Customize the use of cookies

This website uses cookies to provide more efficient navigation and analyze visitor traffic. You will find detailed information about them below.

Cookies classified as "Necessary" will be stored in your browser, as they are essential for enabling the basic functionalities of the site. We also use third-party cookies aimed at analytics (Google Analytics), which help us analyze how you use this website. You can choose to enable or disable some of these cookies, but doing so may affect your browsing experience.

Always Active

These cookies are required to provide basic functionality of the website and cannot be disabled. They do not store any private or personally identifiable data.

These cookies allow us to understand how visitors interact with the website and provide information related to the number of visits, traffic sources, and bounce rates.

These cookies are used to provide visitors with personalized ads based on the pages they previously visited and to analyze the effectiveness of advertising campaigns. They are usually related to the integration of social media videos on the website.

Date: 21/05/2021.

Publication type: Research article.

Author(s): Antun Pfeifer, Luka Herc, Ilija Batas Bjelic, Neven Duic

Keywords: Integrated assessment models, Energy & materials, Environment.

Short description:

Recent European Green Deal includes decision to become carbon neutral and even carbon negative region in order to tackle the climate crisis. Main technical challenge and a key factor in techno-economic analysis of the energy system of the future, based on variable renewable energy sources, is their variable production and its integration. In order to deal with this problem in long-term energy planning, different approaches have been tried, focusing on overcapacity, storage capacities and sectors coupling with heating and transport. In this research, different flexibility options, storage and demand response technologies are modelled on a national energy systems level. With the case study area modelled in EnergyPLAN model, the goal of the research is to show how each flexibility option influences the economically feasible generation capacities of renewable energy sources, storage technologies and demand response in order to reach a certain share of renewable energy in final energy consumed. To follow the numerous possible configurations of the system, flexibility index for each option and a flexibility vector for each scenario are introduced. Results show which flexibility options play key role in important steps of energy transition to 70%, 80%, 90% and 100% RES energy system.