Power System modelling

Bengt J. OlssonTwitter: @bengtxyz LinkedIn: beos BackgroundThe modelSimulationsDiscussionConclusions Background Following the same trend as many other countries, Portugal plans to increase its power generation to support more electrification, especially for hydrogen production to support a Power-to-X industry. In the so-called “conservative scenario” almost all the increase in power consumption targets the latter industry, while “classical” consumption is projected…

Bengt J. OlssonTwitter: @bengtxyz LinkedIn: beos BackgroundThe modelSimulationsDiscussion and ConclusionsUpdate: Nuclear-only alternativeHydrogen storage in Denmark Background Denmark has plans to massively build out wind and solar power and also to produce hydrogen for PtX purposes. Here is a simple model and simulation of how such a power system could behave under three years, based on wind and solar…

Bengt J. OlssonTwitter: @bengtxyz LinkedIn: beos IntroductionModelResultsConclusionsUpdate 2023-12-02 Introduction Offshore wind power and nuclear power are both complex and costly animals. Both are proposed to provide power in bulk to many regions. Just based on LCOE for each power type, offshore wind power has the upper hand based on a slightly lower LCOE in general. But what happens…

Datum Tråd 2025-03-31 Om att ta tid från elnätet 2025-01-23 Pricing dynamics in two coupled electricity markets 2024-12-30 Förnybart + batterier för att ge minst 1 GW hela tiden 2024-12-13 Om sk “Sverigepriser” på el 2024-10-22 Hur balanserar Europa sitt elsystem i stort? 2024-09-30 DIY – kostnadsoptimerad elsystemmodell för Sverige med 300 TWh konsumtion 2024-09-22…

Bengt J. OlssonTwitter: @bengtxyz LinkedIn: beos IntroductionModelResultsDiscussion and ConclusionsUpdate 1: Hydrogen store instead of Battery storeUpdate 2: Nuclear power instead of Biopower Introduction The South West Interconnected System (SWIS) power system in Western Australia (WA) is quite interesting for a couple of reasons Here is a balance model for a optimized SWIS power system consisting of Wind, Solar…

Bengt J. OlssonTwitter/X: @bengtxyz LinkedIn: beos This post will be in Swedish since it pertains to specific Swedish conditions. It is a continuation on the previous blog post that is in English. BakgrundKostnaderResultat och diskussionSammanfattning och slutsats Bakgrund I den tidigare bloggen undersökte jag fyra varianter för att tillgodose målet att kunna konsumera 300 TWh, varav 100 TWh…

Bengt J. OlssonTwitter: @bengtxyz LinkedIn: beos IntroductionModelScenariosResultsDiscussionConclusions Introduction Sweden’s future power system must accommodate up to 300 TWh of electricity consumption per year in the future according to many analysts. This is also often mentioned in the press. This is more than double the consumption of today which is about 140 TWh. Typical production today is around 170…

Bengt J. OlssonTwitter: @bengtxyz LinkedIn: beos In the last blog post, I compared the Solar/Wind/Eco/Nuclear/Storage (“SWENS”) model with a similar model described by Ruhnau/Qvist (“RQ”), using as similar cost parameters and other presumptions as possible. While the RQ model is much larger in scope than my simpler SWENS model (remember, this is a blog, not a scientific paper……

Bengt J. OlssonTwitter: @bengtxyz LinkedIn: beos Oliver Ruhnau and Staffan Qvist (“RQ”) presents a very illuminating analysis of Germany’s storage need for a fossil free 540 TWh consumption scenario here (and here in a short Twitter thread). Basically, their power system is fueled with 700 TWh of renewable energy for a consumption of 540 TWh. The difference is…

Bengt J. OlssonTwitter: @bengtxyz LinkedIn: beos SWETH systemSWENTH systemDiscussionConclusionsUpdate 2023-07-08 Modeling a fossil free German power system Inspired by the RethinkX SWB (Solar, Wind and Batteries) model (see this blog post), a more realistic model for Germany, with 500 TWh of consumption, is presented here. The model is based on either of these two alternatives SWETH Solar, Wind,…