Course syllabus AFDI - Finite Elemet Method in Wood Technology (FFWT - SS 2018/2019)


     ECTS syllabus          Syllabus          Timetable          


     Czech          English          


Course code: AFDI
Course title in language of instruction: Aplikace FEM v dřevařském inženýrství
Course title in Czech: Finite Elemet Method in Wood Technology
Course title in English: Finite Elemet Method in Wood Technology
Mode of completion and number of credits: Fulfillment of requirements (4 credits)
(1 ECTS credit = 28 hours of workload)
Mode of delivery/Timetabled classes: full-time, 0/3 (hours of lectures per week / hours of seminars per week)
part-time, 18/0 (lectures per period / seminars per period)
Language of instruction: Czech
Level of course: bachelor; master; master continuing
Semester: SS 2018/2019
Name of lecturer: Ing. David Děcký (instructor, lecturer)
Ing. Jaromír Milch, Ph.D. (instructor, lecturer)
Ing. Pavlína Suchomelová (instructor, lecturer)
Ing. Jan Tippner, Ph.D. (examiner, instructor, lecturer, supervisor, tutor)
Mgr. Ing. Miroslav Trcala, Ph.D. (instructor, lecturer)
Ing. Barbora Vojáčková, DiS. (instructor, lecturer)
Prerequisites: State Bachelor Examination
 
Aims of the course:
To acquire knowledge of mechanics of continuum and thermodynamics of continuum in advanced problems of wood technology and processing, knowledge of principles of the finite element method, the knowledge of procedure of numerical model building. To acquire advanced skills of use of the simulation software include scripting.
 
Course contents:
1.Introduction: mechanical models of solid wood (orthotropy, diversion fiber, the influence of moisture, interpretation of results). Selected numerical methods for solving of differential equations, introduction of variational methods, introduction to finite element method, modeling of basic physical phenomena, implementation of fields of physics. (allowance 0/3)
2.Mechanical models of composites (layered composites with fiber inclination, bonded line, particle composites, modeling of the density distribution, sandwiches, laminates). (allowance 0/3)
3.Diffusion and coupled models of wood and wood-based materials (heat, humidity, coupling -thermo and hygro-expansion). (allowance 0/3)
4.Orthotropic shell models with composite wood-based physical analysis of the, the beam models for static and dynamic solutions. (allowance 0/3)
5.Solid mechanics models of details of wooden structures, plane thermal problems (structure, thermal bridges). (allowance 0/3)
6.Solid thermal analysis (heating, drying, modification). (allowance 0/3)
7.Probabilistic sensitivity analysis (impact factors, changes in geometry, material changes). (allowance 0/3)
8.Dynamic analysis for beam, shell and solid elements (modal, harmonic and transient problems), acoustic analysis. (allowance 0/6)
9.Design optimization and topology optimization. (allowance 0/3)
10.Work on the project, presentation / defense projects. (allowance 0/9)
 
Learning outcomes and competences:
Generic competences:
 
-Ability to analyse and synthesize
-Basic computing skills
-Skilled at utilizing and processing information

Specific competences:
 
-Ability to solve problems in 3D space
-Knowledge of the kind of materials, their properties and using
-Master mathematical tools necessary for solving real world problems
-Technical problems analysis and resolution

Type of course unit: required
Year of study: Not applicable - the subject could be chosen at anytime during the course of the programme.
Work placement: There is no compulsory work placement in the course unit.
Recommended study modules: -
 
Learning activities and study load (hours of study load):
Type of teaching methodDaily attendanceCombined form
Direct teaching
     practice39 h18 h
     consultation24 h34 h
     project work7 h12 h
     public presentation (oral)3 h1 h
Self-study
     preparation for regular assessment3 h3 h
     preparation of presentation6 h6 h
     writing of seminar paper30 h38 h
Total112 h112 h
 
Assessment methods:
A defense of seminary project: presentation and discussion. The project (10-20 pages, standard structure) consist of building of numerical model, numerical analysis and interpretation of results.
 
Recommended reading:
TypeAuthorTitlePublished inPublisherYearISBN
RQMADENCI, E. -- GUVEN, I.The finite element method and applications in engineering using ANSYSNew YorkSpringer20060-387-28289-0
RQKOLÁŘ, V. -- NĚMEC, I. -- KANICKÝ, V.FEM - Principy a praxe metody konečných prvkůPrahaComputer Press199780-7226-021-9
RQNAKASONE, Y. -- YOSHIMOTO, S. -- STOLARSKI, T A.Engineering analysis with ANSYS softwareAmsterdamButterworth-Heinemann20060-7506-6875-X
RQMOAVENI, S.Engineering fundamentals: an inroduction to engineeringStamford, CTCengage Learning2011978-1-4390-6210-4
RQFinite element analysis: theory and application with ANSYSUpper Saddle River, N.J.Pearson Prentice Hall978-0-13-241651-1
RQFinite element simulations with ANSYS workbench 14: [theory, applications, case studies]Mission, Kan.Schroff Development Corp.2012978-1-58503-725-4
RQTOPPING, B H V.Advances in computational structural mechanicsEdinburghCivil-comp press19980-948749-57-1
RQBARBERO, E J.Finite element analysis of composite materialsBoca RatonCRC Press978-1-4200-5433-0
RQMultiphysics modelling with finite element methodsNew Jersey ;London :9789812568434
REBRDIČKA, M. -- SAMEK, L. -- SOPKO, B.Mechanika kontinuaPrahaAcademia200580-200-1344-X
REGRIFFITHS, D.Programming the finite element methodChichesterWiley2014978-1-119-97334-8
RETOPPING, B H V. -- KUMAR, B.Developments in analysis and design using finite element methodsEdinburghCivil-Comp19990-948749-61-X
REZIENKIEWICZ, O. -- TAYLOR, R.The finite element method : Solid and fluid Mechanics, dynamics and non-linearity . Volume 2BerkshireMcGraw-Hill19910-07-084175-6
REProcess modelling and simulation with finite element methodsSingaporeWorld Scientific2004981-238-793-5

RQrequired
RErecommended


Last modification made by Ing. Alice Malá on 01/03/2019.

Type of output: