Because things have changed!

Development of software for the assistance of engineering activities started with functionalities to replace manual documentation work and to allow for engineering activities which can not be achieved by conventional methods during the seventies and eighties. During nineties, associative parametric object model was a great advancement in modeling mainly in development, analysis, and manufacturing planning of parts and assemblies. Two main achievements at the start of this century were contextual integration of engineering model and reusing proven practice and experience controlled active knowledge. Recent developments targeted modeling of engineering structure (product or experimental configuration) as system, integration of research in modeling of these structures, development of multidisciplinary structure using a single model, and organizing knowledge in intellectual property (IP) of an organization. New and not everywhere recognized new achievement is the inherent integration of theory and practice in engineering modeling environment. Separation of theory and practice seems to be over soon.

The Laboratory of Intelligent Engineering System and its predecessor laboratories (see below) were developed along the above road and always represented the highest level engineering technology. Teaching programs, research results, and high number of internationally recognized publications are evidences of a continuous development.

This is a knowledge driven active laboratory where students and teachers communicate with active modeling procedures in order to better understand competences, projects, and case studies during lectures and laboratories.

Future of the laboratory is anticipated as a 21st century virtual space in which arbitrary virtual spaces can be opened as service from cloud for the purpose of university courses, research and development consortium and other projects, public relation and education activities, etc. This improvement will depend on future accepted development program and availability of resources.

We are waiting for BSc, MSc, and PhD students who would like learn about the most advanced engineering methods using most advanced engineering information technology. Courses and topics are announced in programs of the Óbuda University.

ABOUT AND PURPOSE UNIVERSITY COURSES RESEARCH TOPICS AND RESULTS

Purpose of the laboratory is introduction, teaching, research and application of theories, methodologies and systems which represent and integrate leading theory and practice of engineering in consistent systems of twenty-first century model centric engineering informatics.

Research and education laboratory provides integrated multidisciplinary environment for virtual engineering. It represents leading industry level information system for lifecycle activities of engineers. Emphases are on requirements, functional, logical and physical (RFLP) structure based product modeling, and representation of active engineering knowledge using applied mathematics and intelligent computing. Laboratory background is provided for the Institute of Applied Mathematics, John von Neumann Faculty of Informatics and the Doctoral School of Applied Mathematics and Applied Informatics at the Óbuda University in the areas of applied mathematics and intelligent informatics. More information. 

Laboratory offers courses in PLM related informatics, mathematics, engineering modeling, and systems engineering for students who enrolled in information technology, multidisciplinary engineering, and PhD research programs. Courses are available on BSc, MSc és PhD levels.

 

Essential outcome of course programs is seeing and thinking in engineering specific virtual information space. Basic outcome is to understand self adaptive generic object modeling which is based on built in active knowledge and high level abstraction. In order to achieve new learning outcomes lectures can be arranged in laboratory with personally available model space at student workstations in case of courses where small group (max. 14)is feasible.

 

 

 

Information about courses in English by
 László Horváth

 

Survey of research area.

Research results are shown in the linked publications below!

Former topics:

Human intent modeling for adaptive product model.

Virtual engineering space.

Information Content in Product Model.

 

Current topics:

Requested Behavior for the control of product definition.

Abstraction based self adaptive object definition.

Coordinated request driven product model (CRPM)

Knowledge integration in product model.

System of systems in PLM.

Multilevel Abstraction Based Self Control Method for Industrial PLM Model

 

Formerly completed research projects in the Hungarian Scientific Research Fund (Hungarian abbreviation: OTKA), (Project leader: László Horváth)

Representation of design intent in product model and collaborative information exchange, 1998- 2002, OTKA T 026090
Theoretical grounding and development of intelligent, environment adaptive objects in highly integrated product models, 2002-2005, OTKA T037304.
Theoretical analysis and grounding of selected virtual engineering processes in novel approach, a 2008-2011, OTKA K68029

COMPETENCY CENTRE SYSTEM AND TECHNOLOGY STUDENT PROJECTS

Modeling system and associated virtual technology supports university level education and research in lifecycle management of product information (PLM). Currently, laboratory is based on the Dassault Systémes V6 and V5 PLM installation. Our license is for education and nonprofit research without providing models for outside organization. In case of company ordered and financed modeling, we must ask for research license. Our current V6 PLM  includes the discover level. Master and advance level extension is planned mainly for the RFLP structure based product definition. Multilevel Abstraction Based Self Control Method for Industrial PLM Model.

 More information (coming soon).

Students are welcomed to solve complex tasks in intelligent informatics, applied mathematics, and systems engineering. Advanced 21st century PLM environment is available at the laboratory for

BSc degree work,

MSc degree work, and

PhD  project topics

 

 

FORMER LABORATORIES CONTACT AND MAIN LINKS PUBLICATIONS

We consider it important to preserve and make available the relics, which represent the intellectual content of our former  world-class teaching and research laboratory systems!

First laboratory: Microwax II. és PC platform

ComputerVision Personal Designer and Machinist (1992-2000), Solid Edge (1996-2002), and HP ME 10 on PC 386 platform. Systus FEM/FEA on Microwax II  and Motif emulation on PC 286  platform.

Laboratory of Integrated Engineering systems

MATRA  Datavision Euclid 3 (1993-1999), RDSC I-DEAS (1994-1996), Alias Designer (1994-1996),  HP Solid Designer (1995-1996), ARRIS (1993-1999) on Silicon Graphics INDY (1993-1998), INDIGO2 (1993-2005) RISC workstations, ,

New laboratory of Integrated Engineering systems

Dassault Systemes CATIA 4 (1999-2005) on Silicon Graphics INDIGO2 (1993-2005) and O2 (1998-2005).

Small museum exhibition is arranged about the above items in the lecture theatres area of the Óbuda University, Building A , Bécsi u. 96/b, 1034 Budapest. You are welcome to see the original iconic units and elements of the above laboratory systems. Illustrated information about the original software packages is also provided.

Complete collection of handbooks and other documents of the above hardware and software systems including iconic workstation manuals, as well as operating systems and engineering software documents was also preserved and available to see.

László Horváth

Professor Emeritus

H-1044, Budapest, Bécsi u. 96/b

Phone: +36-1-666-5524

E-mail: horvath.laszlo@nik.uni-obuda.hu

http://users.nik.uni-obuda.hu/lhorvath/

 

 

 

 

Main links:

Óbuda University

John von Neumann Faculty of Informatics

Institute of Applied Mathematics

Doctoral School of Applied Informatics and Applied Mathematics

CAD-Terv Ltd.

Introduction some of latest research results

New Method for Intellectual Content Driven Generic Product Model Generation

Towards Knowledge Driven Adaptive Product Representations

Active Driving Content in RFLP Structured Product Model

Request Driven Generation of RFLP Elements at Product Definition

Product Behavior Definition for Element Generation in RFLP Structure

List of publications

Three milestones