INGLESE
English
Fundamentals of hydraulics
Fundamentals of hydraulics
Classroom lectures for 72 hours
Classroom lectures for 72 hours
The course enables students to acquire advanced knowledge of design of operative units related to the biological treatment of urban and industrial wastewater. This knowledge will allow to acquire scientific approach to complex and interdisciplinary engineering problems with clear reference to the design aspects and to the critique analysis of the typical application problems of the chemical-environmental engineering.
The student will acquire knowledge of the technological productive processes for the treatment and valorisation of municipal and industrial wastewaters. The problem of the conventional or advanced treatments will be developed in order to learn the phases of design. The use of specific and commercial software for the solution of applied problems will allow comparable approach to that commonly used in the labour market.
The approach to the design of environmental engineering structures and chemical plants will increase the degree both of independence in terms of critical choices during the design phase and of the learning capacity in the analysis and in the definition of the project data.
The course enables students to acquire advanced knowledge of design of operative units related to the biological treatment of urban and industrial wastewater. This knowledge will allow to acquire scientific approach to complex and interdisciplinary engineering problems with clear reference to the design aspects and to the critique analysis of the typical application problems of the chemical-environmental engineering.
The student will acquire knowledge of the technological productive processes for the treatment and valorisation of municipal and industrial wastewaters. The problem of the conventional or advanced treatments will be developed in order to learn the phases of design. The use of specific and commercial software for the solution of applied problems will allow comparable approach to that commonly used in the labour market.
The approach to the design of environmental engineering structures and chemical plants will increase the degree both of independence in terms of critical choices during the design phase and of the learning capacity in the analysis and in the definition of the project data.
1-Technical legislation: Design and realization of treatment and drinkable waters plants. Analysis of the legislation for the sludge treatment plants. 2-Wastewater: Design data for waste water treatment plants. Biological treatments. Attached and suspended growth reactors, kinetics of biological growth. Aerobic and anaerobic processes; theory of processes design. 3-Design in advanced treatments: Biological nitrogen removal, nitrification, denitrification. Biological phosphorus removal. Combined removal of nitrogen and phosphorus by biological methods. Removal of nutrients by physical and chemical processes. MBR processes, Constructed Wetlands. 4- Simulation models: Simulation model in biological processes: IAWPRC model. Calculation example for real plants using ASIM and BioWin .Plant engineering. 5-Process types: Phoredox process and its modifications, UCT process and its modification. Systems for small communities. 6- Sewage sludge treatment: Biological treatment of sludge. Sludge anaerobic digestion and aerobic stabilization, composting; process theory and design methods. Plant design 7- Wastewater treatment plant design 8-Processes for resources recovery from Wastewater, sewage sludge and organic waste
1-Technical legislation: Design and realization of treatment and drinkable waters plants. Analysis of the legislation for the sludge treatment plants. 2-Wastewater: Design data for waste water treatment plants. Biological treatments. Attached and suspended growth reactors, kinetics of biological growth. Aerobic and anaerobic processes; theory of processes design. 3-Design in advanced treatments: Biological nitrogen removal, nitrification, denitrification. Biological phosphorus removal. Combined removal of nitrogen and phosphorus by biological methods. Removal of nutrients by physical and chemical processes. MBR processes, Constructed Wetlands. 4- Simulation models: Simulation model in biological processes: IAWPRC model. Calculation example for real plants using ASIM and BioWin .Plant engineering. 5-Process types: Phoredox process and its modifications, UCT process and its modification. Systems for small communities. 6- Sewage sludge treatment: Biological treatment of sludge. Sludge anaerobic digestion and aerobic stabilization, composting; process theory and design methods. Plant design 7- Wastewater treatment plant design 8-Processes for resources recovery from Wastewater, sewage sludge and organic waste
The evaluation will be based on an oral examination when both theoretical and calculation questions will be asked about the topics thaught during the lectures
o successfully pass the evaluation of learning, the student must demonstrate the understanding of the concepts presented in class and the acqusition of the theoretical principles, design and application of biological processes and sludge treatment methods.
During the examinations will be evaluated the understanding of the theoretical and experimental principles of the treated topics and the ability to properly use the design principles of processes units and technologies
The final mark is attributed with minimum grade of 18/30 associated with complete knowledge of the treated topics. Additional points up to 30/30 will be awarded based on the general and specific skills. The evaluation "cum laude" will be given to students with elevated outstanding and critical exposition of the arguments.
The evaluation will be based on an oral examination when both theoretical and calculation questions will be asked about the topics thaught during the lectures
o successfully pass the evaluation of learning, the student must demonstrate the understanding of the concepts presented in class and the acqusition of the theoretical principles, design and application of biological processes and sludge treatment methods.
During the examinations will be evaluated the understanding of the theoretical and experimental principles of the treated topics and the ability to properly use the design principles of processes units and technologies
The final mark is attributed with minimum grade of 18/30 associated with complete knowledge of the treated topics. Additional points up to 30/30 will be awarded based on the general and specific skills. The evaluation "cum laude" will be given to students with elevated outstanding and critical exposition of the arguments.
Course notes; Metcalf and Eddy, "Wastewater engineering treatment disposal and reuse", Ed. Mc Graw Hill (Hoepli inter); Henze, Harremoës, La Cour Jansen Arvin, "Wastewater treatment" "Biological and chemical processes", Sec. Ed. Springe
Moodle Link:
https://learn.univpm.it/enrol/index.php?id=7721
Course notes; Metcalf and Eddy, "Wastewater engineering treatment disposal and reuse", Ed. Mc Graw Hill (Hoepli inter); Henze, Harremoës, La Cour Jansen Arvin, "Wastewater treatment" "Biological and chemical processes", Sec. Ed. Springe
Moodle Link:
https://learn.univpm.it/enrol/index.php?id=7721
Università Politecnica delle Marche
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