Balogh, Peter

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New Jersey Institute of Technology Digital Commons @ NJIT Mechanical and Industrial Engineering Syllabi NJIT Syllabi Fall 2023 ME 407-001: Heat Transfer Peter Balogh Follow this and additional works at: https://digitalcommons.njit.edu/mie-syllabi Recommended Citation Balogh, Peter, "ME 407-001: Heat Transfer" (2023). Mechanical and Industrial Engineering Syllabi. 449. https://digitalcommons.njit.edu/mie-syllabi/449 This Syllabus is brought to you for free and open access by the NJIT Syllabi at Digital Commons @ NJIT. It has been accepted for inclusion in Mechanical and Industrial Engineering Syllabi by an authorized administrator of Digital Commons @ NJIT. For more information, please contact digitalcommons@njit.edu. Heat Transfer: ME407-001 Fall 2023  ME407-001(Balogh) 1  Instructor: Dr. Peter Balogh Email: peter.e.balogh@njit.edu Office: Mechanical Engineering Center (MEC) 324A   Lectures: Wednesday, Friday 1:00PM – 2:20PM, Faculty Memorial Hall Room 305  Office Hours: Tuesday and Thursday, 1:00PM - 2:00PM or by appointment  Required Textbook:  Fundamentals of Heat and Mass Transfer, 8th Edition   by Bergman, Lavine, Incropera, and DeWitt Wiley, 2020   Prerequisites:  MATH 222 – Differential Equations   ME 304 – Fluid Mechanics  ME 311 – Thermodynamics  Course Description: A study of the three fundamental modes of heat transfer: conduction, convection, and radiation. A physical interpretation of the many quantities and processes in heat transfer using numerical methods. Theory is applied to the analysis and design of heat exchangers and other applications. Where appropriate, computer simulation is used.  Course Policies: 1. Grading Total of 100 points: • Homework  (10) • Tests   (20) • Midterm  (20) • Final Exam (30) • Project (20) Scale:  A: 90-100  B+: 85-89  B: 80-84  C+: 75-79  C: 70-74  D: 60-69  F: 0-59  Heat Transfer: ME407-001 Fall 2023  ME407-001(Balogh) 2   2. Attendance and Lecture Notes • Attendance will not be graded. Lecture notes will be written on the board during class, and there will be no electronic version available (i.e. no powerpoint, etc.). Thus, it is extremely important that you attend every class and take good notes. While the lectures will be based on the sections/topics in your textbook as noted in the course schedule below, attending each class will go a long way towards doing well in this course and learning the material.  3. NJIT Canvas • https://njit.instructure.com/courses/25314 • Log in and make sure your email address is correct, as all course notifications will be posted on Canvas • HW assignments, exam information, and general course announcements will be posted on Canvas  4. Homework • Assignments are due at the beginning of class. • Each problem must be worked through in a clear and logical manner with any assumptions clearly stated. The final answer must be clearly denoted.  • Partial credit will be given to problems in which the final answer is incorrect, with the amount dictated by my perception of how well you understand the problem. Thus, when working through a problem, the more detail you provide the better. Not only does this make for a more thorough analysis, but it will give you the best chance at maximizing partial credit for incorrect answers.  5. Tests and Exams • There will be two tests, a midterm and a final exam (see schedule below) • All tests and exams will be closed books / closed notes, however I will allow a single hand-written formula sheet as follows: i. one-sided for tests ii. both sides for midterm and final exam • Failure to show up will result in zero points, and there are no make-ups. The only exceptions are for an officially documented excuse from the Dean of Students.     Heat Transfer: ME407-001 Fall 2023  ME407-001(Balogh) 3     6. Project • After the midterm there will be a project assigned with teams comprised of 2-3 students, and you will pick your own teams. This will involve application of theory learned in the course with open-source computational heat transfer software to solve a real-world heat transfer problem. • Over the course of the project, each team will submit (see schedule below for tentative due dates): i. A planning report outlining items such as project abstract and overview, roles of team members, etc. work schedule ii. A progress report outlining items such as summary of work to-date, status with regard to project schedule, and any difficulties encountered and plan for overcoming them. iii. A final report • Specifics on the project and submission requirements will be provided after the midterm  7. Academic Integrity • “Academic Integrity is the cornerstone of higher education and is central to the ideals of this course and the university. Cheating is strictly prohibited and devalues the degree that you are working on. As a member of the NJIT community, it is your responsibility to protect your educational investment by knowing and following the academic code of integrity policy that is found at: http://www5.njit.edu/policies/sites/policies/files/academic-integrity-code.pdf.    • Please note that it is my professional obligation and responsibility to report any academic misconduct to the Dean of Students Office. Any student found in violation of the code by cheating, plagiarizing or using any online software inappropriately will result in disciplinary action. This may include a failing grade of F, and/or suspension or dismissal from the university. If you have any questions about the code of Academic Integrity, please contact the Dean of Students Office at dos@njit.edu”Heat Transfer: ME407-001 Fall 2023  Tentative Course Schedule (Subject to Change)  ME407-001(Balogh) 4      Lecture Topics Covered Assignment Due No. Date 1 Wed 9/6/23 Course Introduction Chapter 1: Introduction to Heat Transfer   2 Fri 9/8/23 Chapter 1: Introduction to Heat Transfer   3 Wed 9/13/23 Chapter 2: Introduction to Conduction        Fourier's Law        Diffusion equation   4 Fri 9/15/23 Chapter 2: Introduction to Conduction        Transient behavior HW1 5 Wed 9/20/23 Chapter 3: 1D, Steady-State Conduction        The plane wall        Radial systems   6 Fri 9/22/23 Chapter 3: 1D, Steady-State Conduction        Radial systems        Conduction w/ thermal energy generation HW2 7 Wed 9/27/23 Chapter 3: 1D, Steady-State Conduction        Fin analysis   8 Fri 9/29/23 Chapter 3: 1D, Steady-State Conduction        Fin analysis HW3 - Wed 10/4/23 Test 1   9 Fri 10/6/23 Chapter 5: Transient Conduction        The lumped capacitance method   10 Wed 10/11/23 Chapter 5: Transient Conduction        One term approximation   11 Fri 10/13/23 Chapter 5: Transient Conduction        The semi-infinite solid HW4 12 Wed 10/18/23 Chapter 4: 2D, SS Conduction       The Finite Difference Method   Heat Transfer: ME407-001 Fall 2023  Tentative Course Schedule (Subject to Change)  ME407-001(Balogh) 5 13 Fri 10/20/23 Finite Difference Method for 2D Transient Conduction Assign Computer Project HW5 - Wed 10/25/23 Midterm   14 Fri 10/27/23 Chapter 6: Introduction to Convection        Dimensionless parameters        Reynolds analogy   15 Wed 11/1/23 Chapter 6: Introduction to Convection       Dimensionless Parameters in the BL       Reynold's Analogy   16 Fri 11/3/23 Chapter 7: External flow        Flat plate in parallel flow        Cylinder in cross flow        The sphere HW6 17 Wed 11/8/23 Chapter 8: Internal flow        Developing and Fully Developed        Mean Temperature Project Planning Report 18 Fri 11/10/23 Chapter 8: Internal flow        Heat transfer correlations        Entry length effects HW7 - Wed 11/15/23 Test 2   19 Fri 11/17/23 Chapter 9: Free convection        Laminar boundary layer        Boussinesq approximation        Similarity considerations   20 Wed 11/22/23 Chapter 10:         Pool boiling        Film boiling        Film condensation  Project Progress Report - Fri 11/24/23 No Class - Thanksgiving Break   21 Wed 11/29/23 Chapter 11: Heat Exchangers        Parallel and counter flow analysis        Log mean temperature difference         Effectiveness-NTU method   22 Fri 12/1/23 Chapter 12: Radiation        Basic Principles        Blackbody Radiation HW8 Heat Transfer: ME407-001 Fall 2023  Tentative Course Schedule (Subject to Change)  ME407-001(Balogh) 6 23 Wed 12/6/23 Chapter 12: Radiation        Real Surfaces   24 Fri 12/8/23 Chapter 13: Radiation exchange        View Factors        Enclosures HW9 25 Wed 12/13/23 Chapter 13: Radiation exchange        The Re-Radiating Surface        Multi-Mode Effects Project Final Report        Final Exam: 12/20/23 Kupfrian Hall 202, 8:30AM – 11:00AM 

ME 407-001: Heat Transfer

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ME 407-001: Heat Transfer

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