Subject: Designing the Hoisting Machines (17.M2408A )
Native organizations units: No data
Study programmes of the course:
| Type of studies | Title |
|---|---|
| Undergraduate Academic Studies | Mechanization and Construction Engineering (Godina: 4, Winter) |
Educational goal:
Gaining basic and advanced knowledge in the field of hoisting machines (cranes, elevating platforms, industrial trucks).
Educational outcome:
Readiness for the individual work on the design and usage of machines in this field.
Course content:
Basic characteristics of hoisting machines. Introduction into the limit state method for the proof of crane competence. Load lifting attachments. Crane hoisting drive: concept solutions, choice and calculation of elements. Lifting devices - jacks. Rail mounted crane/trolley travelling drive: concept solutions, choice and calculation of elements, travelling resistance, wheel slipping and skewing. Rope travelling drive: analysis of resistance and the influence of rope stretching manner. Slewing drive: concept solutions, elements, slewing resistance. Luffing drive: concept solutions, elements, analysis of loadings. Industrial cranes (basic characteristics, configurations and analysis of external loadings): bridge, portal and semiportal bridge cranes, harbour cranes (portal-slewing, container), wall and mast type jib cranes, tower cranes, S/R cranes, mobile cranes. Stability against crane overturning. Crane structure – defining the load combinations relevant for the proof of competence. Basic calculations (example of a bridge crane structure). Elevating (load and working) platforms – concept solutions, analysis of external loadings, stability. Forklift trucks: basic characteristics, concept solutions, stability. Procedure of designing the hoisting machines and producing its technical documentation.
Teaching methods:
Auditory lectures, theoretical part of the subject. Auditory, computational, laboratory, and computer aided practice classes. Students extend theoretical knowledge with practical examples in auditory classes. Driving systems of typical crane working devices and structures are calculated in the computational classes. The gained theoretical knowledge is applied using the disposable equipment in laboratory classes. Computer aided classes include the application of commercial software for crane designing and producing its technical documentation. Individual consultations.
Literature:
| Authors | Title | Year | Publisher | Language |
|---|---|---|---|---|
| Šostakov R., Zelić A. | Dizalice (skripta sa praktikumom) | 2018 | FTN Novi Sad | Serbian language |
| 1998 | German | |||
| 1981 | English | |||
| Ostrić, D., Tošić, S. | Dizalice | 2005 | Mašinski fakultet, Beograd | Serbian language |
| 1994 | German |
Knowledge evaluation:
| Course activity | Pre-examination | Obligations | Number of points |
|---|---|---|---|
| Project | Yes | Yes | 30.00 |
| Written part of the exam - tasks and theory | No | Yes | 40.00 |
| Oral part of the exam | No | Yes | 30.00 |
Lecturers:
vanr. prof. dr Zelić Atila
Associate Professor
Practical classes
Asistent Katona Mirko
Assistant - Master
Computational classes
Asistent Katona Mirko
Assistant - Master
Practical classes
vanr. prof. dr Zelić Atila
Associate Professor
Lectures
vanr. prof. dr Zelić Atila
Associate Professor
Computational classes
vanr. prof. dr Đokić Radomir
Associate Professor
Lectures
Faculty of Technical Sciences
© 2024. Faculty of Technical Sciences.
Contact:
Address: Trg Dositeja Obradovića 6, 21102 Novi Sad
© 2024. Faculty of Technical Sciences.