
Trinidad and Tobago is a small island developing state (SIDS) with one of the largest emitters of CO2 per capita globally - linked to a reliance on oil and gas. With the country’s commitment to sustainable develop. . ••A multi-objective modelling approach to clean and affordable. . BAUBusiness as UsualCAPEXCapital CostsCC. . Setsi Input material. j Power plants. pc Commodity. r Processes. u Co-products. w Waste streams.Scalar. . Approximately 60% of global electricity is produced via fossil fuels (British Petroleum Company, 2020), resulting in 13.2 giga tonnes (Gt) of CO2 annually (World Nuclear Association, 202. . We develop a framework to investigate levelized costs and GHG emissions for power generation in SIDS. The backbone of the presented framework is Mixed Integer Linear Programm. [pdf]
However, Trinidad and Tobago power generation capacity surpasses its current demand ( Inter- American Development Bank, 2015 ), which provides avenues for energy storage through low carbon H 2, MeOH and NH 3 production directly within the local downstream supply chain.
The authors greatly acknowledge the Trinidad and Tobago national electricity power produces for assisting in data collection and model verification. No funding sources were received for this study. Energ. J. ( 2018), 10.3390/en11061412
Trinidad and Tobago represents a unique case study as an industrial SID, whereby knowledge and guidance on multiple decision criteria can aid in reducing national carbon footprints.
Trinidad and Tobago is heavily dependent on its oil and gas reserves ( Fig. 3 ), petrochemical and other hydrocarbon related downstream industries ( Indar, 2019 ). Thus, the country is unique amongst SIDS and must maximise its benefit from these natural resources, in terms of energy production.
The authors declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper. The authors greatly acknowledge the Trinidad and Tobago national electricity power produces for assisting in data collection and model verification.

Swissgrid was established in January 2005 by Switzerland’s main electricity grid companies as part of the liberalisation of the electricity market. From 15 December 2006 Swissgrid coordinated Switzerland's transmission grid (380/220 kV), comprised up to that point of eight control areas. With the changeover on the night of 31 December 2008 to 1 January 2009 from eight control areas to one zone covering the whole of Switzerland, Swissgrid took over the operation of the e. [pdf]
The grid development process in Switzerland is governed by the provisions of the Federal Act on the Renovation and Expansion of the Grids («Electricity Grid Strategy»). The relevant provisions are found in particular in the Electricity Supply Act (Article 9a-d StromVG).
The Swiss transmission grid, which is like a network of «electricity highways», has an important role to play. As the backbone of a secure supply of electricity, it makes a key contribution to achieving the goals of the Energy Strategy 2050. Switzerland’s electricity system is in the midst of the greatest upheaval in its successful history.
41 cross-border lines 2.5 billion Swiss francs of planned investment Swissgrid is the owner of the Swiss transmission grid. Its grid is more than 6,700 kilometres long and transports electricity at a voltage of 380, 220 and 150 kilovolts.
In grid planning, Swissgrid can only take into account the potential for flexibility offered by artificial intelligence, decentralised consumption control and smart peak shaving in photovoltaic and wind production if it can be activated and used by Swissgrid at any time.
Swissgrid was established in January 2005 by Switzerland’s main electricity grid companies as part of the liberalisation of the electricity market. From 15 December 2006 Swissgrid coordinated Switzerland's transmission grid (380/220 kV), comprised up to that point of eight control areas.
Its grid is more than 6,700 kilometres long and transports electrical energy at a voltage of 380 and 220 kilovolts. The transmission grid comprises all the lines as well as 147 substations. Swissgrid carries out regular maintenance, upgrades and appropriate expansions to ensure that the grid is always available.

A recent scientific article published in Renewable and Sustainable Energy Reviews in 2014 by Prof. Mete Feridun of in London and his colleagues investigates the long-run equilibrium relationship among , energy consumption, and carbon dioxide emissions (CO2), and the direction of causality among these variables. The authors report evidence that international tourism is a catalyst for energy consumption and for an increase in th. [pdf]
Cyprus has set out to attain a higher share of renewables, and this roadmap helps to assess op-timal investment strategies in the power sector. Solar PV and wind power will play a major role in the roadmap to 2030. Roadmap findings will play an important role to revise existing energy policies and develop new ones.
The number of photovoltaic systems in Cyprus rose by 66% in the year to July 2023, to over 45,000, with a capacity of 256 MW, the systems being used by each customer, including commercial, to reduce their electricity bill through an agreement of net-metering.
Cyprus is also characterized by an abundant solar energy resource across the whole year: the average global solar can reach 2000 kWh/m2. Wind energy is instead quite limited over the island of Cyprus, with an annual average wind speed below 4 m/s in the majority of areas.
In 2011 the Cypriot Energy Regulatory Authority (CERA) announced a number of steps aimed at facilitating development of photovoltaics in Cyprus. Among them is the large-scale application of net metering. CERA aims to reduce electricity prices for the households where net metering is applied, via fuel saving and carbon dioxide reduction.
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