www.mihalygroup.com

• Deliver the current and future system architecture and technology contribution of French R&D Océ site (100 people) to the business goals of the Océ Canon group• Created and managed the architecture team of 5 people that created the system architecture used for all the wide format products in Océ-Canon group graphic arts portfolio.• Participation to new market and product studies (10 people for 1 year). The group delivered recommendation for new product lines to the board of Océ• Participation to the corporate strategy group reporting to the board of Océ (11 people from all Océ sites) creating a proposal for new opportunities and corporate directions

• Lead the research transversal team on new domains like 3D digital technologies for printing, viewing and material reproduction. The team manages 5 PhDs and was part of the organization of the Electronic Imaging conference in San Francisco• Create academic and industrial partnerships for open innovation resulting in co-creation of products and technologies (micro-encapsulation, predictive maintenance of systems, innovation methodologies…)• We can build and validate one innovative product proposal per year in the roadmap of the Océ – Canon group by applying agile development and design thinking processes.

• Creation of a new color management and pipeline technology targeting all product categories and applications: from textile to papers and from 2D to 3D printing technologies.• Lead the team and manage the delivery milestones. The team is staffed with 6 SW algorithms and color management specialists.

• Lead the team made of scientists, functional analysts, engineers, business developer and salesman (up to 17 people).• Created and managed the research and the development of the Océ HiRes 3D technology. The high resolution 3D technology is part of the core technologies of Canon and many products or function are based on the technology like fine art reproduction or decoration. The technology had a large showroom at the Canon Expo 2015 (Paris, New York and Tokyo)• Participated to the business unit’s team (3 people) leading the creation of a startup (http://www.projecteiger.com/) dedicated to a new 2.5D/3D printing service based on 3D HiRes technology.• The technology is delivered

• Reporting to the French CTO, the project changed the site to an entrepreneurial and innovative culture.• Proposed and implemented a process for innovation including events and portfolio management in France and exported in the rest of the group.• Lead the technology roadmaps for all the product lines of the French site in relation with the Business Unit « Wide Format Printing Systems » (Corporate Headquarter)• Lead the research team on image processing and digital documents reproduction.• Created a research and innovation transversal team• The vision on all technologies related to the Océ business in France was created and mapped over the next 5 years to increase the efficiency of the investment.

• Creation, organization and management of a project team developing a new system controller for wide format printing systems targeting new markets like graphic arts.• The team setup the next controller architecture and new innovative product options like the Océ Print Assistant started in the ColorWave 600 (wide format printing system), a full color versatile image processing pipeline (1 sq/m2 per second using GPU) and a new local adaptive gamut mapping algorithms for color management

• Member of the Corporate Architecture Group responsible of the definition of the architecture used by all the Océ products and reporting to the SVP R&D• Led the architecture team of the Document Imaging department. The department developed the image processing software components and all the graphical languages used in the Océ systems. The team built a system supporting 25 graphical description languages delivered in 100K professional printing systems around the world.• Led the discussion with industrial partners for the definition of new languages targeting new markets in technical drawing and 3D. Océ systems were the first to implement PDF/e from Adobe and DWF from Autodesk as native languages.

• The team was responsible to lead the software and hardware architecture definition and its implementation in 4 products in parallel. The development was distributed on 4 sites around the world: France, USA, Romania and the Netherlands.• Management of the relationship with industrial partners like Adobe and Autodesk. Planning definition of the codevelopment and products launch with the business unit and the partners.• Creation of the first roadmap for the technologies and functionalities of the Océ group for the controllers with a perspective of 5 years. It was used for the definition of the development strategy of the systems and the allocation of the budgets. Now the road mapping procedure is part of the process of the Océ group.• The software platform was enhanced by including a distributed object server and reshuffling the architecture layers like creating a new layer of business objects. The development of a system was mainly based on configuration.

The TCS 400/500 were a wide format printing systems for the CAD industry.• Led the technical investigations of the first color controller of Océ, the PowerLogic attached to the TCS400 wide format printing system (~2 000 000 lines of C++)• Led the functional specifications of the first color system built by Océ• Creation of an image processing framework based on software components. The software component concept was spread within Océ and many of the software architects and developers were trained by the team. The framework was used in all R&D sites of the Océ group• The TCS 400 color system was the first to include a programmable and configurable color pipeline for the print and the copy. This enabled the creation of a new system made of a new scanner and a new printing technology in 2 weeks instead of 3 months.

•In Catia/Enovia, architect for the business objects of Catia/Enovia Product Data Management at Dassault Systèmes.•Led the specification and development of the framework to share the objects among the distributed software for the product data management system. The framework was part of the marketing campaign to promote the new version of the Enovia software.

CAS.CADE Software Factory is a framework providing all the software components to develop technical and scientific products related to 3D and simulation in various industries like aeronautic and car manufacturing.Achievements and responsibilities:• Led the architecture and performance team of the CAS.CADE software factory and software products developed on that framework.• The performance of the persistence increased by 100% and many CAD algorithms were enhanced in performance and strength.• The memory consumption decrease by 30% - a car in 3D was about 1 billion facets

• Lead the creation of a rheology’s post processor for Renault car manufacturer (C, OpenGL with 3 people). The software was able to show in 3D all the injection layers and the flow of material per layer in the mold. An algorithm to manage the illumination of the model was also implemented to ease the analysis of the process. The software was presented and sold to other companies in various industries.• Creation of an algorithm able to measure the minimal distance between two 3D surfaces used in the Euclid 3D CAD software. The algorithm had a precision of 12 figures and was used for mold tooling creation and other industries that needed to take care of the physical properties interaction between parts.• Creation of the transient and persistent model of the CAS.CADE (www.opencascade.org) software framework.• The system was able to manage 5000 transient classes and 500 persistent classes. All object databases (O2, ObjectStore and Objectivity) used were isolated and exchangeable. A library of large 3D persistent object was created to avoid the limitation of the object databases. This opened the way to store very large object like a complete car in one base.• Definition of the architecture of the integrated development environment for the CAS.CADE framework. All the build management was automated and integrated. The environment also allowed the deliveries between the teams developing the various parts of the CAS.CADE framework and the product based on that platform. Around 60 developers were able to work simultaneously with the framework on 5 different products targeting 6 computer operating systems.

Algorithm to calculate the minimal distance between a surface and a volume (Fortran):Lead the algorithm creation and the integration within CAD software (Euclid 3). The algorithm had 12 digits accuracy. The algorithm has been used for mold conception and collisions detection. Managed a development team of 2 people.