The goal of the course is providing an introduction to the basic concepts and applications of equilibrium statistical mechanics. 

The program will cover the following topics:

Thermodynamic Potentials; Free Energy; Entropy; Equations of State.

Phase Space; Observables; Probability distribution; Microcanonical, canonical and grand canonical ensembles, partition function.

Critical points; Universality and scaling; Correlation functions; Symmetry breaking and order parameter; Ising model: solution in one and two dimensions, mean field solution.

Il corso ha lo scopo di insegnare agli studenti di dottorato a scrivere un articolo scientifico che soddisfi gli standard di u

Goal. The course provides the basic concepts necessary to i) carry out measurements, ii) process data and iii) derive hydrodynamic and physical meanings form large data sets.


Program. The following topics are studied, combining theory and practical examples.

Measurement definition and concept. Measurement instrumentation and sensors. Sources of error. Measurement uncertainty. Measurement in static and dynamic conditions. Sensitivity, accuracy and precision. Measurement range and frequency response. Instrument precision. Measurement error. Theory of errors.

Instrument calibration. How to get a calibration curve from laboratory data.

How to carry out a measurement. Nyquist theorem. Sampling duration. Signal analysis in time and frequency domain. FFT and IFFT. How to obtain a spectrum of the measured signal with FFT technique.

Chain of measures. Control and management of remote measuring stations, with sensors sampling hydrodynamic parameters.

Acoustic and laser signal sources. Doppler effect. Measuring flow velocity with LDA and ADV sensors.

Practical trials at the Coastal Engineering Laboratory - LIC of the DICATECh and analysis of acquired data.



Environmental issues are generally complex and in most cases require multidisciplinary skills. The optimal solution is the result of a broader evaluation which affects more thematic areas such as environmental, economic and social, paradigm of sustainable development. Additionally, with reference to a fixed environmental matrix, such as water, it may involve more professional profiles, from the chemical to the biologist, from the engineer to the physical.

In this context, the course aims to explain to doctoral students examples of multidisciplinary approaches applied to solving complex environmental problems. The presence of a total environment, intended as presence of different thematic areas connected to each other, is the common element in all the case studies addressed. 

This course aims at providing PhD students with the knowledge of fundamentals of Research Methodology and how to use them effectively in their scientific research.

The course of Research Methodology comprises four main sections:

1. Research Theory

2. Research Methods

3. Research Instruments/Techniques

4.. Research Project

Each of them is presented by considering also examples and case studies