Continuous product innovation via research and development investments
Elsyca is committed to continuous product innovation and invests significantly in research and development.
Our ongoing collaboration with the University of Brussels (VUB) and other universities worldwide helps us to expand the body of knowledge on the fundamentals and science of electrochemical processes as well as to continually improve the effectiveness of computer modeling as a design and analysis tool.
In recent years, Elsyca has conducted R&D - both internal as well as funded - in several domains.
Development of environmentally friendly coatings on UHSS for the aerospace industry
The H2Free brings together a consortium of 4 outstanding Research Centres and 2 SMEs with complementary profiles and large expertise, covering the special skills, capabilities and certification expected for the project.
H2Free is a project funded by the EU Horizon 2020 Framework Research and Innovation Program and it is managed by Clean Sky Joint Undertaking (CSJU) through the CleanSky2 grant program.
PCB Plating Simulation
Supported by Vlaio funding, Elsyca develops the Elsyca PCBPlate software solution, an expert tool for the analysis and quality & performance improvement of copper plating processes in Printed Circuit Board manufacturing.
Development of new criteria for AC and DC Stray Current Interference
Supported by PRCI (Pipeline Research Council International), Elsyca develops high-end models for simulating the impact of AC and DC stray current interference on the corrosion rate of buried structures. The simulation results from these models allow for an adjustment and refinement of the governing norms for evaluating risks that evolve from these interferences.
Electropolishing of 3D printed metal parts
Supported by Vlaio funding, Elsyca develops a methodology for efficient electropolishing of complex shaped Ti alloy and stainless steel parts in order to reduce the high surface roughness that is inherent to 3D printing.
Pitting Corrosion Simulation
Elsyca participates in the European H2020 research project entitled ‘mCBEEs’. Within the scope of this project, pit corrosion populations will be studied, quantified, and modeled. The resulting models will then be coupled to the existing Elsyca CorrosionMaster platform for investigation of galvanic, atmospheric, and local corrosion phenomena.
Elsyca established a mathematical model to describe AC corrosion. The model includes the time-dependent electrical phenomena, the electrochemical reactions and the mass transport in the defect and the soil. The model shows an excellent agreement with real life test data for a large range of AC and DC process conditions.
Elsyca is instrumental in on-going research for the modeling of galvanic, uniform and localized corrosion and their coupling effects with the purpose of developing an engineering tool fit for designers as well as corrosion experts.
Atmospheric Corrosion of Aluminum Coated Steel
With funding of the RFCS program, Elsyca models the impact on the corrosion activity of the metallic coating compositions for various liquid films (pH, Cl, thickness ...) and to explore how the developed model can be integrated with life time prediction tools for real-life structures.
Multi-ion Transport Simulation - MIOTRAS
Elsyca has developed simulations tools based on multi-ion transport and reaction models, in order to extend electrochemical simulations beyond the scope of the potential model. This new model enables both simulations of advanced electrodeposition processes and localized corrosion phenomena.
To support its electrochemical simulation technology, Elsyca developed a proprietary wrapping and surface / volume meshing approach for complex 3D structures. This technology can be used stand-alone to generate high-quality meshes for applications outside of electrochemistry, such as acoustics, fluid flow and thermal analyses.
Inspection and structural monitoring of GBF foundations
Supported by Vlaio funding, Elsyca develops digitial twins of GBF (Gravity Based Foundation) monopiles in order to monitor the performance of the cathodic protection system of these structures, in term allowing more efficient inspection schemes.