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Riadok 1: Riadok 1:
 
[[File:ca10_lesson01.png|link=#Lectures]]
 
[[File:ca10_lesson01.png|link=#Lectures]]
 +
= Physical based Animations and Mathematical Modelling (Course Materials) =
 +
__TOC__
  
 
This lecture ...
 
This lecture ...
−
 
 
* Will focus on simulating natural phenomena
 
* Will focus on simulating natural phenomena
 
* Will show you what are current topics
 
* Will show you what are current topics
Riadok 10: Riadok 11:
 
** Algorithms and data structures
 
** Algorithms and data structures
 
* Hopefully will not be boring
 
* Hopefully will not be boring
 +
 +
== Student Projects ==
 +
* Stránka [http://ukapra.php5.sk/index.php?id=proj-mmca Ráno do práce]
 +
* Stránka [http://www.st.fmph.uniba.sk/~palenikova12/gsvm/mmafp.html The_good_the_bad]
 +
* Stránka [http://amigo.sk/www/kiwi/ Kiwi] Animácia [http://www.youtube.com/watch?v=DFqMc8JZPA8 KiWi]
 +
* Stránka [http://www.st.fmph.uniba.sk/~vidlickova6/stranka/progres.html Knihy] Animácia [http://www.youtube.com/watch?v=pXXa0C74IJk&feature=youtu.be Knihy]
 +
* Stránka [http://www.st.fmph.uniba.sk/~franta2/ca.html Motorka]
  
 
== D-E-A-D-L-I-N-E-S ==
 
== D-E-A-D-L-I-N-E-S ==
−
* Written exam (optional): <b>deadline 19.1.2014, 8:00, classroom A</b>
+
* Animators team (Axx): <b>deadline 14.12.2015 the last lecture</b>
−
** Instead of (optional) oral exam, you can get (-20 ... +20) points due to a written exam.
+
** Show your animation, how far have you made it. It should be 30% of the work done, otherwise your team gets Fx.  
−
** It will be similar to final term, but less complicated.
+
* Coders team (Cxx): <b>deadline 17.12.2015 the last exercise</b>
−
* Scientists (Pxx): <b>deadline 23.1.2010</b>, session: <b>24.1.2010 - 28.1.2010</b>
+
** Show the short DEMO of your project, how far have you made it. It should be 30% of the work done, otherwise your team gets Fx.
−
** Choose presentation date [https://spreadsheets.google.com/viewform?formkey=dHFVa3dHNm1BYlZ0bUFuV0FPVWlFTXc6MQ HERE]
+
 
−
** Send to onderik@sccg.sk finished presentation (zipped pdf)
+
* Coders team (Cxx): <b>deadline 26.1.2016</b>
−
** Attend presentation session and present your topic
+
** Create a web page where you write your progress, upload source code, executable, images description of your project and short manual.
−
** If you send it earlier you can get feedback how to improve your presentation
+
**Send link to finished application (zipped source + executable.)  
−
* Coders (Cxx): <b>deadline 30.1.2011</b>
+
**Your code should be well formatted and commented. Titles of functions, classes, variables should be representative for their purpose.
−
** Send to onderik@sccg.sk finished application and some note if source code should be private (zipped source + executable.)
+
−
** Executables will be public on this page. Sources only if author allow it.
+
 
** If you send it earlier you can get feedback how to improve your application
 
** If you send it earlier you can get feedback how to improve your application
−
* Animators (Axx): <b>deadline 30.1.2011</b>
+
* Animators team (Axx): <b>deadline 26.1.2016</b>
−
** Upload your animation video on youtube (or some alternative online service)
+
** Create a web page where you write your progress, upload animation, source of animation, images description of your project and describe all physical effects to be evaluated.
−
** Send to onderik@sccg.sk link to your animation (link to youtube)
+
** Upload your animation video on youtube (or some alternative online service)
 +
** Send link to your webpage
 
** If you send it earlier you can get feedback how to improve your animation
 
** If you send it earlier you can get feedback how to improve your animation
 +
* Oral/written exam (optional): <b>deadline 18.1.2016, 8:00, classroom A</b>
 +
** Instead of (optional) oral exam, you can get (0..+20) points due to a written exam.
 +
** It will be similar to final term, but less complicated.
  
 
== What you Need to Pass ==
 
== What you Need to Pass ==
  
−
* Attend lessons. All lessons attended is +10 points. One missed +0 points. 2 missed 0 points, 3 missed 0 points, 4 and more is Fx.
+
* Attend lessons. All lessons attended is +0 points. Four and more missed is Fx.
−
* Show your project (mandatory, 60 points) See later.
+
* Show your project (mandatory, 60 points). See later.
−
* Pass final term (mandatory, 30 points) You will need to solve several problems discussed during lessons.
+
* Solve all homework problems (mandatory each one >=30%, 40 points)
−
* Pass oral/written exam: (optional, +/-20 points) If you feel you are better, convince me ! You can get +20 points or loose -20 points.
+
* Pass oral/written exam: (optional, +0 .. +20 points) If you feel you are better, convince me ! You can get +20 points max.
 
* Summary
 
* Summary
−
** Attendance = +10..0 or -100 (Fx)
+
** Attendance = +0 or -100 (Fx)
 +
** Homework = +40..+12 or 12..0 (Fx)
 
** Project = +60..0  
 
** Project = +60..0  
−
** Final term = +30..0
+
** Oral/written exam optional = +20..0
−
** Oral/written exam = +20..-20
+
  
 
* Grades
 
* Grades
−
** A = 92-120
+
** A = 92-100
−
** B = 82-91
+
** B = 84-91
 
** C = 76-83
 
** C = 76-83
 
** D = 68-75
 
** D = 68-75
 
** E = 60-67
 
** E = 60-67
−
** Fx = 0-49
+
** Fx = 0-59
 +
 
 +
* '''[https://docs.google.com/spreadsheets/d/1qLjrRDJcDR3TAiJYGO6ns1_eE1Rd1395TKixDtwKXPM/edit?usp=sharing VIEW RESULTS]'''
 +
 
 +
=== Oral Examination ===
 +
To the oral examination all the above requirements must be SATISFACTORILY completed.
 +
 
 +
== How to Arrange your Project ==
 +
 
 +
* Take 1 friend and Team up
 +
* Role1: The Coder
 +
** Choose a given animation algorithm
 +
** Code up hot demo app and show it
 +
** Present a selected research paper
 +
* Role2: The Artist
 +
** Choose some authoring tool and create hot physically based demo reel
 +
** Present a selected research paper
 +
** Prepare a written report, at least 2 A4 pages, on the topic of state exam question.
 +
* Projects with minimal requirements: [[media:Projects.pdf|Projects.pdf]]
 +
 
 +
* Teams fill the '''[https://docs.google.com/forms/d/1rgo9uNlc1AhvSCjpi9OXtB6C3dewOByfVzwQ1pZKrNY/viewform?usp=send_form form]''' (names and project): <b>deadline 5.10.2015</b> Submit a link to created web page with project description or animation story board where you write your progress, continually.
 +
----
 +
 
 +
 
 +
=== Lesson01 "Introduction to Computer Animation" ===
 +
[[File:ca10_lesson01.png]]
 +
* Introduction to Computer Animation
 +
* Common animation techniques
 +
* Cutting edge tools and packages
 +
* Gurus and the State of the Art
 +
* Lecture schedule
 +
* "Terms and conditions" of this lecture
 +
* Lecture notes: [[media:ca15_lesson01.pdf|lesson01.pdf]]
 +
 
 +
 
 +
=== Lesson02 "Basic methods in Computer Animation" ===
 +
[[File:ca10_lesson02.png]]
 +
* Problem definition and motivations
 +
* Key-framing and parameter interpolation
 +
* Quternions, orientation
 +
* Skeleton and skinning animation
 +
* Forward and inverse kinematics
 +
* Procedural techniques
 +
* (Motion capture)
 +
* Lecture notes: [[media:ca15_lesson02.pdf|lesson02.pdf]]
 +
* Štátnicová téma: S1 Animácie pohybu a orientácie, interpolačný spline na animáciu pohybu, splinu podľa dĺžky krivky, quaternion a orientácia, interpolácie dvoch a viacerých quaternionov.
 +
 
 +
 
 +
=== Lesson03 "Particle Systems" ===
 +
[[File:ca10_lesson03.png]]
 +
* Newton dynamics of particles
 +
* Ordinary differential equation (ODE) solver
 +
* Particle - obstacle collision detection
 +
* Practical design of particle system
 +
* Demos / tools / libs
 +
* Lecture notes: [[media:ca15_lesson03.pdf|lesson03.pdf]]
 +
* Štátnicová téma: S2 Numerické riešenie diferenciálnych rovníc, Eulerova metóda, MidPoint metóda, Runge-Kuta metóda, podmienka stability na voľbu časového kroku, sily odozvy (response forces).
 +
 
 +
 
 +
=== Lesson04 "Soft bodies, Cloths and hair” ===
 +
[[File:ca10_lesson11.png]]
 +
* Problem definition and motivations
 +
* Modeling solids with stress and strain
 +
* Extending Mass-spring model for cloth and ropes
 +
* Massive (self) collision and resolution for cloths
 +
* Mesh-less deformations
 +
* Modeling solids with infinitely stiff springs
 +
* Demos / tools / libs
 +
* Lecture notes: [[media:ca15_lesson04.pdf|lesson04.pdf]]
 +
* Štátnicová téma (Lesson 3,4): S3 Časticové systémy, rovnice pohybu prvého rádu, integračné metódy na výpočet rýchlosti a pozície,  stavový vektor systému, vonkajšie sily, obmedzujúce podmienky – constraints, sily odozvy,  kolízie častica - rovina.
 +
 
 +
 
 +
=== Lesson05 "Broad Phase Collision Detection" ===
 +
[[File:ca10_lesson04.png]]
 +
* Problem definition and motivations
 +
* Hierarchical grids and spatial hashing
 +
* Sweep and prune and radix sort
 +
* Pair management – a practical guide
 +
* Demos / tools / libs
 +
* Lecture notes: [[media:ca15_lesson05.pdf|lesson05.pdf]]
 +
<!--* Assigment 3: [[media:ca10_assigmentlesson05.pdf|assigment3.pdf]]-->
 +
 
 +
 
 +
=== Lesson "All Saints' Day (no lesson)" ===
 +
[[File:ca10_lesson07.png]]
 +
* No lesson
 +
 
 +
 
 +
=== Lesson06 "Mid Phase Collision Detection" ===
 +
[[File:ca10_lesson05.png]]
 +
* Problem definition and motivations
 +
* Generic Bounding Volume Hierarchy (BVH)
 +
* Tandem BVH traversal
 +
* Proximity evaluation of primitive geometries
 +
** External Voronoi regions
 +
** Sphere x Capsule x Box x triangle collisions
 +
* Approximate convex decomposition
 +
* Lecture notes: [[media:ca15_lesson06.pdf|lesson06.pdf]]
 +
<!--* Assigment 4: [[media:ca10_assigmentlesson06.pdf|assigment4.pdf]]-->
 +
 
 +
 
 +
=== Lesson07 "Narrow Phase Collision Detection" ===
 +
[[File:ca10_lesson06.png]]
 +
* Problem definition and motivations
 +
* Proximity queries for convex objects (Minkowski space)
 +
* GJK based algorithms (GJK, EPA, ISA-GJK)
 +
* Voronoi-Clip (V-Clip) Algorithm
 +
* Signed Distance Maps for collision detection
 +
* Demos / tools / libs
 +
* Lecture notes: [[media:ca15_lesson07.pdf|lesson07.pdf]]
 +
* Štátnicová téma (Lesson 5,6,7): S4 Detekcie kolízie, nutná a postačujúca podmienka kedy nie sú dve telesá v rovina, broad phase (hierachycká mriežka), mid phase (hierarchie obálok, Voronoiove oblasti v kolízii, vysvetlujte na príklade kolízie gula x kapsula, dekompozícia telesa na konvexné časti), narrow phase (Minkowskeho priestor a blízkosť konvexných telies).
 +
 
 +
 
 +
=== Lesson08 "Rigid body Dynamics” ===
 +
[[File:ca10_lesson08.png]]
 +
* Problem definition and motivations
 +
* Dynamics of rigid bodies
 +
* The equation of unconstrained motion (ODE)
 +
* User and time control
 +
* Mass properties of polyhedral objects
 +
* Demos / tools / libs
 +
* Lecture notes: [[media:ca15_lesson08.pdf|lesson08.pdf]]
 +
* Štátnicová téma (Lesson 9): S5 Dynamika tuhých telies, definícia problému, rovnice pohybu (4 ODE), rýchlosť, zrýchlenie, uhľová rýchlosť a uhľové zrýchlenie, matica hybnosti (matica inercie).
 +
 
 +
 
 +
=== Lesson09 "Rigid body Collisions and Joints” ===
 +
[[File:ca10_lesson09.png]]
 +
* Problem definition and motivations
 +
* Simplified collision model
 +
* Impulse based collision equation
 +
* Friction-less collision resolution
 +
* Algebraic collision resolution for Coulomb friction
 +
* Linear and angular joint formulations
 +
* Demos / tools / libs
 +
* Lecture notes:[[media:ca15_lesson09.pdf|lesson09.pdf]]
 +
 
 +
 
 +
=== Lesson10 "Fluid, Fire and Smoke” ===
 +
[[File:ca10_lesson10.png]]
 +
* Problem definition and motivations
 +
* Navier-Stokes equations for fluid dynamics
 +
* Grid based MAC method
 +
* Particle based SPH method
 +
* Neighbor search for coupled particles
 +
* Modeling smoke and fire with fluid
 +
* Demos / tools / libs
 +
* Lecture notes: [[media:ca16_lesson10.pdf|lesson10.pdf]]
 +
 
 +
 
 +
=== Lesson11 "Final term" ===
 +
[[File:ca10_lesson12.png]]
 +
* Don't panic - just few simple questions
 +
 
 +
 
 +
=== Lesson12 "Animation Show" ===
 +
* Show your animation to your colleagues
 +
 
 +
 
 +
=EXCERCISES=
 +
*Your presence at the seminar is optional.
 +
*On every seminar we will focus on the selected problems from lessons. We will use the numerical methods to solve specific problems.
 +
 
 +
=== Excercise01 "Key Framing” ===
 +
* '''[https://www.youtube.com/watch?v=CFFhgutjZQk Blender demo]'''
 +
* Blender https://www.blender.org/
 +
 
 +
=== Excercise02 "Quaternion Interpolation” ===
 +
* Assigment
 +
**[[media:uloha1.pdf|uloha1.pdf]] (deadline 8.10.)
 +
**resources:
 +
***[[media:catmull-rom.pdf|catmull-rom.pdf]]
 +
***http://run.usc.edu/cs520-s15/quaternions/quaternions-cs520.pdf
 +
***http://www.academia.edu/4095904/Quaternion_calculus_as_a_basic_tool_in_computer_graphics
 +
* Blender tutorial for skeleton modelling
 +
** rigging https://www.youtube.com/watch?v=mJwWTKt12ak
 +
 
 +
=== Excercise03 "Differential Equations” ===
 +
* Analitical solution of ODE
 +
* Runge-Kuta method
 +
* Assigment
 +
**[[media:uloha2.pdf|uloha2.pdf]] (deadline 22.10.)
 +
**resources:
 +
***[[media:diferencialne_rovnice.pdf|diferencialne_rovnice.pdf]]
 +
***http://terpconnect.umd.edu/~petersd/246/matlabode.html
 +
* Wolfram Mathematica http://mathworld.wolfram.com/
 +
* FreeMat http://freemat.sourceforge.net/index.html
 +
* Matlab tutorial http://www.tutorialspoint.com/matlab/index.htm
 +
 
 +
=== Excercise04 "Position based Dynamics” ===
 +
* proving the distance constraint formulae
 +
**resources
 +
***[[media:Position based Dynamics.pdf|Position based Dynamics.pdf]]
 +
* Assigment
 +
**prepare presentation (deadline 29.10.)
 +
 
 +
=== Excercise05 "Particles” ===
 +
*modeling particles
 +
**resources
 +
***https://www.youtube.com/watch?v=azXFwQWXjyQ
 +
 
 +
=== Excercise06 "STAR reports” ===
 +
*STAR reports and paper presentations
 +
**animation resources
 +
***[[media:production.pdf|production.pdf]]
 +
***https://www.youtube.com/playlist?list=PL-bOh8btec4CXd2ya1NmSKpi92U_l6ZJd
 +
 
 +
=== Excercise07 "Separating Axis Theorem” ===
 +
*Principal Components Analysis
 +
* Assigment
 +
**[[media:uloha3.pdf|uloha3.pdf]] (deadline 26.11.)
 +
**resources:
 +
***http://www.cs.otago.ac.nz/cosc453/student_tutorials/principal_components.pdf
 +
***http://www.sosmath.com/matrix/eigen2/eigen2.html
 +
***https://www.scss.tcd.ie/Rozenn.Dahyot/CS1BA1/SolutionEigen.pdf
 +
 
 +
===RESOURCES===
 +
*Roman Ďurikovič, Vladimír Ďurikovič. Numerical Mathematics for Computer Science (in Slovak Numerická matematika pre informatika, Riešené príklady v programe MATHEMATICA).  ISBN 978-80-8105-271-2, University of Saint Cyril and Metod Press, Trnava, Slovakia, pages 162, 2011. https://www.researchgate.net/publication/256681458_Numerick_matematika_pre_informatika_Rieen_prklady_v_programe_MATHEMATICA

Aktuálna revízia z 10:47, 13. november 2015

Ca10 lesson01.png

Physical based Animations and Mathematical Modelling (Course Materials)

This lecture ...

  • Will focus on simulating natural phenomena
  • Will show you what are current topics
  • Will improve your skills in
    • Newtonian physics
    • Computational geometry
    • Algorithms and data structures
  • Hopefully will not be boring

Student Projects

D-E-A-D-L-I-N-E-S

  • Animators team (Axx): deadline 14.12.2015 the last lecture
    • Show your animation, how far have you made it. It should be 30% of the work done, otherwise your team gets Fx.
  • Coders team (Cxx): deadline 17.12.2015 the last exercise
    • Show the short DEMO of your project, how far have you made it. It should be 30% of the work done, otherwise your team gets Fx.
  • Coders team (Cxx): deadline 26.1.2016
    • Create a web page where you write your progress, upload source code, executable, images description of your project and short manual.
    • Send link to finished application (zipped source + executable.)
    • Your code should be well formatted and commented. Titles of functions, classes, variables should be representative for their purpose.
    • If you send it earlier you can get feedback how to improve your application
  • Animators team (Axx): deadline 26.1.2016
    • Create a web page where you write your progress, upload animation, source of animation, images description of your project and describe all physical effects to be evaluated.
    • Upload your animation video on youtube (or some alternative online service)
    • Send link to your webpage
    • If you send it earlier you can get feedback how to improve your animation
  • Oral/written exam (optional): deadline 18.1.2016, 8:00, classroom A
    • Instead of (optional) oral exam, you can get (0..+20) points due to a written exam.
    • It will be similar to final term, but less complicated.

What you Need to Pass

  • Attend lessons. All lessons attended is +0 points. Four and more missed is Fx.
  • Show your project (mandatory, 60 points). See later.
  • Solve all homework problems (mandatory each one >=30%, 40 points)
  • Pass oral/written exam: (optional, +0 .. +20 points) If you feel you are better, convince me ! You can get +20 points max.
  • Summary
    • Attendance = +0 or -100 (Fx)
    • Homework = +40..+12 or 12..0 (Fx)
    • Project = +60..0
    • Oral/written exam optional = +20..0
  • Grades
    • A = 92-100
    • B = 84-91
    • C = 76-83
    • D = 68-75
    • E = 60-67
    • Fx = 0-59

Oral Examination

To the oral examination all the above requirements must be SATISFACTORILY completed.

How to Arrange your Project

  • Take 1 friend and Team up
  • Role1: The Coder
    • Choose a given animation algorithm
    • Code up hot demo app and show it
    • Present a selected research paper
  • Role2: The Artist
    • Choose some authoring tool and create hot physically based demo reel
    • Present a selected research paper
    • Prepare a written report, at least 2 A4 pages, on the topic of state exam question.
  • Projects with minimal requirements: Projects.pdf
  • Teams fill the form (names and project): deadline 5.10.2015 Submit a link to created web page with project description or animation story board where you write your progress, continually.


Lesson01 "Introduction to Computer Animation"

Ca10 lesson01.png

  • Introduction to Computer Animation
  • Common animation techniques
  • Cutting edge tools and packages
  • Gurus and the State of the Art
  • Lecture schedule
  • "Terms and conditions" of this lecture
  • Lecture notes: lesson01.pdf


Lesson02 "Basic methods in Computer Animation"

Ca10 lesson02.png

  • Problem definition and motivations
  • Key-framing and parameter interpolation
  • Quternions, orientation
  • Skeleton and skinning animation
  • Forward and inverse kinematics
  • Procedural techniques
  • (Motion capture)
  • Lecture notes: lesson02.pdf
  • Štátnicová téma: S1 Animácie pohybu a orientácie, interpolačný spline na animáciu pohybu, splinu podľa dĺžky krivky, quaternion a orientácia, interpolácie dvoch a viacerých quaternionov.


Lesson03 "Particle Systems"

Ca10 lesson03.png

  • Newton dynamics of particles
  • Ordinary differential equation (ODE) solver
  • Particle - obstacle collision detection
  • Practical design of particle system
  • Demos / tools / libs
  • Lecture notes: lesson03.pdf
  • Štátnicová téma: S2 Numerické riešenie diferenciálnych rovníc, Eulerova metóda, MidPoint metóda, Runge-Kuta metóda, podmienka stability na voľbu časového kroku, sily odozvy (response forces).


Lesson04 "Soft bodies, Cloths and hair”

Ca10 lesson11.png

  • Problem definition and motivations
  • Modeling solids with stress and strain
  • Extending Mass-spring model for cloth and ropes
  • Massive (self) collision and resolution for cloths
  • Mesh-less deformations
  • Modeling solids with infinitely stiff springs
  • Demos / tools / libs
  • Lecture notes: lesson04.pdf
  • Štátnicová téma (Lesson 3,4): S3 Časticové systémy, rovnice pohybu prvého rádu, integračné metódy na výpočet rýchlosti a pozície, stavový vektor systému, vonkajšie sily, obmedzujúce podmienky – constraints, sily odozvy, kolízie častica - rovina.


Lesson05 "Broad Phase Collision Detection"

Ca10 lesson04.png

  • Problem definition and motivations
  • Hierarchical grids and spatial hashing
  • Sweep and prune and radix sort
  • Pair management – a practical guide
  • Demos / tools / libs
  • Lecture notes: lesson05.pdf


Lesson "All Saints' Day (no lesson)"

Ca10 lesson07.png

  • No lesson


Lesson06 "Mid Phase Collision Detection"

Ca10 lesson05.png

  • Problem definition and motivations
  • Generic Bounding Volume Hierarchy (BVH)
  • Tandem BVH traversal
  • Proximity evaluation of primitive geometries
    • External Voronoi regions
    • Sphere x Capsule x Box x triangle collisions
  • Approximate convex decomposition
  • Lecture notes: lesson06.pdf


Lesson07 "Narrow Phase Collision Detection"

Ca10 lesson06.png

  • Problem definition and motivations
  • Proximity queries for convex objects (Minkowski space)
  • GJK based algorithms (GJK, EPA, ISA-GJK)
  • Voronoi-Clip (V-Clip) Algorithm
  • Signed Distance Maps for collision detection
  • Demos / tools / libs
  • Lecture notes: lesson07.pdf
  • Štátnicová téma (Lesson 5,6,7): S4 Detekcie kolízie, nutná a postačujúca podmienka kedy nie sú dve telesá v rovina, broad phase (hierachycká mriežka), mid phase (hierarchie obálok, Voronoiove oblasti v kolízii, vysvetlujte na príklade kolízie gula x kapsula, dekompozícia telesa na konvexné časti), narrow phase (Minkowskeho priestor a blízkosť konvexných telies).


Lesson08 "Rigid body Dynamics”

Ca10 lesson08.png

  • Problem definition and motivations
  • Dynamics of rigid bodies
  • The equation of unconstrained motion (ODE)
  • User and time control
  • Mass properties of polyhedral objects
  • Demos / tools / libs
  • Lecture notes: lesson08.pdf
  • Štátnicová téma (Lesson 9): S5 Dynamika tuhých telies, definícia problému, rovnice pohybu (4 ODE), rýchlosť, zrýchlenie, uhľová rýchlosť a uhľové zrýchlenie, matica hybnosti (matica inercie).


Lesson09 "Rigid body Collisions and Joints”

Ca10 lesson09.png

  • Problem definition and motivations
  • Simplified collision model
  • Impulse based collision equation
  • Friction-less collision resolution
  • Algebraic collision resolution for Coulomb friction
  • Linear and angular joint formulations
  • Demos / tools / libs
  • Lecture notes:lesson09.pdf


Lesson10 "Fluid, Fire and Smoke”

Ca10 lesson10.png

  • Problem definition and motivations
  • Navier-Stokes equations for fluid dynamics
  • Grid based MAC method
  • Particle based SPH method
  • Neighbor search for coupled particles
  • Modeling smoke and fire with fluid
  • Demos / tools / libs
  • Lecture notes: lesson10.pdf


Lesson11 "Final term"

Ca10 lesson12.png

  • Don't panic - just few simple questions


Lesson12 "Animation Show"

  • Show your animation to your colleagues


EXCERCISES

  • Your presence at the seminar is optional.
  • On every seminar we will focus on the selected problems from lessons. We will use the numerical methods to solve specific problems.

Excercise01 "Key Framing”

Excercise02 "Quaternion Interpolation”

Excercise03 "Differential Equations”

Excercise04 "Position based Dynamics”

Excercise05 "Particles”

Excercise06 "STAR reports”

Excercise07 "Separating Axis Theorem”

RESOURCES

Zdroj: „http://dev.dai.fmph.uniba.sk/w?title=Physical-based_Animations_and_Mathematical_Modeling_Material&oldid=14500“