|
Webinar HERE Forecast 2025 & Project Canada As 51st State |
DIRECTORY | ||
|
Contributions: Visit KEInetwork.net |
Action: Help sustain KEI's contributions |
Public Hearing Is Canada's Sovereignty at risk? January 30th
|
|
|
|
Last week's newsletter featured a tounge-in-cheek overture to negotiate a change in the US:Canada relationship concluding with a forecast of the result. It was followed by the webinar's emotional and thoughtful discussion of the threats and opportunities. Here is an excellent expose of the US trade deficit with Canada and what it means VIDEO. We are continuing to explore Canadian's views by hosting a public hearing on the topic January 30th in Edmonton. FOR MORE |
||
|
Access to energy and the impact on the climate of fossil fuels continue to dominate the news. The develop-ment of FUSION for energy heralds hope that technology may yet win the race to ensure a safe and accessible source of energy for the future. The following article is illuminating. The associated webinar - scheduled for this Thursday, is the first of two interviews with Axel Meisen - President of Fusion Energy Council of Canada providing an overview of just what is fusion, it's anticipated impact, and relevance for achieving a better future. Join us. - Editor |
|||
|
The Dawn of Fusion Energy: A Promising Horizon Amid Challenges As the global community intensifies its search for sustainable energy solutions, fusion energy stands out as a beacon of hope. Dubbed the "holy grail" of clean energy, fusion offers the potential for an unlimited, carbon-free power source that could revolutionize our energy landscape. However, while recent breakthroughs have brought us closer to harnessing this power, a host of challenges remains, tempering scientific enthusiasm with a dose of reality. Recent Breakthroughs in Fusion Energy Research. In the pursuit of fusion energy, recent years have marked significant milestones. The Joint European Torus (JET) facility in the UK recently achieved a new world record for fusion energy output, generating 69 megajoules of heat during a single pulse. This record not only demonstrated the potential of magnetic confinement fusion but also symbolized the culmination of JET's decades-long research as it prepared for decommissioning. Parallel to these efforts, scientists at the Lawrence Livermore National Laboratory in California have crossed another frontier by achieving net energy gain. This landmark achievement, where the energy produced from fusion exceeded the energy used to initiate it, was realized not once but twice, underscoring the potential feasibility of fusion as a self-sustaining energy source. Complementing these scientific achievements is a surge in private investment, with the Fusion Industry Association reporting a jump to over $7.1 billion in funding. This influx of capital reflects growing confidence in the eventual commercialization of fusion energy, drawing ever more stakeholders to this high-stakes arena. Challenges to Fusion Energy. Despite the optimism generated by these breakthroughs, significant obstacles loom. Achieving sustained reactions remains a daunting task, as current technologies only allow fusion to occur in bursts lasting a few seconds at most. For fusion power to be viable, these reactions must be maintained continuously and stably for much longer durations. The extreme conditions within fusion reactors also present formidable challenges. Materials capable of withstanding temperatures exceeding 100 million degrees Celsius and intense neutron radiation are critical for the long-term operation of fusion power plants. Additionally, the management of tritium—a key but scarce and radioactive fusion fuel—necessitates sophisticated strategies to ensure its safe and efficient use. Moreover, the high energy consumption of fusion processes poses another hurdle. Minimizing the energy input required to initiate and sustain fusion is essential for making fusion power economically feasible. Fusion Reactor Technologies. The quest for fusion energy has spurred the development of diverse reactor technologies. Magnetic Confinement Fusion (MCF) and Inertial Confinement Fusion (ICF) represent the leading approaches, employing powerful magnetic fields and high-powered lasers, respectively, to achieve the conditions necessary for fusion. Alongside these, alternative methods such as Magnetized Target Fusion and Aneutronic Fusion are being explored to optimize the fusion process and increase its efficiency. The Path to Commercialization. The journey towards the commercialization of fusion energy is fraught with scientific, technological, and regulatory challenges. Leading the charge, companies like Helion Energy, Commonwealth Fusion Systems, and Tokamak Energy are making ambitious strides towards operational fusion power plants, potentially as early as the 2030s. However, the broader deployment of fusion power is realistically expected only in the latter half of the century. Fusion energy promises a future of abundant, clean power, but the path forward is complex and uncertain. With each scientific breakthrough, we inch closer to a potential energy revolution, one that could provide profound environmental benefits and fundamentally alter how we power our world. The fusion endeavor, marked by both its potential and its challenges, remains one of the most watchful areas in the global energy landscape. |
|||
|
https://us02web.zoom.us/j/84258596166?pw..
|
|||
