The recent UN Intergovernmental panel report on Climate Change has sent shockwaves around the world with its stark forecast on global warming. The IPCC report estimates global temperatures to spike and breach the critical 1.5°C level within the next two decades. Mankind can no longer risk the devastating consequences of this temperature rise. There is a desperate need for reduction in greenhouse gas (GHG) emissions. Energy consumption is by far the biggest source of greenhouse gas emissions, responsible for an enormous 76 per cent of emissions (37.2 GtCO2e) worldwide. The energy sector includes transportation, electricity, heating, buildings, manufacturing and construction, fugitive emissions and other fuel combustion (https://www.wri.org/insights/4-charts-explain-greenhouse-gas-emissions-countries-and-sectors) Within this domain, the power sector is single-handedly responsible for ~35 per cent of total emissions and hence, this should be the focal point of all our efforts in this direction (https://www.un.org/en/actnow/facts-and-figures). It is evident that any sustainable solution to reversing climate change will have to involve massive efforts towards decarbonisation and a shift to clean and green power. The global energy transition currently underway, is an urgent and well-coordinated step to accelerate mitigation efforts towards effecting deep cuts in GHG emissions. The shift from fossil fuels to renewables will need resilient and reliable Grid infrastructure to ensure power delivery to the last mile. Meanwhile, the post-pandemic economic revival is already showing a surge in power demand even when the travel and hospitality industry is not yet back to pre-Covid levels. To stay committed to reducing GHG emissions, it has been widely accepted that the growing demand should not be serviced through a thermal heavy portfolio, and clean energy resources must contribute a larger share in the total generation mix. Electricity Grid Interconnectors & the philosophy of Clean Power for All Modern interconnected grids have emerged as an important pivot for clean and green energy at a time when the world is accelerating to meet climate change and sustainability goals. Decades ago, the national and regional power systems took root as isolated entities. Often there was a single generator serving a large city. Slowly, power systems evolved to expand out of urban centres. Interconnections among neighbouring systems gained momentum. Utilities started to collaborate and formed power pools to trade electricity and share capacity reserves. The first such power pool was formed in the US, in 1925. Today most of the countries have a national grid interconnecting regional load centres. The imperative for socio-economic development has spurred a sharp rise in demand for 24x7 reliable and quality power. This, coupled with the fact that renewable energy generation centres are mostly in different geographical locations compared to traditional power plants and away from the demand hubs, is driving investments into Transmission & Distribution networks to connect these new RE hubs. Today transmission lines have started crossing national borders. Synchronised interconnections are fast expanding in Europe, Central & South America, North and Sub-Saharan Africa, and the Middle East. Evolution of Intercontinental Grids In keeping with global mega trends and the transition to clean and sustainable energy, Great Britain has come up with a novel solution to stay its course, not wavered by the fact that solar generation in the Great Britain is poor, especially in winter when energy demand typically spikes. Great Britain at present has 5 different interconnectors running to France, Netherlands, Belgium, Northern Ireland, and Republic of Ireland, and at least 6 more are in different stages of development. These interconnectors allow renewable energy to be exchanged all year around.