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Savio GOMEZ
🔆 "What I do have are a very particular set of skills..." 🇯🇵🇱🇨🇹🇷🇭🇰🇬🇷🇰🇷🇹🇼
Based on the available information, here are the key details about Savio Gomez:
Savio Gomez is currently working as a Cyber GRC (Governance, Risk & Compliance) analyst at Sekuro.12 He specializes in Infosec Registered Assessors Program (IRAP) assessments and has a strong background in Risk Management.1
Prior to his current role, Savio Gomez held the following positions:
- Inspector for OCIMF SIRE (Oil Companies International Marine Forum - Ship Inspection Report Programme)3
- Auditor for QHSSE (Quality, Health, Safety, Security and Environment) and TMSA (Tanker Management and Self Assessment)3
- Consultant in Marine, Offshore & Renewables sectors3
Savio Gomez holds a PhD, though the specific field is not mentioned in the available information.3
While the query mentions Savio Gomez as an "Independent Senior Consultant & Assessor at Penta-Ocean Construction Company Limited," this specific role is not directly confirmed in the provided search results. However, given his experience as a consultant and assessor in various maritime and offshore sectors, it's possible he may have worked in such a capacity.
It's worth noting that LinkedIn profiles and professional roles can change over time, so the most up-to-date information would be available on Savio Gomez's current LinkedIn profile.
Highlights
No surprise, that by 2030, China is expected to dominate the global battery production market , accounting for nearly 70% of the capacity (6,200+ GWh), led by companies like CATL, BYD, and CALB. The U.S. will follow in second place with a forecasted capacity of 1,261 GWh, driven by Tesla and LG Energy Solution. In Europe, Germany will lead with 262 GWh, primarily from Tesla's Giga Berlin plant. China's dominance is fueled by its complete integration across the electric vehicle supply chain, from mining to production.
Always of concern is the aspect of heavy reliance on a certain country, which creates #supplychain vulnerabilities, including risks related to geopolitical tensions and potential disruptions. and lest we forget quality issues that go with scaling or poor business practices. Moreover, increased battery production depends on extensive mining of raw materials like lithium and cobalt, raising environmental and social concerns, such as habitat destruction and unethical labor practices.
#renewableemergy #electricvehicles
A startup in 🇯🇵Japan is working on developing the world's first steady-state fusion reactor using a helical method for magnetic confinement. The pilot reactor, which aims for a power output of 50-100 megawatts, could be operational by 2034, with a commercial version ready by 2040. Challenges include funding, new technologies, and regulatory approvals. The project is estimated to cost around USD 5 billion and is designed for stable, continuous energy output, potentially serving factories, remote areas, and ships. More : https://lnkd.in/gtNT8Mff
#thinkingoutaloud, what are the pros and cons of developing the first steady-state fusion reactor using a helical magnetic confinement method:
➕Pros:
- Clean Energy: The reactor offers a clean energy source with no carbon emissions, using hydrogen isotopes, which is environmentally friendly compared to fossil fuels.
- Abundant Fuel: Fusion reactors use isotopes of hydrogen, which are plentiful, providing a potentially unlimited fuel supply.
- Stable Power Production: The helical design allows for continuous, steady-state operation, providing a reliable base load power supply.
- Localized Power Generation: Suitable for localized power generation for remote areas, industrial sites, and ships, reducing dependence on centralized power grids.
- Lower Risk: Unlike nuclear fission, fusion has a lower risk of accidents, as it does not involve chain reactions and produces minimal radioactive waste.
- Reduced Maintenance: Fewer moving parts compared to traditional reactors may lower maintenance costs and extend operational life.
➖Cons:
- High Costs: The pilot reactor costs around USD 5 billion, with significant additional funds needed for commercialization.
- Technological Barriers: Requires advanced technologies, like high-temperature superconducting coils and plasma confinement, which are still under development.
- Regulatory Challenges: Building and operating the reactor involves complex regulatory hurdles, including safety standards and local approval.
- Long Development Time: Expected to be operational by 2034 (pilot) and 2040 (commercial), meaning decades before significant impact.
- Uncertain Economics: The project's economic viability remains uncertain, especially if unexpected costs arise or alternative energy sources improve.
- Investment Risks: High financial risk with uncertain returns, making funding and investment challenging
🌟 Needless to say that a steady-state #fusionreactor offers promising clean energy but faces significant cost, technological, and regulatory obstacles. TBC 🤷♂️
#renewablenergy #gogreen #energymix
