Modeling for Complex Modular Power Electronic Transformers Using Parallel Computing

Aspect-Oriented Support for Modular Parallel Computing

In this paper, we discuss the benefits of using aspect-oriented programming to develop parallel applications. We use aspects to separate parallelisation concerns into three categories: partition, concurrency and distribution. The achieved modularisation enables us to assemble a variety of platform specific parallel applications, by composing combinations of (reusable) aspect modules into domain...

Modeling the Frequency Response Movements in Power Transformers for Predicting Purposes

Power transformers are key components in electrical power supplies and their failure could cause severe consequences on continuity of service and also generates substantial costs. Identifying problems at an early stage, before catastrophic failure occurs, is a great benefit for reliable operation of power transformers. Frequency Response Analysis (FRA) is a new, well-known and powerful diagnost...

Using Parallel Computing to Reduce CPU Power

Harmonic Modeling of Inrush Current in Core Type Power Transformers Using Hartley Transform

This paper presents a new method for evaluation and simulation of inrush current in various transformers using operational matrices and Hartley transform. Unlike most of the previous works, time and frequency domain calculations are conducted simultaneously. Mathematical equations are first represented to compute the inrush current based on reiteration and then Hartley transform is used to stud...

Modular Monad Transformers

During the last two decades, monads have become an indispensable tool for structuring functional programs with computational effects. In this setting, the mathematical notion of a monad is extended with operations that allow programmers to manipulate these effects. When several effects are involved, monad transformers can be used to build up the required monad one effect at a time. Although thi...