course aims in Estonian
Õppeaine eesmärk on:
- süvendada vedelike ja gaaside voolamise teoreetilisi ning rakenduslikke oskusi nii tehnoloogiliste kui ka looduslike protsesside kirjeldamiseks ja insenerarvutuste tegemiseks;
- õpetada gaaside ja vedelike voolamise seaduspärasuste ning võrrandite kasutamist seadmete ja protsesside valikul ning arvutamisel;
- rakendada teoreetilisi teadmisi vedelike ja gaaside voolamise ning hüdromehaaniliste protsesside kohta eksperimentaalsetes uuringutes;
- arendada erialase inglisekeelse kirjanduse lugemisoskust;
- arendada eksperimentaalsete ja arvutuslike tulemuste interpreteerimise ning aruannete koostamise oskust;
- arendada nii iseseisva kui ka meeskonnatöö oskusi.
course aims in English
The aim of this course is to:
- further develop theoretical and applied skills related to the laws of fluid dynamics in describing both technological and natural processes and in performing engineering calculations;
- teach the use of the laws and equations of fluid dynamics in selecting equipment and processes and in related calculations;
- apply theoretical knowledge about the flow of fluids and hydromechanical processes in experimental studies;
- develop the ability to read English literature related to the field¸
- develop the ability to interpret experimental and computational results and prepare reports;
- develop both independent and teamwork skills.
learning outcomes in the course in Est.
Aine läbinud üliõpilane:
- tunneb gaaside ja vedelike voolamise seaduspärasusi tehnoloogias ja keskkonnas toimuvate protsessides;
- kasutab gaaside ja vedelike voolamise insenerlike põhiprintsiipe lihtsamate inseneriarvutuste teostamisel ning eelhinnangute andmisel;
- kasutab gaaside ja vedelike voolamise teoreetilisi teadmisi eksperimentaalses töös;
- oskab teostada hüdrodünaamika ja hüdromehaaniliste protsesside katselisi/laboratoorseid uuringuid;
- tunneb erialast inglisekeelset sõnavara;
- oskab analüüsida, üldistada ja esitada eksperimentide ning arvutuste tulemusi ja koostada laboratoorse töö aruannet;
- on omandanud nii iseseisva kui ka meeskonnatöö kogemuse ning aruannete kaitsmisega kaasneva esinemisoskuse kogemuse.
learning outcomes in the course in Eng.
After completing this course the student:
- knows the laws of fluid dynamics in technology and in environment;
- knows how to use the engineering principles of fluid dynamics for performing simple engineering calculations and for giving an initial assessment;
- can use the theoretical knowledge of the flow of fluids in experimental work;
- can perform experimental/laboratory studies of hydrodynamics and hydromechanical processes;
- knows English vocabulary specific to the field;
- can critically analyze, generalize and present the results of experiments and calculations and prepare a laboratory work report;
- has acquired both independent and teamwork experience and presentation skills related to defending reports.
brief description of the course in Estonian
Energia- ja materjalibilansid. Mehaanilise energia bilanss. Vedelike ja gaaside omadused. Hüdrostaatika alused ja rakendused. Hüdrodünaamika alused. Dimensionaalanalüüs ja kriteriaalvõrrandid. Fluidumi dünaamika rakendused vedelike ja gaaside voolamisel torudes. Vedelike ja gaaside transpordiseadmed ja arvutused. Fluidumi dünaamika rakendused voolamisel keevkihis ja segamisel. Voolamise seaduspärasuste rakendamine heterogeensete süsteemide separeerimise põhioperatsioonides (filtrimine, settimine, tsentrifuugimine).
Samuti rühmatööna teostatakse praktilisi laboratoorseid töid. Käsitletakse hüdrodünaamikat ja hüdromehaanilisi protsesse ning hüdrodünaamika eriküsimusi.
brief description of the course in English
Energy and material balances. Mechanical energy balances. Properties of fluids (liquids and gases). Fundamentals and application of fluid statics (hydrostatics). Fundamentals of fluid dynamics (hydrodynamics. Dimensional analysis and dimensionless quantities. Application of fluid dynamics to the flow of fluids in pipes. Calculations and equipment for transporting liquids and gases. Application of fluid dynamics for flow in fluidized bed and mixing. Application of laws of fluid dynamics in the basic operations of heterogeneous separation systems (filtration, settling, centrifugation).
Also, practical laboratory assignments are carried out as group work. Covered topics include hydrodynamics, hydromechanical processes, and special topics of hydrodynamics.
type of assessment in Estonian
Eristav
type of assessment in English
-
independent study in Estonian
-
independent study in English
-
study literature
1. Geankoplis, C.J., Transport processes and and separation principles, 4-th edition, 2003, Pearson Education, Inc.
2. Young, Munson and Okiishi's A Brief Introduction to Fluid Mechanics, 6th Edition, Wiley, 2021
Täiendavaid õppematerjale tutvustab õppejõud esimesel kohtumisel.
Study literature will be introduced during the first meeting.
study forms and load
daytime study: weekly hours
6.0
session-based study work load (in a semester):