Energy Systems Modeling

Explore top LinkedIn content from expert professionals.

  • View profile for Lisa Sachs

    Director, Columbia Center on Sustainable Investment & Columbia Climate School MS in Climate Finance

    31,056 followers

    Countries have several energy objectives: security, reliability, affordability & decarbonization. Those factors are shaped by resource endowments, cost of technologies, cost of capital, and institutional strength & coherence. First: geology & geography are decisive. Each country's optimized energy system can only be determined with robust scenario analysis. This critical analysis has been overlooked in favor of NDCs, which can't answer what an optimal, technically feasible energy system looks like given endowments, demand & constraints. The cost of relevant technologies has become largely a moot point. China has driven down the cost of solar, wind & batteries so decisively that clean energy is now more affordable, absent tariffs & other distortions. But resource abundance & cheap technology ≠ automatic feasibility. The Sahel is a solar powerhouse, yet cannot secure financing for critical energy infrastructure. For coal- and gas-rich countries, there are real near-term tensions & trade-offs to navigate, on top of technical, institutional & financing complexities. China navigates its energy objectives with unparalleled coherence, using reinforcing policy & financing tools. It has achieved high energy security, unprecedented clean energy growth, and industrial dominance in clean energy tech, while also making the transition affordable around the world. The lessons of planning & coherence are impt. For smaller EMDEs, risk perception is decisive. A high cost of capital (reflecting high risk) makes clean energy prohibitively expensive even when renewable resources are abundant (https://lnkd.in/gmum4GkX). The cost of capital is a function of the global financial architecture and can be lowered through long-overdue reforms, which developed countries have been slow to advance. (https://lnkd.in/ghXsizrE) ⚡But the war on Iran changes the calculus (at extraordinary cost...). The shock to oil/gas supply has laid bare the extreme vulnerability of FF-dependent countries; countries having nothing to do with the war are reeling from worsening energy & food crises. B/c of this crisis, it is now evident that energy security and affordability are best achieved with clean energy -- but the speed & coherence of the necessary transition depends on the how coherently it is supported. (Bradford M. Willis & I discuss this in the context of ASEAN: https://lnkd.in/gPaJUQzt) Each country needs a robust energy system analysis at national & regional levels (for many countries, the most cost-effective configuration involves regional integration), and then a sequenced investment plan, regulatory reforms, and a financing plan that doesn't de-risk projects 1-by-1 but determines how a whole system becomes financeable. The main constraint is not ambition or accountability, but coherent planning & support. As always, it was great to speak w/ Diego Laje about the painful lessons of the war & the more hopeful lessons from China. https://lnkd.in/gHSHvdGw

  • View profile for Christian Breyer

    Professor at LUT University

    4,072 followers

    Caribbean energy transition towards 100% renewables - Part 2 e-fuels imports, grid integration, accelerated transition 1/ New research LUT University Solomon Oyewo, Ph.D https://lnkd.in/dMDsXb-p This study presents the first-of-its-kind comprehensive analysis of 17 illustrative pathways, exploring e-fuel imports, grid interconnections, and accelerated energy transitions for carbon neutrality by 2050. 2/ Novelties of the research: This study offers novel insights into the energy transition of archipelagic nations, enriching the global discourse on grid interconnection, early decarbonisation, and the strategic importance of e-fuel imports for land-constrained regions. 3/ Background: #Caribbean, heavily reliant on fossil fuels, is among the least researched regions globally for renewable energy #100RE systems, despite growing validation of renewables-driven climate mitigation strategies. 4/ This research adds to the comprehensive literature on #100RE studies on islands https://lnkd.in/d5c3xuWQ  within the wider field of overall #100RE systems research https://lnkd.in/d2cjpWuQ 5/ The energy system includes electricity, heat, and gas storage. Batteries for prosumer and utility-scale use, along with V2G, are essential for daily solar PV storage. 6/ Grid utilisation correlates with dominant technology profiles, such as solar PV or wind power. Scenarios with 30% wind show higher grid utilisation, indicating a wind-grid correlation, while those with 12% wind power have lower utilisation, showing a PV-storage correlation. 7/ e-Fuels will be essential for defossilising the hard-to-abate demands. By 2050, sustainable fuels will contribute to replacing all fossil fuels. 8/ Renewables-dominated paths have 7-24% lower cumulative costs as alternatives, with grid integration cutting costs by 1-10%. Accelerated transition paths cost 3-12% more as full defossilisation by 2050. Importing e-fuels lowers system costs by 7-16% & supports local resource use. 9/ The #PtXeconomy will emerge an important framework across the energy sectors, via direct & indirect electrification approaches. https://lnkd.in/dwWWwzvD 10/ Conclusions: PV-battery hybrid solutions emerge as the most economical option and the possibility of this hybrid configuration dominating the future energy system is also echoed in recent literature. Batteries support PV-battery hybrids & grid interconnection enhances flexibility, reduces costs & supports wind with limited PV. Sector coupling & PtX improve efficiency. Electric road transport with V2G adds flexibility & grid-connected renew paths are 1-10% cheaper. The #Caribbean can reduce reliance on fossil fuels by adopting low-cost solar energy, creating a Solar-to-X Economy ideal for tropical islands globally. Paul Bertheau Henning Meschede Philipp Blechinger Daniel Icaza Mark Jacobson Dominik Keiner Neven Duic Poul Alberg Østergaard

  • View profile for Kapil Narula, PhD

    Global Clean Energy Transition & Climate Adviser | Net-Zero Strategy · Systems Change · Multilateral Engagement | 20+ years international experience

    38,137 followers

    The World Bank released the report, "Beyond Borders: Power Grid Interconnections and Regional Electricity Markets for the Sustainable Energy Transition" 👉 This report provides a foundational guide to regional energy integration, with a particular focus on developing and emerging economies 👉Many regions are about to integrate power grids and markets across national boundaries, which can offer economic benefits, enhanced power supply quality and security, and opportunities for scaling up climate change mitigation measures. 👉The report begins with an overview of the different levels of power system integration, followed by an analysis of the primary drivers behind regional energy integration. 👉It identifies five key building blocks essential for achieving deeper integration: interconnection infrastructure, planning and investment coordination, technical and operational coordination, commercial arrangements and market design, and institutional architecture. 👉The report also highlights the key challenges hindering the development of these building blocks, particularly issues related to political cooperation and financing. 👉It concludes by advocating for a collaborative, step-by-step approach, along with institutional capacity building and innovative financing mechanisms, to advance regional energy integration efforts. 👉 Key themes discussed: 1. Power Trade Across Borders 2. Evolution of the Power Grid and Market Integration 3. Drivers of Cross-Border Power Integration 4. Building Blocks of Regional Grid Interconnections and Electricity Markets 5. Challenges of the Power Grid and Market Integration 6. Looking Ahead Full report attached.

  • View profile for Shraiya Thapa

    Clean Energy Knowledge Lawyer @ Freeths | Demystifying & translating energy policy and regulation

    4,383 followers

    Regional Spatial Energy Planning (RESP) = THE plan on how a region can meet its energy needs & decide what network investments it should go for. Blink & you may have missed Ofgem's consultation that came out on Tuesday on the policy framework for RESPs. Key proposals: ⚙ Central hub and regional spoke model. The hub essentially sets the tone e.g. the RESP methodology and assumptions that should be followed, and the regions develop their own RESPs. ⏹ 3 x building blocks: modelling supply and demand, identifying system need and technical coordination. 🗺 11 regions, 9 in England, 1 in Scotland & 1 in Wales 📑 RESPs to include multiple long-term pathways (25 years) but 1 x short-term pathway for the next 5-10 years. 👩 Each region should have a Strategic Board, made up of local and devolved govt and network company representatives. ⚡ DNOs and GDNOs should align their investment plans for network capacity with the strategic direction set by the RESPs covering their licence areas. The consultation closes on 8 October 2024, with Ofgem aiming to publish a decision on RESP policy framework in Winter 2024.

  • View profile for Arga Febriantoni

    Energy, Hydrogen & Risk (Expert, Consultant, Manager, Researcher, Analyst)

    3,851 followers

    "The Role of Regional Energy Networks in a Decarbonised European Energy System." METIS 3 Study S7, commissioned by the European Commission, investigates the impact of regional (NUTS1) versus national (NUTS0) energy modeling on achieving decarbonization goals by 2050. The study considers four investment scenarios: Option 1: Limited to intra-national gas turbines and transmissions. Option 2: Includes cross-border hydrogen and electricity transmissions. Option 3: Adds investments in batteries and electrolysis. Option 4: Allows investments in wind and solar capacities. Key Findings 1. Increased Renewable Capacities Transitioning to NUTS1 enabled additional investments: • Onshore wind: +80 GW. • Offshore wind: +19 GW. • Solar PV: +29 GW (22 GW utility-scale, 7 GW rooftop). 2. Cost Reductions Total system costs decreased progressively across scenarios: • Gas turbine production savings: 358 TWh reduction. • Renewable investments (Option 4) led to lower gas and biomass turbine operation costs. • Option 3 investments in batteries and electrolysis reduced cross-border transmission costs. 3. Flexibility Solutions Flexibility investments enhanced system adaptability: • Electrolysis capacity: +27 GW, concentrated in renewable-rich regions like the UK, Finland, and Germany. • Battery storage: +25 GW. Electrolysis aligned with renewable surpluses, reducing hydrogen transport needs and operating costs. 4. Curtailment and Transmission Renewable curtailment reduced by 129 TWh due to smarter investments in Options 3 and 4. Cross-border electricity flows increased, while hydrogen exports decreased. 5. Regional Optimization Detailed modeling redistributed renewable investments: • Onshore wind capacity increased in Germany (+40 GW) and Finland but decreased in France. • Solar capacity saw minor adjustments, achieving more geographic balance. • Renewable investments followed areas with lower levelized costs of energy (LCOE) and better demand-supply correlation. 6. Hydrogen and Electricity Production Electrolysis production supported local renewable integration, with hydrogen output increasing in regions with higher renewable capacity. Power exports grew for countries like Spain and France, while Northern Europe also became a stronger exporting region. Impact of Regional Modeling Compared to NUTS0, NUTS1 modeling provided: • Higher RES and flexibility investments: • +80 GW onshore wind, +29 GW solar PV, +25 GW batteries, and +27 GW electrolysis. Enhanced system diversity reduced over-dimensioning of RES and improved cost efficiency. Better alignment between renewable production and demand. The study demonstrates the benefits of detailed regional modeling: 1. Enhanced Renewables Integration: Regional flexibility and renewable investments increase efficiency. 2. Cost Savings: Lower production costs and reduced reliance on fossil fuels. 3. Strategic Redistribution: Investments tailored to regional demand and supply dynamics.

Explore categories