in R&D projects related to its products.

SYSPRO is an engineering company focused on the integration of technologies in the field of automation, industrial software, robotics, artificial vision and advanced sensorization and has made a qualitative leap in recent years in R&D initiatives.

WDIAMANT is a developer of diamond cutting wire for the natural stone sector, with extensive experience in R&D projects related to its products, established in the world market and with a high volume of exports.

GRANISA is the end user and ultimate recipient of the technology developed in DIAMANTE. It is the 5th company in added value in the sector in Galicia. It will contribute its experience in granite transformation and will implement the solutions in a real environment for pre-industrial validation.

With the aim of promoting innovative activity within the companies, strengthening their international leadership capacity, improving their competitive position and complementing the developments of the project, the consortium will be supported by the AIMEN Technology Center, an entity with proven experience in artificial vision, monitoring, industrial control and advanced data processing activities.

PROJECT FINANCING:

The DIAMANTE project, framed in the CONECTAPEME 2018 program, is funded by the Xunta de Galicia through the Axencia Galega de Innovación (GAIN) and the support of the Consellería de Economía, Emprego e Industria and is co-financed by FEDER Funds under Axis 1 of the Feder Galicia 2014-2020 operational program.

DESTACAR. Project Description.

The aim of the DESTACAR project is the development of new technologies and methodologies for the processing and inspection of multi-material components with the aim of boosting production and the quality of its manufacturing processes.

The key for the development of new manufacturing and processing technologies adapted to multi-material components is based on a dual objective:

  1. Development and application of new non-conventional manufacturing technology applied to the direct improvement of the production process. The DESTACAR project will address the development of new high-tech manufacturing technology through research in automation and flexible and high-precision robotic manufacturing, the development of new adaptive and reconfigurable production systems and research into new multi-material processing technologies/tools.
  2. Development and application of new quality control systems that guarantee production in early stages of manufacturing, which will require the definition of new specific repair procedures. The DESTACAR project HIGHLIGHT proposes the development of non-destructive early inspection technology, based on multi-frequency lock-in thermographic techniques, which allows the detection of manufacturing defects, thereby reducing repair times and increasing the efficiency and quality of the production process.

Thus, the DESTACAR project will modify the processing and production of composite material and multi-material components, leading to an effective improvement and reduction of costs and materials that will generate new business opportunities to the productive sectors involved (manufacturing companies, auxiliary industry, engineering, etc.) and, in particular, to the companies that are part of the project. In this way, given the multi-sectoral nature of the technology to be developed, the Galician region will be provided with the technology and knowledge necessary to reduce costs and increase quality in the processing of composite materials, which can be extended to each and every one of the other sectors that currently use them.

The complexity of this dual objective is such that it demands a consortium of companies with complementary capabilities in robotics, flexible process automation, manufacturing engineering, analysis and signal/image processing and knowledge of the processing of composite materials and multi-material components mandatory:

There will be the participation of the AIMEN Technology Centre, as well as the Department of Electronics and Computation of the University of Santiago de Compostela (USC), which will contribute their knowledge in robotization and process control, materials science and engineering, inspection by means of non-destructive techniques, as well as manufacturing processes and experience in laser technologies.

This project has been supported by the CDTI, the Ministry of Economy and Competitiveness, the Galician Innovation Agency (AGI) and the Technology Fund.

DESPEGA. PROJECT DESCRIPTION.

The automotive industry is, and will continue to be, a fundamental pillar of the European economy, which justifies its marked presence on both national and European road maps. The objective set by the EU to reach 20% of gross domestic product through manufacturing industry in 2020 will only be possible with a strong presence of the automotive sector, so it is essential to maintain the key elements of the value chain in Europe. However, globalization is not only a great opportunity linked to the growth forecasts of the sector of 100 million vehicles in 2020, but also a serious threat in which delocalization phenomena are increasingly present. In this regard, it should be noted that a large proportion of the processes used in the automotive industry are relatively mature, and these, together with those at a lower technological level, carry a greater risk of being offshored to countries with cheaper labor. Which is, in short, the motivation of the DESPEGA („take-off“ in Spanish) solution.

The seat module is of great importance for car manufacturers, as it represents the 2nd highest cost in a vehicle, also accounting for 6% of the total weight. Working to improve on them, therefore, has great potential for the reduction of cost and weight, which is so important for the sector. Car seats involve much great complexity, even more so the greater the performance of the specific vehicle. Safety and comfort are the basic premises of new developments. Gradually, seats have been incorporating new features to respond to the search for new functionalities and greater passenger comfort, especially in the driver’s seat. It cannot be forgotten, moreover, that these represent the first contact with the potential consumer, so they constitute a commercial tool of great importance, and ultimately, a key element for vehicle innovations.

Generally, their manufacturing involves subdivision into multiple stages resulting in an inefficient process with a large consumption of resources in terms, essentially, of time and materials. It therefore offers great potential for the strategy to improve the profitability of new designs: DFMA (Design for Manufacturing and Assembly). The DESPEGA solution is the answer to the continuous search for process improvement which features so prominently in European research agendas. Thus, according to lean philosophy, the integration of three manufacturing stages into one will be carried out, for which the optimization and redesign of the current components is necessary, with its consequent complexity. A distinction is usually made between the manufacture of foam, the integration of the cover and the mechanisms in different stages. Distinguishing, in turn, the assembly from the casing differentiating between the seat and backrest functions, which are finally integrated at a later stage. DESPEGA sets out to carry out the foam filling and integrate the cover and reinforcement in a single stage. In this way, manufacturing and assembly operations are facilitated, and costs are reduced by optimizing the use of manufacturing tools and equipment. Thus, it will act on the mold that means a crossover enabling technology, of great importance in the manufacture of a host of products. Current advances in the field of automation and mechatronic engineering enable greater control and robustness of processes. In this way, it is also possible to act on the processing window, which makes more complex operations possible. In this regard, the development of a new concept of molds, active molds or active reactors will be carried out, in which the reaction will be controlled. These new molds, as opposed to the passive molds characteristic of the state of the art, will incorporate a temperature and pressure compensation system based on computational control. Hence, they will represent a technological leap forward in contrast to conventional processes. On the one hand, in contrast to the process of foaming in-situ, it is possible to manufacture the cover and foam in the same stage, to the detriment of the comfort performance of the product obtained. Also, instead of the conventional manufacturing process in successive stages, with the consequent problem explained above. The foam formulation must also be optimized, to adjust to the new processing conditions and achieve good adhesion and filling with both the cover and the metal reinforcement. Finally, a redesign of the metal reinforcement will be carried out to adapt to the new process conditions, as well as the design of new mechanisms to perform the final assembly.

In short, the DESPEGA project will enable a complex pre-assembled system with great appeal for seat assembly lines or directly for OEMs. In this regard, it is worth highlighting the operating mode of the sector where the components industry is acquiring an increasing importance in the entire automobile production process. That is why in recent years the sector has been tackling more complex functions such as coordination with other suppliers and investment in RDI.

In order to meet the technological challenge posed by the DESPEGA solution, it is necessary to involve all the companies involved in the seat module value chain. Thus, COPO GROUP TECHNOLOGICAL CENTER, mold maker and foam formulator, COPO IBÉRICA seat foam manufacture, and VIZA AUTOMOCIÓN, which specializes in the manufacture of structures and seating mechanisms will be able to work on the different elements of the solution. In order to achieve the proposed objectives, it is also necessary to bring on board a company that specializes in process automation: SYSPRO, which will enable the active mold concept to be developed. Finally, and in order to achieve greater efficiency in the process, the TECNIMACOR company will work on optimizing the demolding process. This is one of the biggest bottlenecks in the polyurethane injection process. The consortium described requires the support of two research entities, the AIMEN and CTAG Technology Centers and the Universities of Córdoba and Granada for those tasks that have a greater scientific and technical element. Their experience in the proposed lines of research will be essential in order to achieve the objectives set in the project.

DESPEGA is also aligned with the smart specialization strategy (RIS3) of Galicia. This strategy seeks to concentrate resources in a limited set of priority areas in which the region has competitive advantages. Thus, the automotive sector is one of the most important drivers of Galicia, representing a vital element for the survival of the region’s industrial fabric and also enjoying a strong position in relation to Spain as a whole. The Galician automotive sector, led by PSA Vigo, has become an international leader. So much so that in 2014, vehicle production in Galicia represented about 16% of Spain’s total production. This figure makes the Vigo plant the 2nd largest production plant in Spain, surpassed only by SEAT Martorell (with 18%). An important component industry has developed around the factory, financed by French capital, which continues to attract foreign investment. This situation is further strengthened by the setting up of the CEAGA Cluster (in 1997), as a consolidating element of the component industry, which currently has 106 member companies. In the comparison by autonomous regions, Galicia is the fifth autonomy in number of companies in the component sub-sector (52).

As pointed out above, the relocation of value chain companies is a patent fact, which translates into an industrial landscape in which CETEC is currently one of the few polyurethane mold manufacturers that carry out the design and manufacture in Europe of these key parts. This gives great agility to the seat module value chain due to its physical location and its proximity to suppliers and OEMs. And it shows the strategic importance of the DESPEGA project to reinforce and guarantee the permanence of the seat module value chain in Galicia.

This project was supported by the European Regional Development Fund (ERDF), by the CDTI and by the Spanish Ministry of Economy and Competitiveness.

CONFORSHIP. Project Description.

The CONFORSHIP project is a large integrated experimental and strategic development project whose main objective is to achieve the effective implementation in the shipbuilding industry of a new automatic thermal forming system for obtaining complex curvature plates.

Currently, this operation is performed manually, which entails inefficiency, unpredictability and quality issues.

This implementation will be achieved through the development of enabling technologies consisting in:

  • Numerical modelling of the heating system
  • Integrated geometry control and measuring systems
  • Automatic programming and closed-loop control systems based on predictive models and expert systems that will be incorporated into CNC equipment, resulting in a new machine concept and automatic forming process that would subsequently be exportable to other industrial sectors.

This project has been promoted by the C.N.P. FRREIRE and NODOSA shipyards together with the machinery manufacturer NODOSAFER, which leads the project in turn.

The participating shipyards will direct the integration of the different results and the validation of the technology developed in the shipbuilding industry environment.

The consortium also has the participation of a large company, COREMAIN, which specializes in software development as well as an SME that specializes, among other things, in the automation and integration of industrial processes, namely SYSPRO Engineering.

The heat lines to be applied in the sheets or the generation of the expert system based on the experience of the operators that enables the proactive correction of heat lines based on the actual behavior of the sheet as it is shaped.

This project has been supported by the CDTI, the Ministry of Economy and Competitiveness, the Galician Innovation Agency (AGI) and the Technology Fund.

COMSENSO. Notice 1.

12 - Februar - 2025

The COMSENSO project has been successfully completed in this third and last year, achieving the following objectives:

1) A cell equipped with the new L-WAAM technology has been developed, integrated and validated in the facilities to increase the productivity and quality of the parts currently manufactured by the WAAM process. Said cell consists of:
✓ A new high-power laser source,
✓ A processing head to integrate this laser beam with a GMAW arc torch,
✓ A closed-loop process monitoring and control system based on high-speed infrared imaging,
✓ An intelligent manufacturing assistance system to enable early detection of defects (during the manufacturing itself), ✓ An intelligent manufacturing assistance system to enable early detection of defects (during the manufacturing itself).

2) A digital manufacturing solution to structure and exploit the flow of information generated at each and every stage of the process.

3) In order to demonstrate the potential of the L-WAAM technology and validate all the above mentioned developments, a multi-material Steel/Invar mold selected as a demonstrator in COMSENSO was manufactured, to which FBGs sensors were incorporated in critical areas to provide it with multi-functionality, going from being a passive mold to an active mold that continuously informs about its structural state. By manufacturing this new mold using the L-WAAM process, a 67% reduction in the amount of starting material and a 34% weight reduction with respect to the mold manufactured using the conventional process have been achieved, the latter thanks to the freedom of design allowed by the L-WAAM process. Finally, it should be noted that the L-WAAM process provides greater stability of the melt pool which, in turn, translates into higher quality and better part finish and higher productivity compared to the WAAM process.


Demostrador Molde Acero/Invar fabricado mediante tecnología L-WAAM en las instalaciones de BEZZIER.

Demostrador final una vez embebidos los sensores FBGs en las zonas de interés.

For more information visit the project website: http://www.comsenso.es

Expediente: MIP-20211010
Acrónimo: COMSENSO
Denominación: FABRICACIÓN ADITIVA MEDIANTE TECNOLOGÍA WAAM ASISTIDA POR LÁSER DE COMPONENTES MULTIMATERIAL SENSORIZADOS
Concedido (€): 247.982,57 €
Duración: 2021 -2023
Descripción: Programa Misiones CDTI, convocatoria 2021. Este proyecto está financiado por el Ministerio de Ciencia e Innovación y “Subvencionado por el CDTI”.

COMSENSO. Project Description.

12 - Februar - 2025

Currently, additive manufacturing (AF) technologies, and in particular Direct Energy Deposition (DED) technologies, including Wire-Arc Additive Manufacturing (WAAM) technology based on GMAW (Gas Metal Arc Welding) process, are attracting increasing interest from the industry and experiencing a very significant growth. Despite achieving a high contribution rate, WAAM technology does not yet compete with traditional manufacturing processes, which is mainly due to the difficulty of guaranteeing the quality of the manufactured part and the lack of process stability.

The main objective of the COMSENSO project is to develop a new additive manufacturing technology for metal components based on laser-assisted WAAM (L-WAAM) technology, which will overcome the main barriers faced by AF, namely: achieving high productivity and guaranteeing the manufacture of multi-material components with zero defects.
Therefore, the aim is to develop a new additive manufacturing process oriented to the fabrication of large parts. In particular, the project will address multi-material systems in steel/invar and stainless steel/Inconel for the aeronautical and metal-mechanical sectors, although the developments will be extrapolated to many other sectors (railway, energy, etc.).

To this end, COMSENSO aims to achieve the following technical objectives:
1) Development of the L-WAAM process:
a. Development of a new high-power, fiber-coupled diode laser source.
b. Development of an L-WAAM head that allows combining the laser beam with the electric arc.
c. Development of the process of embedding FBGs sensors in fabricated parts for in-service monitoring.

2) Development of a digital L-WAAM platform:
a. Generation of a digital twin of manufactured part.
b. Development of an online process monitoring and control system based on the capture and analysis of images taken by an infrared camera.
c. Development of an intelligent manufacturing assistance system capable of predicting the appearance of possible defects in the part.

3) Development of an integrated L-WAAM cell:
a. Fabrication of demonstrator.
b. Technical-economic analysis of the solution.
c. Product life cycle analysis.

For more information visit the project website: http://www.comsenso.es

Expediente: MIP-20211010
Acrónimo: COMSENSO
Denominación: FABRICACIÓN ADITIVA MEDIANTE TECNOLOGÍA WAAM ASISTIDA POR LÁSER DE COMPONENTES MULTIMATERIAL SENSORIZADOS
Concedido (€): 247.982,57 €
Duración: 2021 -2023
Descripción: Programa Misiones CDTI, convocatoria 2021. This project is funded by the Ministry of Science and Innovation and “Subsidized by CDTI”.

CADRADO. Project Description.

The CADRADO project is a technological innovation project whose main objective is to develop an automated software system for the detection and evaluation of defects and critical dimensions for the radiographic inspection of industrial parts.

Among the parts of interest for this type of application are the different parts made of light materials within the production of the aeronautical sector, a sector of great current relevance, both at Galician and national level. Likewise, this interest extends to other target sectors of composite materials, such as shipbuilding and wind energy.

In this way, the software will allow specific radiographic image analysis, where automatic studies are scarce and are oriented to materials with repetitive characteristics. The flexibility of the software to be developed is key for defect detection, metrology and feature extraction within different types of industrial parts. Specific filters and tools needed for a concrete and automated analysis will be generated, and finally the application will be integrated into a graphical user interface. The final interface will be user-friendly and simple, facilitating its integration into the radiographic inspection cycle in different industrial production scenarios.

This project is led by SYSPRO ENGINEERING, which has extensive experience in industry-oriented software development. With it, SYSPRO will extend its expertise to radiographic imaging in non-destructive testing (NDT), a field that differs from machine vision imaging as well as clinical radiography. The proposed solution will be applicable to any digital radiography system, and will fill current gaps in this field.

AIMEN, one of the most important Technological Centers in Galicia, will collaborate with SYSPRO in the development of this software from its wide knowledge in NDT and digital radiography in particular, covering the inspection part with different digital equipment as well as the initial image analysis by expert personnel.

This project is supported by the Xunta de Galicia through the Axencia Galega de Innovación.

Example of fault detection:

B2BP. Notice 1.

12 - Februar - 2025

This project has been co-financed by the European Regional Development Fund (ERDF) with the aim of promoting technological development, innovation and quality research.

 

“Una manera de hacer Europa”

SYSPRO AUTOMATION, S.L.U

SYSPRO AUTOMATION has been selected by CDTI (Centro para el Desarrollo Tecnológico Industrial) for the financing of our new R&D project “Development of a new bioprocess for the valorization of agroindustrial biogas into bioproducts by means of a high transfer bioreactor” with IDI 20210044.

The objective of this project is the development of a high efficiency methane conversion bioprocess from agroindustrial biogas to obtain single cell protein (SCP) for animal feed.

To achieve this, we have worked on the evaluation of biogas as a viable methane source for obtaining bioproducts, developed a continuous industrial biogas revalorization bioprocess, as well as the development of a high transfer pilot bioreactor to maximize the performance of the bioconversion process.

The present project has been carried out in the town of Nigrán (Pontevedra), with a start date of 2020 and a completion date of December 2022, with a grant of up to 575,227.30 €, which represents a percentage of 85.00% of the total budget accepted by this center, which amounts to 676,738.00€.

B2BP. Project Description.

12 - Februar - 2025

The main objective of the B2BP project is to develop a highly efficient bioprocess for the conversion of CH4 from agroindustrial biogas for the production of single-cell protein (SPC) for animal feed. In addition to the development of a novel conversion bioprocess, the aim is to demonstrate that biogas as a renewable source is perfectly viable and more affordable than natural gas for the production of single-cell protein. 

New studies and processes applied to the revaluation of agro-industrial biogas have been carried out through the research of a continuous agro-industrial bioprocess that leads to the obtaining and production of SCP.  

New fields have been explored in R&D on the viability and accessibility of biogas versus natural gas through a process that allows making use of it for protein production, allowing the opening of new market niches and satisfying future food demands through the use of biotechnology.  

Objectives:

  • To evaluate the viability of biogas as a viable source of CH4 for the production of the target bioproduct and to obtain results that will allow the future development of a scalable and industrial process beyond the pilot plant. 
  • Establish the optimum strain and conditions for bioconversion of CH4 to maximize the production capacity of the bioreactor. In this way, a biological environment will be obtained and identified where production will be optimal through control.
  • To develop a continuous agroindustrial biogas revalorization bioprocess for the production of SCP through bacterial reactors that allow the monitoring and control of physicochemical variables that could affect the production process.
  • Design and build a high transfer pilot bioreactor to maximize yields and validate the CH4 bioconversion process developed at laboratory scale.
  • Development of a predictive model as a software platform for online monitoring of the bioprocess and prediction of possible changes, which in turn will serve as a database and knowledge base that will allow extrapolating the information to higher capacity production plants in the future.
    OPERATING PROGRAMUna manera de hacer Europa
    FEDER Galicia

 

AUTOWIND. Project Description.

The AUTOWIND project is a major integrated project, experimental and strategic in development, whose main objective is the development of a new comprehensive wind tower manufacturing system based on the application of high-power laser technology for the longitudinal and circumferential welding process of the different curved plates that make up the tower sections. In order to achieve the requirements of precision and repeatability necessary for the implementation of this new welding process, it is necessary to act in a fractional manner on the previous processes of manufacturing of curved plates and overlapping joints, since their precision in adjustment and positioning and their own sturdiness are essential for the feasibility and quality of subsequent laser welding.

In this regard, currently, the plate curving and joint overlapping processes are notably manual ones, slow and highly dependent on the fitters‘ experience. Likewise, the current process of submerged arc welding requires many passes to create the welded joint. These critical factors give rise to low-productivity fabrication processes, with high associated fabrication costs and low repeatability.

Therefore, the AUTOWIND project aims to develop solutions of high technological value that will result in higher productivity and enhance structural quality and repeatability of the final product, as well as allowing cost-effective manufacturing of the new larger spindles demanded by the wind power market, which will not be possible with current manufacturing systems. These enabling technologies to be developed in AUTOWIND consist of:

  • The development of a measuring system and dimensional monitoring of the ferruling process , the development of a process control system and the development of expert software for the automatic configuration of the curved plate rolling machine during this process.
  • The development of a monitoring and control system which enables the overlapping process between curved plates to be automated.
  • Leveraging the advantages in terms of precision and quality provided by previous developments, development of a new welding process based on high-power laser technology combined with arc welding processes for the manufacture of wind turbine towers.

This AUTOWIND project has been promoted by the main manufacturer of wind towers in Spain, GESTAMP WIND STEEL GALICIA, which leads the project. GESTAMP WIND STEEL GALICIA will direct the integration of the different results obtained and the validation of the different technologies developed within the wind turbine manufacturing industry.

The AUTOWIND consortium also has the participation of GANOMAGOGA, a company specializing in the design and engineering for the wind and heavy boiler sector in general, and SYSPRO ENGINEERING, an engineering firm that specializes in automation, robotics and development of artificial vision systems for different industrial sectors and EMTE SYSTEMS.

Given the complexity of the AUTOWIND project, the consortium will have the support of AIMEN, the leading national Technology Centre in laser technologies and characterization of metallic materials and with extensive experience in the field of artificial vision and sensorization of process. This research center will collaborate with the companies of the AUTOWIND consortium, among other tasks, in: the development of the longitudinal and circumferential laser welding process of the curved plates that make up the wind shafts and in the development of vision and monitoring systems that enable the automation of the curved plate rolling and joint overlapping processes.

This AUTOWIND project has been supported by the CDTI, the Ministry of Economy and Competitiveness, the Galician Innovation Agency (AGI) and the Technology Fund.

SM@RTM. Project Description.

20 - April - 2023

 

The Resin Transfer Molding (RTM) process offers significant advantages for manufacturing high-performance composite materials, including superior surface finish, net-shape geometries, high mechanical properties, and reduced production times and resource consumption. However, strict process control is required to ensure proper resin impregnation into the dry fiber while avoiding common defects such as dry spots, porosity, and rapid flow channels, which can affect the final component’s performance.

These control strategies largely rely on operator intervention and the data available during the process, limiting productivity to low-volume manufacturing environments. To address this, SM@RTM aims to enhance RTM process competitiveness by integrating predictive digital technologies, in-situ process monitoring, and automated control systems, providing real-time support at all production stages.

SM@RTM Implementations:

  • Infrared thermography-based artificial vision systems for monitoring the manufacturing process of dry fiber preforms using Automated Fiber Placement (AFP).
  • Embedded sensors within RTM molds for flow front monitoring and parameter evaluation, utilizing fiber optic sensor (FOS) technology and commercial DC sensors.
  • Automated closed-loop control system for injection parameter regulation.
  • Implementation of Digital Twins for both AFP preforming and RTM processes, integrated into a Human-Machine Interface (HMI) with Reduced Order Model (MOR) simulations, enabling real-time decision-making support on the shop floor.
  • New automated composite mold manufacturing technologies using Fused Granulate Fabrication (FGF) for one-shot injection of 3D components.

SM@RTM Consortium Members:

  • CiTD (Getafe, Madrid): A leading company providing comprehensive innovation and product engineering services since 2015, continuing the aerospace and defense engineering activities previously carried out by ITD.
  • SYSPRO (Nigrán, Pontevedra): Specializing in automation, integration, industrial software, and artificial vision engineering.
  • IDAERO (Montepríncipe, Madrid): Focused on developing software for post-processing in CAE engineering applications, particularly in finite element analysis (FEM).
  • COMPOXI (Girona): An expert in manufacturing and processing high-performance composite materials for aerospace applications using various manufacturing techniques.

Additionally, subcontracted research entities supporting the project include:

  • AIMEN (Porriño, Pontevedra): A technology center specializing in composite material processing, digitalization, and automation.
  • IMDEA Materials (Getafe, Madrid): A research center specializing in experimental material science developments.

The SM@RTM project is funded under the Aeronautical Technology Program (PTA) and subsidized by CDTI through its 2022 call, with a duration of 26 months (2022–2024) and a total budget of €1,551,133.99.

Project SM@RTM (PTAP-20221007) financed by:

File Number: PTAP-20221007
Acronym: SM@RTM
Project Title: INTELLIGENT, ADAPTIVE, AND SUSTAINABLE TECHNOLOGIES FOR AGILE AND ZERO-DEFECT MANUFACTURING OF COMPOSITE MATERIALS THROUGH RESIN TRANSFER MOLDING PROCESSES
Granted Subsidy (€): 1,551,133.99 €
Duration: 2022 – 2024
Description: Aeronautical Technology Program (CDTI), 2022 Call

This project is funded by the Ministry of Science and Innovation and subsidized by CDTI.

For more information, visit the SM@RTM project website: https://www.smartm-id.com/

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