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FOCUS K3D
FOster the Comprehension, adoption and USe of Knowledge intensive technologies for coding and sharing 3D media content in consolidated and emerging application communities

http://www.focusk3d.eu

FOCUS K3D is a Coordination Action promoting the comprehension, adoption and use of knowledge intensive technologies for coding and sharing 3D media content in application areas that are both consolidated in the massive use of 3D digital resources (like Biomedicine or Product Modelling) and emerging (like Gaming or Archaeology). The projects aims at:

  1. building multi-disciplinary communities of researchers, 3D content creators and users;
  2. identifying issues that currently inhibit a broader user participation in the production of 3D content, and initiatives acting as catalysts for such a development;
  3. promoting and evaluating the results achieved by recent and ongoing projects to identify promising future developments.

FOCUS K3D


Keywords: shape, semantics, knowledge, community.

Duration: March 2008 - February 2010

Funding Organization: European Commission

Funding Programme: IST Information Society Technologies - FP7 - Coordination Action

Partners:

  • Coordinator: CNR-IMATI-Ge
  • CNR-IMATI-Ge - Italy
  • CERETETH - Greece
  • EPFL - Swiss Federal Institute of Technology - Switzerland
  • FRAUNHOFER - Germany
  • INRIA - France
  • MIRALab - Switzerland
  • SINTEF - Norway
  • UU - Utrecht University - The Netherlands


SHALOM:
SHApe modeLing and reasOning: new Methods and tools

Ricerca Italiana - The SHALOM Project

The objective of SHALOM project is to study innovative methods for the analysis and synthesis of digital shapes, which constitute the most relevant part of visual media. A shape is any individual object having a visual appearance which exists in a two or higher dimensional space. Pictures, sketches, images, 3D objects, videos, animations are examples of shapes. Digital shapes occur and are used in many different contexts, such as industrial design, biomedical applications, entertainment, environmental monitoring, cultural heritage, and many more. Because of the evolution in hardware and in software technologies for acquiring and visualizing shape information and of the increasing number of applications which require more and more advanced and complex digital shapes, there is a real explosion of models, which cannot be represented with the necessary accuracy and conciseness nor retrieved from existing archives. The new problems related to this issue require efficient and effective solutions for both storing and retrieving information as well as for modelling and analysis, which need transformations among representations, extraction of salient features, reconstruction of complex shapes, etc.
The activities proposed by SHALOM are aimed at answering to the previously described requirements by integrating complementary research activities done by the three laboratories involved, in order to propose general solutions to unsolved or partially solved problems.

SHALOM


Keywords: shape, modelling, analysis, retrieval.

Duration: July 2006 - June 2009

Funding Organization: FIRB

Funding Programme: International cooperation Italy/Israel

Code: RBIN04HWR8

Partners:

  • CNR-IMATI-Ge - Italy;
  • DISI - Università di Genova - Italy;
  • Technion CGGC - Israel;


AIM@SHAPE:
Advanced and Innovative Models And Tools for the development of Semantic-based systems for Handling, Acquiring, and Processing knowledge Embedded in multidimensional digital objects

http://www.aimatshape.net

What are the common characteristics of shapes? They all have a geometry, they can be described by structures (object features and part-whole decomposition), they have attributes (colours, textures, names, attached to an object, its parts and/or its features), they have a semantics (meaning, purpose), and they possibly evolve in time (e.g. shape morphing, animation, video...).

AIM@SHAPE is a Network of Excellence aimed at coordinating research on representing, modelling and processing knowledge related to digital shapes.

AIM@SHAPE


Keywords: shape, semantics.

Duration: January 2004 - December 2008

Funding Organization: European Commission

Funding Programme: IST Information Society Technologies - Network of Excellence

Key Action: 2.3.1.7 Semantic-based knowledge systems

Partners:

  • Coordinator: CNR-IMATI-Ge
  • DISI - Università di Genova - Italy;
  • EPFL - Swiss Federal Institute of Technology - Switzerland;
  • IGD - Fraunhofer - Germany;
  • INPG - Institut National Polytechnique de Grenoble - France;
  • INRIA - France;
  • CERTH - Center for Research and Technology Hellas - Greece;
  • UNIGE - Université de Genève - Switzerland;
  • MPII - Max-Planck-Institut für Informatik - Germany;
  • SINTEF - Norway;
  • Technion CGGC - Israel;
  • TUD - Darmstadt University of Technology - Germany;
  • UU - Utrecht University - The Netherlands;
  • WIS - Weizmann Institute of Science - Israel.


Surface Analysis

http://www.ima.ge.cnr.it/ima/personal/CGG/SurfaceAnalysis.html

The Surface Analysis joint project is aimed at the exploration of algorithms for the segmentation, parameterization, and analysis of complex surfaces. Initially, it will focus on triangulation of static surfaces, with the intention to explore the generalization of the developed approaches to time-dependent surfaces models.

Surface Analysis

Surface Analysis


Keywords: parameterization, segmentation, compression, analysis of complex surfaces.

Duration: June 2002 - June 2005

Partners:

  • IMATI-GE CNR
  • GVU, Georgia Institute of Technology, Atlanta, USA


FIORES II: Character Preservation and Modelling in Aesthetic and Engineering Design

http://www.fiores.com

FIORES-II aims at building CAD tools which are capable to capture and preserve the product aesthetic character and make it accessible in a multi criteria approach for styling and engineering design optimisation. This will be achieved by reaching the following objectives:

  • Finding a formal structure in aesthetic properties and terms to capture the design intent and the styling character, basing on interviews and analyses of psychologists.
  • Finding a mapping of styling character descriptions on aesthetic properties. These properties should be objectively describable by computable and measurable parameters.
  • Developing methods for the extraction of aesthetic shape properties (algorithms).
  • Developing methods to optimise the design due to aesthetic and geometric respectively engineering requirements.

IMATI will contribute in particular to the definition and formalisation of the aesthetic properties that contribute to the shape character and of the relations among them.

Fiores 2


Keywords:CAD, CAS, Aesthetic design, Design intent, Styling workflow, Engineering in reverse.

Duration:2000 - 2003

Partners:

  •  
  • University of Kaiserslautern, Germany (Coordinator)
  • Alessi , Italy
  • BMW Technik GmbH , Germany
  • CAxOPEN product development technology GmbH , Germany
  • Centre de Recherche de Psychologie Coginitive , France
  • Eiger S.L., Spain
  • FORMTECH AB, Sweden
  • IMATI-GE CNR Italy
  • Pôle Universitaire Léonard de Vinci, France
  • Saab Automobile AB, Sweden
  • Samtech SA , Belgium
  • think3 SPA , Italy
  • UDK Utvechling, Sweden


FreeForm Deformation for Aesthetic and Engineering Design

http://www.ima.ge.cnr.it/ima/personal/FFF/FFDeformation.html

The research includes the study of deformation methods for free-form surfaces inside the design process of products, subjective to aesthetic and engineering requirements. In the study of deformation methods the specification and identification of geometric features forms the basis of a free form surface modification process. The mentioned features designate data structures, the operators, the properties of deformation methods that fit into the requirements and constraints expressed by the designer.

FreeForm Deformation


Keywords:free form modelling, free form features, surface deformation, industrial design.

Duration: 2001 - 2003

Partners:

  •  
  • IMATI-GE CNR Italy
  • Laboratory 3S- Ecole Nationale Supérieure d'Hydraulique et de la Meécanique, Grenoble, France http://www.3s.hmg.inpg.fr


Shape-based Meshing Techniques

Depending on the application, a triangulation can be treated in order to improve its behavior under particular circumstances; the typical example is the Delaunay Triangulation which usually optimizes the numerical robustness, however other kinds of optimization may be more suitable in different cases. When an application deals with models of well known shape, for example, it could be preferable to maintain some characteristics of the represented object rather than optimize everything using the Delaunay criterion; moreover, these meaningful characteristics, or features, can be exploited for a wide range of goals, like high-level description of the shape, model compression, construction of levels of detail for multiresolution and so on.
Shape reasoning can give an extensive help for the development of a comprehensive conceptual model for the representation of semantic and topological properties of structural surface feature classes, and the automatic feature extraction from various data structures (grid, TIN, lines, etc.). Such tools can be used in order to improve the polygonization process and to construct more semantically detailed meshes.
The research topics which we planned to tackle in this research agreement will cover:

  • Shape modeling and analysis
  • Shape-based Polygonization Techniques
  • Error evaluation for polygonization processes
  • Multiple representation of 3D surfaces

Polly


Keywords: Shape modeling and analysis,Shape-based Polygonization Techniques Error evaluation for polygonization processes, Multiple representation of 3D surfaces.

Duration: 2000 - 2003

Partners:


FIORES: Formalization and Integration of an Optimized Reverse Engineering Styling workflow

http://rkk.mv.uni-kl.de/FIORES/home.html

Obiettivo di questo progetto è l'introduzione di soluzioni innovative nel processo di progettazione assistita da calcolatore per quanto riguarda la fase di disegno estetico. A questo scopo, vengono proposti una nuova interfaccia utente e un nuovo insieme di strumenti per verificare la qualità morfologica del disegno, al fine di agevolare l'accettazione degli strumenti informatici di progettazione da parte dello stilista. Viene inoltre fornita all'utente la possibilità di specificare in maniera oggettiva le proprietà della forma del prodotto, in modo da potenziare le tecniche di Reverse Engineering per la costruzione di un modello con le caratteristiche volute.

Fiores


Keywords: Computer-Aided Styling, Engineering in reverse, Feature-based modeling, working with properties.

Duration: 1997 - 2000

Partners:

  •  
  • University of Kaiserslautern, Germany (Coordinator)
  • BMW AG, Munchen, Germany
  • IMATI-GE CNR
  • PININFARINA Studi e Ricerche, Torino, Italy
  • MATRA DATAVISION, Paris, France
  • SAMTECH SA, Liège, Belgium
  • Centro Internationel de Métodos Numéricos (CIMNE), Barcelona, Spain
  • Eiger S.L., Barcelona, Spain
  • Taurus Electrodomesticos, Oliana, Spain
  • FORMTECH AB, Torslanda, Sweden
  • Saab Automobile AB, Trollhattan, Sweden
  • UDK Utveckling, Savedalen, Sweden


High-Quality Digital Terrain Modelling

The project addresses the frequent requirement of scientists, engineers, decision makers, to access, process and visualize vast amount of surface data. Moreover, special care has to be devoted to uncertainty handling: traditional modelling techniques are unable to explicitly represent uncertainty which may derive from the surface sampling process, and are also insufficient to support the users with quality assessment tools for validating the surface model and related analysis processes. In the described scenario, the IMA-CNR will develop for the Monolith co. an advanced system for modelling and processing surface data which integrates traditional techniques (e.g. triangulation, grids or contours) with tools for the analysis of shape features (e.g. critical point and line extraction, curvature analysis). Shape features are essential for defining high-level representations of surface data which capture the main structure of surfaces (conceptual modelling). Special emphasis will be put on the definition of simplification and compression tools for both for data and models (e.g. decimation, vertex or edge collapse, fuzzy-like data clustering).

High Quality DTM


Keywords: Digital terrain modelling, data simplification, topographic feature extraction, conceptual modelling.

Duration: 1998-2001

Partners:

  •  
  • IMATI-GE CNR
  • Monolith co. Ltd., Tokyo


Analysis of Digital Terrain Model for the detection of topographic features of interest for the environment protection

The objective of the project is to study methods of geometric reasoning for the analysis of digital terrain models to detect morphological information of interest in the environment study. The main aim is to construct a computational module to automatically detect relevant topographical features from the ambient point of view, such as: mountain mounts, mountains and gutters of rivers. The modules is integrated in the Geographic Information System SPRING developed by the Brazilian team.


Keywords: Digital terrain model, Surface characterisation, Geographic Information System.

Duration: 2001

Partners:

  •  
  • INPE - Instituto Nacional de Pesquisas Espaciais, Sao Josè dos Campos, Brazil
  • IMATI-GE CNR


Mediterraneo: Enhancing Product Development Through Physical prototype Rapid e-Delivery

The primary aim of the network is to increase the awareness of e-business advantages for product development, taking advantage of the existing technologies independently of their physical location, thus allowing a better exploitation of production capabilities and collaboration of remote countries. The network will share the parteners' competencies in order to increase the knowledge in

  • distributed collaboration
  • shape recognition
  • rapid prototyping technologies and requirements

and to coordinate current research activities of the partners to enforce research collaboration.


Keywords: geometric modelling, distributed product development.

Duration: 2001 - 2002

Partners:

  •  
  • IMATI-GE CNR (Coordinator)
  • Department of Manufacturing EngineeringUniversity of Malta (Coordinator)
  • Technimold S.r.l.V. Genova, Italy
  • FhG-IPA: Fraunhofer-Institut fuer Produktionstechnik und Automatisierung Manufacturing Engineering and Automation Technische Informationsverarbeitung Stuttgart - Germany


European Project ESPRIT "COWORK: COncurrent project development IT tools for small-medium enterprises netWORKs"

http://www.tekniker.es/cowork

The COWORK project is targeted at developing a new software tool enabling Small and Medium Enterprises (SMEs), working in the mechanical sector, to cooperate in a distributed engineering environment to dramatically save time and reduce products engineering costs. This objective may be reached by encouraging SMEs enterprises to systematically apply Concurrent Engineering and Co-design techniques, duly supported by a new specially-conceived software.

COWORK


Keywords: Concurrent Engineering, Co-design.

Duration: 1997-2000

Partners:

  •  
  • FUNDACION TEKNIKER Spain (Coordinator)
  • FATRONIK SYSTEM Spain
  • Tkm XXI Spain
  • GORATU Spain
  • DEMOCENTER Italy
  • CNR-IMATI Genova
  • ZGDV Germany
  • Fraunhofer IGD Germany
  • PROSTEP Germany
  • AMCO VEBA Italy
  • ELLETTARI Italy
  • TECNOMET Italy
  • SPEED AUTOMAZIONE
  • RMT Germania


ARION: An Advanced Lightweight Architecture for Accessing Scientific Collections

http://www.arion-dl.org

ARION is aiming to provide a new generation of Digital Library services for the searching and retrieval of digital scientific collections that reside within research and consultancy organisations. These collections contain data, programs and tools in various scientific areas and incorporate applications of different domains of knowledge. ARION advances the findings of previous studies in areas, such as, management of networked scientific repositories and metacomputing. It consolidates the work of international interoperability standard development to provide a system that is complementary to established scientific practices in these organisations. ARION will be a federated open system and will be developed in association with national data providers, scientific researchers and SME’s to ensure that the project meets their needs.

Arion


Keywords: Digital Scientific Library.

Duration: 2001-2003

Partners:

  • Foundation for Research and Technology, Institute of Computer Science, Heraklion, Greece (Coordinator)
  • HR Wallingford Ltd, Wallingford, Great Britain
  • Joint Research Center, Space Application Center, Marine Environment Unit, Ispra, Italy
  • National Technical University of Athens,Greece
  • Oceanographic Company of Norway ASA, Trondheim, Norway
  • University of Crete, Heraklion, Greece
  • IMATI-GE CNR