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Table 5.1. Course specification in the doctoral studies study programme
Course Title: ENVIRONMENTAL DATA SCIENCE
Teachers: Full Professor Svetlana Stanišić, PhD; Research Associate Andreja Stojić, PhD; Full Professor
Spasić Slađana, PhD
Course Status: COMPULSORY
ECST Value: 10
Prerequisite: /
Course Goals and Objectives
The objective of the course is to master advanced statistical approaches, artificial intelligence (AI) implemented
methods in machine learning algorithms (ML), and explainable artificial intelligence methods (xAI), which enable
sophisticated data analysis and understanding the complexity of factors which shape environmental phenomena and
environmental processes.
Course Outcomes
It is expected that students will be trained for independent research, selection and application of advanced statistical
methods and machine learning algorithms, as well as to critically analyze, interpret and explain the obtained results,
which will enable them to provide relevant scientific information gain and to understand the analyzed phenomena
and complexity processes in the environment.
Course Content
Theory
Process interrelations in the environment. The complexity of the environmental phenomena, individual and
combined environmental factors and their interactions. Databases. Programming languages Python and R. Data
processing. Advanced methods of data analysis for description and representation of environmental phenomena.
Analysis of time series and spatial data. Advanced Machine Learning Algorithms. Image analysis. Methods for
interpreting machine learning models – explainable artificial intelligence. Analysis of the connection and interaction
of environmental factors. Advanced presentations of modeling results.
Primary and Secondary Sources Selection
1. McElreath, R., 2018. Statistical rethinking: A Bayesian course with examples in R and Stan. Chapman and
Hall/CRC.
2. Ramasubramanian, K., Singh, A. 2019. Machine learning using R, Apress.
3. Mathur, P. 2019. Machine learning applications using Python, Apress.
4. Witten, I.H., Frank, E., Hall, M.A. and Pal, C.J., 2016. Data Mining: Practical machine learning tools and
techniques. Morgan Kaufmann.
5. Stojić, A., Vuković, G., Perišić, M., Stanišić, S. and Šoštarić, A., 2018. Urban air pollution: an insight into its
complex aspects. In: A Closer Look at Urban Areas, Editor: Sahar Romero, Nova Science Publishers, NY, USA,
ISBN: 978-1-63485-375-0. pp. 69-123.
Active Teaching Hours Theory: 5 (75) Study research work:
Applicable Teaching Methods:
Lectures, simulations, mid-term tests.
Grading Scheme (max. 100 points)
Pre-exam Requirements Points Final Exam Points
Attendance and in-class Activity 10 Oral part 50
Mid-term Exams 40
Total 50 Total 50
Course Title: ENVIRONMENT AND SUSTAINABLE DEVELOPMENT
Teacher: Emeritus Professor Dragan Marković, PhD; Principal research fellow, Dragi Antonijević, PhD
Course Status: Mandatory
ECST Value: 10
Prerequisite: /
Course Goals and Objectives
Acquiring knowledge of the overall state of the environment and processes of its degradation and contamination. Identification and
interpretation of natural and anthropogenic causes and the consequence of reducing the quality of the environment and connecting
with the concept of sustainable development. Encouraging a creative and sustainable approach in all aspects of anthropogenic
activities that lead or could lead to pollution of the environment.
Course Outcomes
Students are qualified for interpreting the results, correlation the causes and consequences of various pollutants presence in the
environment. Students develop an approach and acquire skills to create possible solutions in the field of environmental protection and
improving the quality of the environment. Students are able to assess the state of the environment and analyze the vulnerability of
natural space to anthropogenic activity, as well as to plan a sustainable development strategy for the purpose of protecting the
environment and its resources.
Course Content
Theory
The fundamental natural principles and processes in all environment media. Interaction of anthropogenic factors and elements of the
environment. Ecological problems: the causes of the occurrence and the possibility of preventive action. Natural risks and types of
passive and active protection. Causes of climate change and their outcomes. Causes of ecosystem degradation and pollution
monitoring - air, water and soil. Analysis, characterization and quantification of pollutants in the environment. Monitoring in the
environment, importance of institutions in the field of monitoring. Concept of environmental sustainability: importance, approach and
implementation in practice.
Study research work
Analysis of results obtained from institutions in field of ecology / environmental protection (water, air, land, biological materials,
noise, ionizing and non-ionizing radiation), creation of sustainability strategies related to specific examples of degraded resources and
environmental pollution (air, land, water resources, industrial waste).
Bibliography
1. N.A. Anjum et al. (eds.), Enhancing Cleanup of Environmental Pollutants, DOI 10.1007/978-3-319-55426-6_5. Springer
International Publishing AG, 2017.
2. Anil K. Gupta Sreeja S. Nair: Ecosystem Approach to Disaster Risk Reduction, 2012.
3. Lawrence R. Walker Joe Walker Richard J. Hobbs, Eds: Linking Restoration and Ecological Succession, Springer
Science+Business Media, LLC, 2007.
4. Good Laboratory Practice, OECD Principles and Guidance for Compliance Monitoring, OECD Publishing, 2009.
5. D. N. Boehnike, R. Del Delumyea, Laboratory Experiments in Environmental Chemistry, Prentice Hall, 2009.
6. F.M. Dunnivant, Laboratory Exercises for Instrumental Analysis, John Wiley and Sons, 2004.
7. R. N. Reeve, Introduction to Environmental Analysis, John Wiley and Sons, 2002.
8. J. R. Dean, Methods for Environmental Trace Analysis, John Wiley and Sons, 2003.
9. Air sampling instruments for evaluation of atmospheric contaminants, ACGH, Cincinnati, Ohio, 1995.
Active Teaching Hours Theory: 7 (105) Study research work:
Applicable Teaching Methods
Lectures, term papers, interactive workshop and discussion, oral exam.
Grading Scheme (max. 100 points)
Pre-exam Requirements Points Final exam Points
Attendance and in-class Activity 10 Exam (oral) 30
Practice 20
Term paper 40
Course Title: STUDY RESEARCH WORK 1
Teacher: Selected teacher - Mentor
Course Status: Compulsory
ECST Value: 10
Prerequisite: / All subjects from the first semester passed
Course Goals and Objectives: Study research work is the act of examining candidates for doctoral studies and the first
important verification statement that the candidate works in agreement with the mentor. Study research represents work on
projects that include practical problems and finalization of a part of knowledge from previously mastered subjects. The
research work examines the candidate's autonomy in order to perform more complex and comprehensive analysis of a
particular problem.
Course Outcomes
Conducting study research work, the candidate is able to learn, formulate and process a scientific research problem, respecting
the general theoretical and methodological frameworks of scientific research work. The candidate is qualified for:
Application of acquired knowledge in solving real problems
Independent research work in the field of environmental protection and sustainable development
Presentation of the results
Course Content
Study research work is the independent work of the candidate which relies on the coordinated work of candidates and mentors.
The mentor supervises the candidate in his work and provides him with assistance in the entire process involving:
Selection of the topic of work
Formulating the titles of work
Set the goal, the subject of work, methods, and ways of solving a research problem
Selecting the way to deal with problems, collecting and processing the most up-to-date information related to the
topic
Application of experimental methods and analysis and processing of results using statistical methods, interpretation of
results
The final design of research work
Study research work presents research work in which the candidate is acquainted with the methodology of scientific and
research projects. By the study research work, the candidate proves that he has mastered the theoretical settings of the research,
the theoretical knowledge in the research field and that he is capable to successfully conduct a complete research process
involving:
Problem identification
Theoretical problem processing
Part of the research including the plan of realization and organization of research
Production of written material
After conducting the research, the candidate prepares the study research work in a form containing the following chapters:
Introduction; Theoretical part; Experimental part, Results and Discussion; Conclusion; Review of the literature.
Bibliography
A broad review of the available literature and empirical body of evidence using the PubMed and ScienceDirect databases with
the relevant keywords.
Active Teaching Hours Theory: Study research work: 8(120)
Applicable Teaching Methods
Independent research work of the candidate, mentorship
Grading Scheme (max. 100 points)
Pre-exam Requirements Compulsory Points Final exam Points
Study research work-1 Yes 50 Exam (oral) 50
Course Title: ADVANCED INSTRUMENTAL METHODS IN ENVIRONMENTAL SCIENCE - SELECTED
CHAPTERS
Teachers: Emeritus Professor Marković Dragan, PhD; Associate Research Professor Ivanović-Šašić Ana, PhD;
Assistant Research professor Stevanović Sanja, PhD; Research Associate Jovanović Gordana, PhD;
Senior Research Associate Mijić Zoran, PhD
Course Status: COMPULSORY
ECST Value: 10
Prerequisite: /
Course Goals and Objectives
Students are acquainted with basic principles of advanced instrumental methods that have wide application in
environmental science, and theoretical principles required for their practical application and use in order to better
understand the state of the environment and the climate system.
Course Outcomes
Students are equipped with theoretical and practical knowledge to understand advanced instrumental methods and their
application in environmental science. Coaching for independent optimization of measurement conditions, as well as
analysis and interpretation of the obtained results.
Course Content
Theory
Place and role of advanced instrumental methods in the environmental field; Basic principles of mass spectrometry and
optical non-destructive methods; Analysis of specific pollutants in different types of environmental samples; Principle of
advanced methods for remote detection; Different types of Lidar (LIght Detection And Ranging) systems and field of
application; Data preprocessing, analysis and interpretation of measurement results obtained by the Raman Lidar system;
The significance and possibilities of using satellite observations; Synergy of satellite observations, Lidar measurements
and atmospheric models for the transport of air pollution.
Practice
Demonstration and practical exercises for measuring the concentration of pollutants in real conditions using advanced
instrumental methods, analysis and interpretation of measurements. Application of remote detection of atmospheric
aerosols and interpretation of results through case studies.
Primary and Secondary Sources Selection
6. Majchrzak, Tomasz, et al. "PTR-MS and GC-MS as complementary techniques for analysis of volatiles: A tutorial
review." Analytica chimica acta (2018).
7. Gredilla, Ainara, et al. "Non-destructive Spectroscopy combined with chemometrics as a tool for Green Chemical
Analysis of environmental samples: A review." TrAC Trends in Analytical Chemistry 76 (2016): 30-39.
8. Sicard, M., D'Amico, G., Comerón, A., et. al: EARLINET: potential operationality of a research network,
Atmospheric Measuring Technicues., 8, (2015): 4587-4613.
9. Pappalardo, G., Amodeo, A., Apituley,et al. : EARLINET: towards an advanced sustainable European aerosol lidar
network, Atmospheric Measuring Technicues., 7, (2014): 2389-2409.
10. Vladimir A. Kovalev (2015): Solutions In Lidar Profiling Of The Atmosphere, John Wiley & Sons, New Jersey
Active Teaching Hours Theory: 7 (105) Study research work:
Applicable Teaching Methods:
Lectures, practice, simulations, mid-term tests.
Grading Scheme (max. 100 points)
Pre-exam Requirements Points Final Exam Points
Attendance and in-class Activity 10 Oral part 50
Mid-term Exams 40
Total 50 Total 50
Course Title: ADVANCED CONSERVATION METHODS
Teachers: Full Professor Jelena Milovanović Radosavljević, PhD; Full Professor Lidija Amidžić. PhD
Course Status: Optional
ECST Value: 10
Prerequisite: /
Course Goals and Objectives
The aim of the course is to familiarize students with advanced methods of conservation of species and populations, that is, inter- and
intraspecies variability and with possibilities for their application in different environmental conditions. Students will perceive the
importance of conservation and gain advanced knowledge in this field through examples of good practice applying the principle of
sustainability of conservation approaches and methods in various areas of interest to the human population, such as: agriculture and
forestry.
Course Outcomes
The student will improve knowledge in advanced methods of conservation of species and populations. Students will perceive the
importance and possibilities for applying conservation approaches to nature and environment protection. Students will be able to
independently analyze and assess the status of the populations of species in a particular area and develop a conservation strategy and
conservation program.
Course Content
Theory
Introduction in conservation, polymorphism and genetic resources; Endangering factors and vulnerability of biodiversity and genetic
resources; Potential constraints in the life cycle of species due to changes in the environmental conditions; Natural mechanisms of
species to mitigate the effects of climate change (adaptation); Approaches to the estimation of variability of species and populations:
static and dynamic conservation; In situ conservation methods; Еx situ conservation methods; Preservation and cryoconservation;
Methods of genetic resources conservation and improving in accordance with climate change; Conservation processes in the
international, national and local context; Project activities in order to develop advanced conservation methods; Conservation
strategies for species and populations; Conservation programs and technical guidelines for species and populations; Economic aspects
of conservation; Environmental modeling application in advanced conservation approaches development for species and populations.
Study research work
Study-research work on the development of a conservation strategy and program for the selected species and its populations, with the
selection of adequate methods for estimating interspecies variability and model of its conservation.
Bibliography
1. Šijačić-Nikolić, M., Milovanović, J., Nonić, M. (eds)(2019):Forests of Southeast Europe under a Changing Climate:Conservation
of Genetic Resources. Springer International Publishing AG, Е-book ISBN 978-3-319-95267-3, Hardcover ISBN 978-3-319-95266-6
2. Milovanović, J., Šijačić-Nikolić, M., Nonić, M. (2019): Climate change aspects in forest genetic resources conservation in Serbia.
In: Šijačić-Nikolić, M., Milovanović, J., Nonić, M. (eds): Forests of Southeast Europe under a Changing Climate: Conservation of
Genetic Resources. Springer International Publishing AG. p. 319-332. Е-book ISBN 978-3-319-95267-3, Hardcover ISBN 978-3-
319-95266-6
3. Nonić, M., Nedeljković, J., Nonić, D., Milovanović, J., Šijačić-Nikolić, M. (2019): Regulatory framework for conservation and
sustainable utilization of forest genetic resources in Serbia. In: Šijačić-Nikolić, M., Milovanović, J., Nonić, M. (eds): Forests of
Southeast Europe under a Changing Climate: Conservation of Genetic Resources. Springer International Publishing AG. p. 87-104.
Е-book ISBN 978-3-319-95267-3, Hardcover ISBN 978-3-319-95266-6
4. Šijačić-Nikolić M., M. Nonić, V. Lalović, J. Milovanović, J. Nedeljković, D. Nonić (2017): Conservation of forest genetic
resources: Key stakeholders' attitudes in forestry and nature protection. Genetika, Vol 49, No.3: 875-890
5. Šijačić-Nikolić, M., Milovanović, J., Nonić, M. (2014): Conservation of Forest Genetic Resources. In: Ahuja, M.R. & Ramawat,
K.G. (eds.): Biotechnology and Biodiversity. Springer International Publishing. pp: 103-128.
6. Geburek, Т., Turok, Ј (2005): Conservation and Management of Forest genetic Resources in Europe, Arbora Publishers, Slovakia
Active Teaching Hours Theory: 7 (105) Study research work:
Applicable Teaching Methods
lectures, study-research work, discussion, oral exam
Grading Scheme (max. 100 points)
Pre-exam Requirements Points Final exam Points
Attendance and in-class Activity 10 Oral exam 50
Other Assessment Items /conservation
strategy and program 40
Course Title: BIODIVERSITY CONSERVATION AND CLIMATE CHANGE
Teacher: Full Professor Lidija Amidžić PhD; Full Professor Jelena Milovanović Radosavljević, PhD
Course Status: Elective
ECST Value: 10
Prerequisite: /
Course Goals and Objectives
The objective of the course is that students adopt the scientific approach in the collection, processing, analysis and
correct application of data on the significance and state of biodiversity, the causes and consequences of its endangering,
the possibilities and methods of its preservation. Also, the objective of the course is to make students understand the
nature, causes, and consequences of accelerated climate change on biodiversity and the development of human society.
Course Outcomes
Students are trained in the methodology, principles and stages of theoretical and applied approach to current events in
nature and human society precisely through processes of rising climate change and accelerated erosion of biodiversity.
Students should be able to accept and apply modern methodologies and technologies in solving these problems.
Course Content
Theory
Concept, manifestations and levels of biodiversity. Genetic, special and ecosystemic diversity - manifestations, values,
significance, condition, vulnerability and conservation. Climate and living world. Climate change through the history of
the living world. Contemporary climate change - causes, consequences and possible scenarios. Climate change and
erosion of biodiversity. Passive and active measures to mitigate climate change and preserve biodiversity in modern
conditions.
Study research work
Analysis of case studies, research work on specific topics, presentation and analysis of methods of active conservation
and improvement of biodiversity, field work.
Bibliography
1. Sofo, A. (Ed.). (2011). Biodiversity. Intech. ISBN 978-953-307-715-4.
2. Henle, K., Potts, S., Kunin, W., Matsinos, Y., Similä, J., Pantis, J., Grobelnik, V., Penev, L., Settele, J. (2014).
Scaling in Ecology and Biodiversity Conservation. Pensoft. ISBN 978-954-642-740-3
3. Lovejoy E. Th., Hannah, L. (2019). Biodiversity and Climate Change. Yale University Press. ISBN 9780300206111
4. Holmes. A. (Ed.) (2015). The science of climate change. Australian Academy of Science. ISBN 978 0 85847 413 0- 5. Preziosi, R., Filho, W. L. Barbir, J. (Eds.) (2019). Handbook of Climate Change and Biodiversity. Springer Nature
Switzerland AG ISBN 978-3-319-98680-7 ISBN 978-3-319-98681-4 (eBook) https://doi.org/10.1007/978-3-319-98681-
4 Active Teaching Hours Theory: 7(105) Study research work:
Applicable Teaching Methods
Lectures, term papers, case studies analysis, field work, presentations, films, mid-term exams, written exam.
Grading Scheme (max. 100 points)
Pre-exam Requirements Points Final exam Points
Attendance and in-class Activity 10 Exam (written) 30
Mid-term Exam/Test I 20
Mid-term Exam/Test II 20
Term papers 20
Course Title: STUDY RESEARCH WORK 2
Teacher: Selected Teacher - Mentor
Course Status: Compulsory
ECST Value: 10
Prerequisite: / All subjects from the second semester passed
Course Goals and Objectives: Study research work is the act of examining candidates for doctoral studies and the first
important verification statement that the candidate works in agreement with the mentor. Study research represents work on
projects that include practical problems and finalization of a part of knowledge from previously mastered subjects. The
research work examines the candidate's autonomy in order to perform more complex and comprehensive analysis of a
particular problem.
Course Outcomes
Conducting study research work, the candidate is able to learn, formulate and process a scientific research problem,
respecting the general theoretical and methodological frameworks of scientific research work. The candidate is qualified for:
Application of acquired knowledge in solving real problems
Independent research work in the field of environmental protection and sustainable development
Presentation of the results
Course Content
Study research work is the independent work of the candidate which relies on the coordinated work of candidates and
mentors. The mentor supervises the candidate in his work and provides him with assistance in the entire process involving:
Selection of the topic of work
Formulating the titles of work
Set the goal, the subject of work, methods, and ways of solving a research problem
Selecting the way to deal with problems, collecting and processing the most up-to-date information related to the
topic
Application of experimental methods and analysis and processing of results using statistical methods, interpretation
of results
The final design of research work
Study research work presents research work in which the candidate is acquainted with the methodology of scientific and research projects. By the study research work, the candidate proves that he has mastered the theoretical settings of the research, the theoretical knowledge in the research field and that he is capable to successfully conduct a complete research process involving:
Problem identification
Theoretical problem processing
Part of the research including the plan of realization and organization of research
Production of written material
After conducting the research, the candidate prepares the study research work in a form containing the following chapters: Introduction; Theoretical part; Experimental part, Results and Discussion; Conclusion; Review of the literature.
Bibliography
A broad review of the available literature and empirical body of evidence using the PubMed and ScienceDirect databases
with the relevant keywords.
Active Teaching Hours Theory: Practice: 6 (90)
Applicable Teaching Methods
Independent research work of the candidate, mentorship
Grading Scheme (max. 100 points)
Pre-exam Requirements Compulsory Points Final exam Points
Study research work-2 Yes 50 Exam (oral) 50
Course Title: CONTEMPORARY ECODESIGN METHODS
Teacher: Emeritus Professor Dragan Marković, PhD; Full Professor Gordana Dražić, PhD; Associate Professor Boris
Vakanjac, PhD; Assistant Professor Milena Rikalović, PhD; Principal Research Fellow, Dragi Antonijević, PhD Course Status:Optional ECST Value: 10
Prerequisite: /
Course Goals and Objectives is to introduce the students with contemporary ecodesign methods and potential for their application in
different aspect of the environment and environment protection. The students will, through examples of ecodesign and sustainаble
principles implementation in biotechnology in field of agriculture, industry, waste tretament, pollutants degradation and/or
transformation in various media, perceive importance of this approach. Additionally, the students will expand their knowledge in field
of the environmental assessement.
Course Outcomes
The student will acquire knowledge in the field of ecodesign and contemporary ecodesign methods. The student will realize
importance of ecodesign implementation and opportunities for its application. The student will be able to independently analyse and
assess environmental state related to waste, pollution and degradation of natural resources, and to recommend, plan and project
sustainable ecobased solutions.
Course Content
Theory
Introduction in ecodesign methodology; Benefits and opportunities of eco-design application; The scope of ecodesign; Contemporary
ecodesign methods in environment protection; Ecodesign implementation; Ecodesign and biotechnology; Bioenergy, biofuels,
biorefining; Biomass/feedstocks; Biotechnology in sustainable agriculture; Biomaterials: bioplastics, biofilms; Biobased chemicals
and enzymes; Biosurfactant and detergents; Bioremediation; Fitoremediation; Nanobiotechnology; Qualitative tools for the
environmental assessment.
Study research work
Analysis of ecodesign solutions in practice, examples; Discussion on environmental problems and implementation of sustainable
approach in practice; Analysis of present environmental problems in industry, waste treatment and management, polluted soil and
water resources and possibility of using contemporary ecodesing methods; Realisation of term papers and project work related to
concrete topic from the field.
Bibliography
1. Моntana-Hoyos, C., Fiorentino, C. (2014) Bio-Utilization, Bio-Inspiration and Bio-Affiliation in Design for Sustainability
Biotechnology, Biomimicry and Biophilic Design, The International Journal of Designed Objects, 10, pp 1-18
2. Sanyé-Menguala, E. et al (2014) Introduction to the eco-design methodology and the role of Product Carbon Footprint; in
Assessment of Carbon Footprint in Different Industrial Sectors, Ed. Senthilkannan Muthu, S., pp 1-24, Springer, doi
10.1007/978-981-4560-41-2_1
3. Smith, J.E. (2009) Biotechnlogy, Cambridge University Press, New York (selected chapters)
4. Rikalovic, M.G., Vrvic, M.M., Karadzic, I.M.. (2014) Bioremediation by Rhamnolipids Produced by Environmental Isolates of
Pseudomonas aeruginosa; in Bioremediation Processes, Challenges and Future Prospects, Ed. Velazguez-Fernandez, J.B., Muniz-
Hernandez, S., Nova Science Publishers, New York, p. 299-333
5. Marišova, E. et al (2016) AGRO-ENERGY FOR SUSTAINABLE AGRICULTURE AND RURAL DEVELOPMENT – GOOD
PRACTICES FROM SLOVAKIA-SERBIA BILATERAL COOPERATION, Faculty of Applied Ecology Futura Singidunum
University Belgrade, MESTD of RS (selected chapters)
6. Rikalović, M. Vrvic, I. Karadzic (2015) Review Rhamnolipid biosurfactant from Pseudomonas aeruginosa – from discovery to
application in contemporary technology, Journal of Serbian Chemical Society, Vol. 80, pp. 279 - 304
Active Teaching Hours Theory: 7(105) Study research work:
Applicable Teaching Methods
Lectures, practice, term papers and project work, interactive discussion, mid-term exams, oral exam.
Grading Scheme (max. 100 points)
Pre-exam Requirements Points Final exam Points
Attendance and in-class Activity 10 Exam (oral) 30
Project work 25
Mid-term Exam/Test I and II 25
Other Assessment Items 10
Course Title: URBAN ECODESIGN
Teacher: Emeritus Professor Dragan Marković, PhD; Full Professor Gordana Dražić Associate Professor Boris Vakanjac,
PhD; Assistant Professor Maja Vujčić Trkulja, PhD; Assistant Professor Milena Rikalović, PhD
Course Status: Elective
ECST Value: 10
Prerequisite: /
Course Goals and Objectives
Urban eco-design is concerned with the integration of knowledge in the field of urban ecosystems and modern mapping technologies
in order to identify problems and mitigate the environmental impacts of the environment, identify benefits, and encourage innovative
design solutions that would highlight the importance of nature in the city, the importance of renewable energy and recycling of waste
and raised the quality of the functional space of urban environments.
Course Outcomes
The students are expected to be able to apply practical and operational knowledge in the field of the urban ecosystem through the
implementation of the methodology of mapping, analysis and design of public space in order to engage in planning, designing and
upgrading conceptual solutions in a professional and analytical manner, as well as improving the quality of open spaces in the city.
Course Content
Theory
The ecological approach in the field of urban design; Analysis of ecological and social relations in different spatial contexts. An
integrated approach to problem-solving and minimizing negative environmental impacts. Urban eco-design as a sustainable concept of
environmental principles at different spatial levels; Application of theoretical and normative bases for development of urban eco-
design tools; Mapping methodology; Quality analysis of green areas; Mapping devastated areas and causes of devastation; Landfills,
roads, wild settlements, etc.; Black spots - environmental noxae: air quality, noise; Mapping objects, creating a database that would
serve for ecosystem evaluation; Assessment of situation and decision-making.
Study and research work
Making DPSIR, SWOT analysis and concept; Review of empirical evidence, use of tools for bibliography browsing by keywords:
ecological indicators; urban landscape; spatial development, sustainable urban planning and design; green infrastructure (GI);
ecological design; modern mapping methods. Researching theories, concepts, models of urban urbanism in relation to thematic areas;
Field work - a case study. Creating a map of the ecological status of the region - the technical documentation - Layers; Term papers
and project work.
Bibliography
1. Mizen A, Song J, Fry R, et al. 2019. Longitudinal access and exposure to green-blue spaces and individual-level mental health and
well-being: protocol for a longitudinal, population-wide record-linked natural experiment. BMJ Open 2019;9:e027289.
doi:10.1136/bmjopen-2018-027289
2. Badach, J., Raszeja, E. 2019. Developing a Framework for the Implementation of Landscape and Green space Indicators in
Sustainable Urban Planning. Waterfront Landscape Management: Case Studies in Gdansk, Poznan and Bristol. Sustainability 2019,
11, 2291; doi:10.3390/su11082291
3. Simić, I., Stupar, A., Djokić, V. 2017. Building the Green Infrastructure of Belgrade: The Importance of Community Greening.
Sustainability, 9, 1183. doi:10.3390/su9071183
4. Annerstedt van den Bosch et al. 2015. Moving to Serene Nature May Prevent Poor Mental Health—Results from a Swedish
Longitudinal Cohort Study. Int. J. Environ. Res. Public Health 2015, 12, 7974-7989; doi:10.3390/ijerph120707974
5. Birkeland J. (2002) Design For Sustainability: A Sourcebook Of Integrated Eco-Logical Solutions, London, Sterling: Earthscan
Active Teaching Hours Theory: 7 (105) Study research work:
Applicable Teaching Methods
Lectures, practice, term papers and project work, case analysis, simulation, interactive discussion, mid-term exams, written exam.
Grading Scheme (max. 100 points)
Pre-exam Requirements Points Final exam Points
Attendance and in-class Activity 10 Exam (written/oral) 30
Term paper 25
Project work 25
Other Assessment Items 10
Course Title: ECONOMICS AND POLICY OF ENVIRONMENTAL PROTECTION
Teacher: Assistant Professor Mesud Adžemović, PhD; Full Professor Nemanja Stanišić, PhD
Course Status: Optional
ECST Value: 10
Prerequisite: /
Course Goals and Objective The objective of the course is to provide students with knowledge on the economic aspects of the interaction between the
economy and the environment, understood as a source of resources and as a "landfill" for the residuals of economic activity,
on the one hand, and environmental protection policies on the other. Understanding and ability to interpret the dynamics of
the relationship between economic and ecological parameters and variables.
Course Outcomes
Students will develop the ability to interpret and analyze essential processes and interactions between the economy and the
environment policy. Students will be able to apply economic methods of impact assessment in the management of a
sustainable development strategy and environmental policy.
Course Content
Theory
The role of the economy in the management of the environment. The failure of the basic economic mechanism - market and
approach of overcoming this failure. Conventional methods of solving: regulation, planning. Economic methods: subsidies,
market approximation. Analytical methods in planning and management of the environment. Risk analysis, cost and profit
estimation. Macroeconomic aspects of protection. Global environmental management. Development indicators and key
elements in advocating an effective environmental policy.
Study and research work
Externals problem. International agreements and conventions. Strategic approach to the problem. National regulatory
framework. Role of institutions. Analysis of different instruments for solving regulation problems. The problem of looking at
costs and benefits. Analysis of the case study.
Bibliography
1. R. Stavins: Economics of the Environment Selected Readings, Elgar 2019.
2. R. S.J. Tol: Climate Economics - Economic Analysis of Climate, Climate Change and Climate Policy, Second Edition,
Elgar 2019.
3. T. Aronsson, K. Backlund, Karl-Gustaf Löfgren: Environmental Policy, Sustainability and Welfare An Economic
Analysis, Elgar 2018.
4. T.H. Tietenberg, L. Lewis: Environmental Economics and Policy, Harlow, Essex Pearson, 2014.
5. S.C. Callan i J. Thompson: Environmental Economics and Management – Theory, Policy and Applications, S.W.
Cenage, Ohio, 2010
6. D. Haris: Ekonomija životne sredine i prirodnih resursa, Data status, Beograd, 2009.
7. А. М. Hussen: Principles of Environmental Economics, Routlige, N.Y, 2008.
8. M. Sagoff: Price, Principle and the Environment, Cambridge U. Press, 2004.
9. D.H., Meadows, D.L., Randers J. and Behrens, W.W. The Limits to Growth: A Report for The Club of Rome's Project on
the Predicament of Mankind. New York, Earth Island, Universe Books, 1972.
10. Н. Georgescu-Roegen:The Entropy Law and Economic Process. Cambridge MA, Harvard Univ. Press, 1971.
Active Teaching Hours Theory: 7 (105) Study research work:
Applicable Teaching Methods
Lectures, practice, consultations, term papers and project work, knowledge check
Grading Scheme (max. 100 points)
Pre-exam Requirements Points Final exam Points
Attendance and in-class Activity 10 Exam (oral) 30
Term papers 40 Exam (written) 20
Course Title: ECONOMIC AND SOCIAL ASPECTS OF SUSTAINABLE DEVELOPMENT
Teacher: Assistant Professor Mesud Adžemović, PhD; Full Professor Nemanja Stanišić, PhD; Principal research
fellow, Dragi Antonijević, PhD
Course Status: Optional
ECST Value: 10
Prerequisite: /
Course Goals and Objectives
The objective of the course is to provide students with knowledge on sustainable development paradigms as multi-
dimensional results that encompass the quantity and quality of economic development, the state of the environment and the
social balance, as well as develop the ability to interpret the dynamics of the relationship between the three components that
constitute sustainable development.
Course Outcomes
The students will develop an analytical approach that will enable them to understand the concept of sustainable
development and the ability to interpret and analyze its essential processes. Students will acquire relevant knowledge for
the application of economic methods of impact assessment in the management of the strategy and sustainable development
policy.
Course Content
Theory
Theoretical and conceptual consideration of sustainable development. Phenomenological understanding of the sustainable
development paradigm and the impact on public policies, such as development policy, industrial, agricultural, energy and
environmental/environmental protection policies. Global sustainable development strategy and policy led by international
organizations and institutions, in particular the UN. Key objectives related to climate change and maintenance of
biodiversity.
Study and research work
Leading a sustainable development policy in different economic, social and political conditions: developed countries,
developing countries, countries in transition. Analysis of sustainable development measures. Analysis of the case study.
Bibliography
1. K. Skene, A. Murray: Sustainable Economics Context, Challenges and Opportunities for the 21st-Century
Practitioner, 2017.
2. W. McDonough, M. Braungart: The Upcycle: Beyond Sustainability--Designing for Abundance, North Point Press,
2013.
3. S. Baker: Sustainable Development, Routlege, London, 2010.
4. T. Strange i A. Baley, Sustainable Development – Linking Society, Economics and the Environment, OECD, Pariz ,
2008.
5. R. Baxter i R. Damphy: Europe, Globalization and Sustainable Development, Routlege, London, 2004.
6. Measuring Sustainable Development, Inegrated Economic, Environmental And Social Frameworks, OECD, Pariz,
2004.
7. OECD: Sustainable Development – Critical Issues, Pariz, 2004.
Active Teaching Hours Theory: 7 (105) Study research work:
Applicable Teaching Methods
Lectures, practice, consultations, term papers and project work, knowledge check
Grading Scheme (max. 100 points)
Pre-exam Requirements Points Final exam Points
Attendance and in-class Activity 10 Exam (oral) 30
Term paper 40 Exam (written) 20
Course Title: STUDY RESEARCH WORK 3
Teacher: Selected Teacher - Mentor
Course Status: Compulsory
ECST Value: 10
Prerequisite: / All subjects from the third semester passed
Course Goals and Objectives: Study research work is the act of examining candidates for doctoral studies and the first
important verification statement that the candidate works in agreement with the mentor. Study research represents work on
projects that include practical problems and finalization of a part of knowledge from previously mastered subjects. The research
work examines the candidate's autonomy in order to perform more complex and comprehensive analysis of a particular
problem.
Course Outcomes
Conducting study research work, the candidate is able to learn, formulate and process a scientific research problem, respecting
the general theoretical and methodological frameworks of scientific research work. The candidate is qualified for:
Application of acquired knowledge in solving real problems
Independent research work in the field of environmental protection and sustainable development
Presentation of the results
Course Content
Study research work is the independent work of the candidate which relies on the coordinated work of candidates and mentors.
The mentor supervises the candidate in his work and provides him with assistance in the entire process involving:
Selection of the topic of work
Formulating the titles of work
Set the goal, the subject of work, methods, and ways of solving a research problem
Selecting the way to deal with problems, collecting and processing the most up-to-date information related to the topic
Application of experimental methods and analysis and processing of results using statistical methods, interpretation of
results
The final design of research work
Study research work presents research work in which the candidate is acquainted with the methodology of scientific and
research projects. By the study research work, the candidate proves that he has mastered the theoretical settings of the
research, the theoretical knowledge in the research field and that he is capable to successfully conduct a complete research
process involving:
Problem identification
Theoretical problem processing
Part of the research including the plan of realization and organization of research
Production of written material
After conducting the research, the candidate prepares the study research work in a form containing the following chapters:
Introduction; Theoretical part; Experimental part, Results and Discussion; Conclusion; Review of the literature.
Bibliography
A broad review of the available literature and empirical body of evidence using the PubMed and ScienceDirect databases with
the relevant keywords.
Active Teaching Hours Theory: Study research work: 6(90)
Applicable Teaching Methods
Independent research work of the candidate, mentorship
Grading Scheme (max. 100 points)
Pre-exam Requirements Compulsory Points Final exam Points
Study research work-3 Yes 50 Exam (oral) 50
Course Title: SCIENTIFIC-RESEARCH PROJECT WITH SCIENTIFIC METHODOLOGY – IN
ENVIRONMENTAL PROTECTION
Teacher: Emeritus Professor Dragan Marković, PhD; Full Professor Svetlana Stanišić, PhD; Full Professor Jelena
Milovanovic, PhD; Assistant Professor Milena Rikalović, PhD; Senior Research Associate, Zoran Mijić, PhD; Principal
research fellow, Dragi Antonijević, PhD; Research associate Sanja Stevanović, PhD
Course Status: Optional
ECST Value: 30
Prerequisite: All exams before the fourth term
Course Goals and Objectives
Students acquire the basic approach in research, methods and techniques for collecting, experimental analysis and interpretation
of the results of scientific work in the field of environmental science, environmental protection and applied ecology, as well as
the structure of scientific research in the field of natural-mathematical sciences.
Course Outcomes
A PhD student is able to apply the methodology, interpret the scientific literature and data, critically approach the analysis of
the results, independently plan, design and conduct scientific research in the field of environmental science, environmental
protection and applied ecology. Additionally, the PhD student is able to implement the acquired knowledge in practice in this
field.
Course Content
Theory
The aims of the methodology of scientific research work in natural-mathematical sciences; Literature sources, collection of
relevant, contemporary literature in the field of environmental science, ecology, contemporary analytical methods,
biotechnology and other interdisplinary sciences; Formulating the topic and a research plan; Logical methods of research;
Modern methods for research in the field of environmental sciences; Methods of results presentation and writing scientific work
reports; Methodology of writting sciencific paper; Methodology of writing applied projects.
Study research work
Defining a specific topic for a scientific-research project; Creating a research plan; Collection of literature, analysis of
available data; Defining the methodology; Realization of the experimental work; Analysis, interpretation and processing of
results; Writing a scientific report; Writing а scientific paper.
Bibliography
1. Mack, A.C., How to write a good scientific paper, SPIE PRESS, USA, Washington, 2018, pp 1-124
2. Roudgarmi, P., Qualitative research for environmental sciences: A review. Journal of Food, Agriculture and Environment
(2011)
3. 9: 871 – 879
4. Richardson, S.D. Mass Spectrometry in Environmental Sciences. Chemical Review (2001) 101: 211−254
5. Xiaona, C.H.U., Jiangyong, H.U., Say Leong, O.N.G. Application of proteomics in environmental science. Frontiers
Environmental Science Engineering China (2009) 3: 393–403
6. Courchamp, F., et al Fundamental ecology is fundamental. Trends in Ecology and Evolution (2015) 3
https://www.cell.com/trends/ecology-evolution/fulltext/S0169-5347(14)00244-4
Active Teaching Hours Theory: 5(75) Study research work: 15 (225)
Applicable Teaching Methods
Lectures, consultations, mentoring, independent research work of candidates.
Grading Scheme (max. 100 points)
Pre-exam Requirements Points Final exam Points
Attendance and in-class Activity 10 Exam 50
Project work 40
Course Title: SCIENTIFIC RESEARCH PROJECT WITH SCIENTIFIC METHODOLOGY – IN
SUSTAINABLE DEVELOPMENT
Teacher: Full Professor Gordana Dražić, PhD; Full Professor Jelena Milovanovic, PhD; Full
Professor Lidija Amidžić, PhD; Associate Professor Boris Vakanjac, PhD; Research associate Sanja
Stevanović, PhD; Full Professor Sladjana Spasić, PhD
Course Status: Optional
ECST Value: 30
Prerequisite: All exams before the fourth term
Course Goals and Objectives Students acquire the basic approach in research, methods and techniques for collecting, experimental analysis
and interpretation of the results of scientific work in the field of sustainable development.
Course Outcomes
A PhD student is able to apply the methodology, interpret the scientific literature and data, critically approach
the analysis of the results, independently plan, design and conduct scientific research in the field of
sustainable development. Additionally, the PhD student is able to implement the acquired knowledge in
practice in this field.
Course Content
Theory
The aims of the methodology of scientific research work in the field of sustainable development; Literature
sources, collection of relevant, contemporary literature in the field of sustainable development; Formulating
the topic and making a research plan; Logical methods of research; Modern methods of research in the field
of sustainable development; Methods of displaying results and writing scientific work reports; Methodology
of writing scientific work; Methodology of writing scientifically applied projects.
Study research work
Defining a specific topic for a scientific-research project; Creating a research plan; Collection of literature,
analysis of available data; Defining the methodology; Realization of the experimental work; Analysis,
interpretation and processing of results; Writing a scientific report; Writing а scientific paper.
Bibliography
1. Mack, A.C., How to write a good scientific paper, SPIE PRESS, USA, Washington, 2018, pp 1-124
2. Nicholas Walliman, Research Methodology The Basics, Routlidge 2011.
(https://edisciplinas.usp.br/pluginfile.php/2317618/mod_resource/content/1/BLOCO%202_Research%20Met
hods%20The%20Basics.pdf)
3. C.R. Kothari, Research Methodology Methods and Techniques, NEW AGE INTERNATIONAL (P)
LIMITED, PUBLISHERS, 2004. (http://www.modares.ac.ir/uploads/Agr.Oth.Lib.17.pdf)
4. Pierre Laszlo, Comunicating Science A Practical Guide, Springer, 2006.
5. Hans-Georg Gadamer, Vernunft im Zeitalter der Wissenschaft, Suhrkamp verlag, Frankfurt am Main,
1976.
6. L. Markauskaite, P. Freebody, J. Irwin, Methodological Choice and Design, Springer, 2006.
Active Teaching Hours Theory: 5 (75) Study research work: 15
(225)
Applicable Teaching Methods
Lectures, consultations, mentoring, independent research work of candidates
Grading Scheme (max. 100 points)
Pre-exam Requirements Points Final exam Points
Attendance and in-class Activity 10 Exam (oral
and written) 50
Project task 40
Course Title: STUDY RESEARCH WORK ON DOCTORAL THESIS
Teacher: All teachers who are competent for being mentor
Course Status: Compulsory
ECST Value: 30
Prerequisite: The students must have passed all the exams from the first, second and third semester
Course Objectives
The application of fundamental, theoretical and methodological, scientific and professional, and professional and applicative
knowledge and methods in solving concrete issues within the selected scientific field of a PhD research topic. The objective of
students' activity within this study research work on PhD thesis is to acquire necessary experience through solving complex
issues and tasks and recognizing the possibility for applying previously obtained knowledge in practice. This research project is
the continuation of the research paper from the second semester. The purpose of research work is to verify candidate's
autonomy to perform complex and comprehensive analysis of some problem related to the theme of doctoral dissertation. In
this segment of Doctoral dissertation, student examines the problem, its structure and complexity and on the basis of the
performed analyses draws conclusions regarding the possible manner in its solving. By examining the literature, the student
becomes conversant with the methods intended for creative solving of new tasks and engineering practice for its solving.
Course Outcome
Through individual usage of professional literature, students broaden their knowledge from the selected theme of the
dissertation in the field of environmental protection and sustainable development and they investigate diverse methods and
papers related to the similar fields. Thus, students develop the competence to perform analyses and identify problems within the
set theme. By conducting a dissertation research project, the student is able to solve a scientific-research problem, in accordance
with general theoretical-methodological framework for scientific-research paper. The candidate is able to carry out research
independently, apply previously acquired knowledge and present research results.
Course Content
Theory
Course content is formulated individually in accordance with the elaboration of the concrete Doctoral dissertation, its
complexity and structure. Student studies professional and scientific literature in the field of environmental protection and
sustainable development, Doctoral dissertations by other students dealing with similar theme; they perform analyses in order to
find solutions for a concrete task defined by the task of the Doctoral dissertation. On the methodological side, the structure of
PhD thesis is defined by the applied methodology in the study of the given scientific field.
Study research work
Within the set theme, the student can also perform certain measuring, examination, calculations, surveys and other research
methods and techniques, statistic data processing, if it is predicted by the task of the Doctoral dissertation.
When research is completed, the candidate prepares study research project that should contain the following chapters:
Introduction; Theoretical framework; Experimental part; Results and discussions; Conclusion; Literature Review.
Recommended Bibliography
Relevant sources of national and foreign recognized scientific researcher and prestigious international journals (from SCI and
Kobson List) in the field of environment and sustainable development; doctoral thesis in the given field.
Active Teaching Hours Theory: Study research work: 20 (300)
Applicable Teaching Methods
Study research work is the independent and original work of the candidate, which is performed under the constant supervision of
a mentor.The mentor guides the candidate in his work and provides him help with the whole research, with the selection of the
topic, set the goals, the subject of the paper, methods and ways of solving a research problem, collecting, processing and
analyzing and verification through implementing engineering methods and determining the final form of the paper. During the
elaboration of the Doctoral dissertation, the supervisor can provide additional instructions to the student refer them to certain
literature and additionally direct them towards the elaboration of a quality Doctoral dissertation. During the study research work,
if needed, the student has tutorials with other lecturers dealing with issues in the field of the set dissertation task.
Grading Scheme (max. 100 points)
Pre-exam Requirements Points Final exam Points
Study research project 50 Exam (oral) 50
Course title: PREPARATION AND DEFENSE OF DOCTORAL THESIS
Teacher/-s: A group of teachers who meets the mentoring requirement
Course status: Compulsory
ECTS credits: 30
Prerequisite: Students must pass all the exams
Course objectives
Acquiring knowledge about the structure and form of writing a thesis report after analysis, and other activities carried out
within the assigned topic of the doctoral thesis. By writing the doctoral thesis, students gain experience for creative work,
writing papers in which it is necessary to describe the problem, implement methods and procedures and results obtained,
as well as to give new scientific contribution to the science development and to the application of the scientific research in
practice. In addition, the goal of writing and defending a doctoral thesis is to enable students for independent paper
preparation in a suitable form for the purpose of public presentation, as well as to respond to comments and questions
related to the given topic.
Course Outcomes
Students are enabled for a systematic approach in solving the given problems, carrying out analyses, applying knowledge
and accepting knowledge from other areas in order to find creative solutions for a given problem. Through independent
studying/work and by solving tasks in a given topic, they acquire the knowledge about the complexity of the problems in
the field of their profession. While working on the doctoral thesis, students gain experiences that can be applied in practice
when solving problems in the relevant field/-s. Students acquire all the necessary experience on how to present the results
of independent or team work in practice by preparing the results for public defense, by the public defense itself, and by
answering questions of the Defense Committee.
Course Content
The Content is formed individually, in accordance with the needs and the field examined by a given doctoral thesis topic.
In agreement with a mentor/supervisor, a student completes the doctoral dissertation in a written form in accordance with
the rules provided by Singidunum University. The student prepares and defends the written doctoral thesis in public, in
agreement with the mentor and in accordance with the prescribed rules and procedures.
Recommended literature
Singidunum University library
Group of authors, Available scientific journals.
Group of authors, Available literature for the scientific field from which the dissertation is.
Active teaching/learning hours
(total): 20
Theory: Practice/Independent/Supervised Work: 20
Applicable Teaching Methods:
Independent research work of a candidate. During the elaboration of the doctoral thesis, students consult their mentor, and
other teachers (if necessary) dealing within a sphere of the doctoral thesis. Students write the doctoral thesis, and, upon the
defense committee approval, submit bound copies to the committee. The defense of the doctoral thesis is performed in
public, and after the presentation, students are obliged to orally answer the questions asked by the Committee.
Grading Scheme (max. 100 points)
Oral defense of doctoral thesis.