Fluid mechanics and heat transfer (4 cr)
Code: 5100BH95-3009
General information
- Enrollment
-
01.06.2024 - 29.08.2024
Registration for the implementation has ended.
- Timing
-
02.09.2024 - 20.12.2024
Implementation has ended.
- Number of ECTS credits allocated
- 4 cr
- Local portion
- 4 cr
- Mode of delivery
- Contact learning
- Unit
- Engineering and Business
- Campus
- Kupittaa Campus
- Teaching languages
- Finnish
- Seats
- 85 - 95
- Degree programmes
- Degree Programme in Energy and Environmental Technology
Realization has 24 reservations. Total duration of reservations is 56 h 0 min.
Time | Topic | Location |
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Thu 05.09.2024 time 08:00 - 10:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
ICT_B1047_Alpha
ALPHA
|
Mon 09.09.2024 time 10:00 - 12:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
EDU_3073
Oppimistila avo muunto byod
EDU_3076 Teoriatila avo byod |
Thu 12.09.2024 time 08:00 - 10:00 (2 h 0 min) |
ETÄ Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
ITS videot Oppitunti 2
|
Wed 18.09.2024 time 10:00 - 12:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
EDU_3073
Oppimistila avo muunto byod
EDU_3076 Teoriatila avo byod |
Thu 19.09.2024 time 08:00 - 10:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
EDU_1002
Moriaberg Esitystila byod
|
Wed 25.09.2024 time 10:00 - 12:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
EDU_3075
Marjukka (16 hlö)
EDU_3074 Teoriatila avo byod |
Thu 26.09.2024 time 08:00 - 10:00 (2 h 0 min) |
ETÄ Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
Bernoulli - Video ITS-Learningissä
|
Fri 27.09.2024 time 08:00 - 16:00 (8 h 0 min) |
Laboratorio - Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
EDU_K1083
Lämpö- ja virtaustekniikan laboratorio
|
Wed 02.10.2024 time 12:00 - 16:00 (4 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
EDU_K1083
Lämpö- ja virtaustekniikan laboratorio
|
Thu 03.10.2024 time 16:00 - 18:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
ICT_B1047_Alpha
ALPHA
|
Wed 09.10.2024 time 10:00 - 12:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
EDU_3073
Oppimistila avo muunto byod
EDU_3076 Teoriatila avo byod |
Thu 10.10.2024 time 08:00 - 10:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
ICT_C1039_Sigma
SIGMA
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Mon 21.10.2024 time 12:00 - 14:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
EDU_3073
Oppimistila avo muunto byod
EDU_3076 Teoriatila avo byod |
Thu 24.10.2024 time 08:00 - 10:00 (2 h 0 min) |
TENTTI Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
ICT_B1047_Alpha
ALPHA
|
Thu 31.10.2024 time 10:00 - 12:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
LEM_A173_Lemminkäinen
Lemminkäinen
|
Thu 07.11.2024 time 08:00 - 10:00 (2 h 0 min) |
ETÄ Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
Materiaali ITS:ssä
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Thu 07.11.2024 time 10:00 - 12:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
EDU_3073
Oppimistila avo muunto byod
EDU_3076 Teoriatila avo byod |
Thu 14.11.2024 time 08:00 - 10:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
ICT_C1035_Delta
DELTA
|
Thu 14.11.2024 time 12:00 - 14:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
EDU_3073
Oppimistila avo muunto byod
EDU_3076 Teoriatila avo byod |
Thu 21.11.2024 time 08:00 - 10:00 (2 h 0 min) |
ETÄ Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
Videot ITS:ssä
|
Thu 21.11.2024 time 12:00 - 14:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
EDU_3073
Oppimistila avo muunto byod
EDU_3076 Teoriatila avo byod |
Thu 28.11.2024 time 08:00 - 10:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
EDU_3004
Josef muunto byod
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Thu 05.12.2024 time 12:00 - 14:00 (2 h 0 min) |
Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
ICT_B1032_Beta
BETA
|
Mon 16.12.2024 time 13:00 - 15:00 (2 h 0 min) |
TENTTI Virtaus- ja lämmönsiirtotekniikka 5100BH95-3009 |
ICT_B1047_Alpha
ALPHA
|
Evaluation scale
H-5
Content scheduling
The course introduces the physics of flows and heat transfer. The focus of the teaching is on understanding the phenomena and using this knowledge in various engineering applications (pipelines, manifolds, nozzles, pumps, fans, insulation, heat exchangers, etc.). The course is divided into two entities, flow and heat transfer technology, and a midterm exam is held separately for both.
The course includes a lot of practice tasks (building basic understanding)
Possible flow engineering and thermal engineering training work
Laboratory exercises
Objective
After completing the study module, student can:
- apply theory of liquids and gases and diagrams to dimensioning of flow systems
- identify different kind of piping equipment, such as valves and filters, and pumps and fans
- dimension piping system and choose proper pump
- apply theory of heat transfer.
- calculate the heat transfer area required in heat exchanger.
Content
- - continuityequation, flow pattern and pressure drop
- pipingequipment, pumps and fans
- selection of pipe diameter
- conduction, convection and radiation heat transfer
- heat loss, insulation
- heat exchangers, determination of heat transfer area.
Materials
Lecture slides, exercise handouts
ITS-Learning platform
Or alternatively as applicable
HEAT TRANSFER, A Practical Approach, Yunus A. Cengel, II- painos
College Physics for AP Courses, Open Stax, Rice University
College Physics, Serway & Vuille, 11th Ed.
Teaching methods
Lectures
and video lectures
In connection with the mini-tests, familiarity with the topics of the lesson is demonstrated, and the understanding of the topic is deepened with practice tasks.
When working in a group, you learn from a colleague and share insights, also between groups.
In joint calculation lessons, skills are honed with the power of examples.
Exam schedules
The subjects of the lessons are tested with small tests, after passing which the student receives a part of the course that entitles him to a grade of 1.
After passing the small exams, the student can increase his grade with midterm and final exams. There are two midterm exams, one for each course section. Intermediate or mini exams cannot be retaken.
Re-take examinations according to the general instructions of faculty of EE- technology for those students who have reached an acceptable level in the short-term exams. The re-take examination is the so-called traditional final exam with questions from the entire course, from both subject areas.
Pedagogic approaches and sustainable development
Theory teaching, independent calculation exercises, calculation workshops
Continuous learning is based on constructive development, which is strongly based on deepening the previous mathematical and physical and especially thermodynamic foundation.
In a situational learning environment, working in a group and learning through insight are emphasized towards the mastery of solid substance.
Knowledge of the subject area of the course helps in later studies to apply the subjects of the subject area to promote sustainable development.
Completion alternatives
Equivalent training acquired elsewhere, which is encouraged according to Turkuamk's instructions at the student's initiative.
The aim of the implementation is to implement several small intermediate exams, the grade of which is 1 upon passing. In this case, the student also has the right to participate in the advanced exam if he wishes.
As exam options, in addition to the above, 2 midterm exams or a final exam, provided you pass the lesson-specific mini-exam.
Student workload
Student workload as a guideline 4 ECTS = 108 h
It should be noted that for some it does not take all of the aforementioned time to master the subject area, while for other learners the aforementioned time is not enough. In order to pass the course, you have to invest in learning the subject area.
The course lecture material is distributed in the ITS environment.
The student is responsible for doing the homework.
Participating is not enough to master the material management of calculus lessons, the tasks must also be done at home.
Completing laboratory tasks requires preparing the material in advance and understanding the subject. When the laboratory work starts, it is too late to familiarize yourself with the material.
Evaluation methods and criteria
Performance in the course
After passing the mini-exams, you can get grading with no. 1 from the course section. In addition, a separate exam event is organized, the result of which is evaluated with grades 0-5.
Passing the mini-exams must exceed the 80% level by topic in order to be given a grade for part 1. Two separate sections with in implementation. If the student gets less than 80% of the results of the mini-exams, the student does not pass the section and does not get the right to participate in the advanced exam. Evaluation of mini-exams on a scale passed - failed.
Labs as group work, returned as acceptable and the teacher's comments taken into account.
Re-take examinations according to the general guidelines of faculty of EE- technology.
To participate in the renewal, the level of small tests must exceed the level set by the above-mentioned lower limit.
Previous course completions that are part of a rejected whole (previous course) are used only at the student's presentation, at the beginning of the course, using a separate individual consideration.
Failed (0)
Does not return practice tasks
Does not do compulsory homework
Does not participate in calculation exercises
Performance in mini-exams are less than 80 % (evaluation pass or rejected)
Assessment criteria, satisfactory (1-2)
The final result of the mini-exams, in both areas, exceeds the 80% level. Evaluation will be graded with value 1.
Evaluation scale for the final exam and grade-raising (interim) exams, tentatively:
1) 35% < points < 48%
2) 48% < points < 61%
which is specified after the returns of the exams and is applied to the evaluation template and the general level in the performances.
In order to pass the course, the mandatory tasks must be completed, especially regarding the high-quality performance of the laboratory implementation.
Assessment criteria, good (3-4)
Arithmetic average of intermediate exams (paper exams) or alternatively the result of the final exam
3) 61 % < points < 74 %
4) 74 % < points < 87 %
In order to receive a grade, you must also pass the level of the criteria for awarding lower grades
Assessment criteria, excellent (5)
Arithmetic average of intermediate exams (paper exams) or alternatively the result of the final exam
5) 87 % < points
In order to receive a grade, you must also pass the level of the criteria for awarding lower grades
Qualifications
Previous studies completed:
Physics
Physics laboratory work
Basics of engineering mathematics
Thermodynamics
Additionally recommended if needed:
Basic skills in mathematical subjects
Further information
Communication:
During the lesson (Emphasis and attendance are the responsibility of the student)
ITS discussion, The learning environment supports course-specific communication, so that everyone in the course sees the same questions.
E-mail in those cases where, for example, the teacher cannot attend or other urgent information sharing is needed.