ABSTRACT

The complementary nature of physically-based and data-driven models in their demand for physical insight and historical data, leads to the notion that the predictions of a physically-based model can be improved and the associated uncertainty can be systematically reduced through the conjunctive use of a data-driven model of the residuals. The objective of this thesis is to minimise the inevitable mismatch between physically-based models and the actual processes as described by the mismatch between predictions and observations. The complementary modelling approach is applied to various hydrodynamic and hydrological models.

part I.|16 pages

OVERVIEW

chapter CHAPTER 1.|6 pages

INTRODUCTION

chapter CHAPTER 2.|8 pages

BACKGROUND

part II.|74 pages

METHODOLOGY

chapter CHAPTER 3.|14 pages

INFORMATION THEORY-BASED APPROACHES

chapter CHAPTER 4.|22 pages

ARTIFICIAL INTELLIGENT APPROACHES

chapter CHAPTER 5.|36 pages

COMPLEMENTARY MODELLING

part III.|77 pages

APPLICATION

part IV.|8 pages

EVALUATION

chapter CHAPTER 8.|8 pages

CONCLUSIONS, DISCUSSION AND FUTURE WORK