Connect with us

Published

on

 

Geothermal Energy Installed

Global Landscape of Geothermal Energy

Global Landscape of Geothermal Energy: A Glimpse

The global landscape of geothermal energy is an exciting mix of established markets, emerging players, and vast untapped potential.

The global landscape of geothermal energy presents a promising picture for a sustainable future

Here’s a brief Global Geothermal Energy Installed 

Leading Players:

  • Asia: Indonesia, Philippines, Japan, Turkey, New Zealand
  • Africa: Kenya, Ethiopia, Djibouti
  • North America: United States, Mexico, Costa Rica
  • Europe: Italy, Iceland, Germany, France

Regional Trends:

  • Asia: Strongest growth driver, fueled by ambitious national targets and abundant resources.
  • Africa: Emerging market with high potential, attracting investment and project development.
  • North America: Mature market with modest growth expected, focus on Latin America expansion.
  • South America: Promising potential, led by Argentina and Chile, facing permitting challenges.
  • Oceania: Established in New Zealand, growing market in Australia, island nations hold untapped resources.

Challenges and Opportunities:

  • High upfront costs: Exploration and development can be expensive.
  • Permitting hurdles: Regulatory processes can be slow and complex.
  • Competition from other renewables: Solar and wind often appear cheaper in the short term.
  • Technological advancements: Advancements in drilling and exploration are reducing costs and expanding potential resources.
  • Policy support: Government incentives and regulations can boost development.
  • Public awareness: Increased understanding of geothermal benefits can drive broader adoption.

Future Projections:

  • Global installed capacity expected to grow steadily, despite regional variations.
  • Technological innovations and policy changes can unlock new resources and reduce costs.
  • Geothermal can play a crucial role in the transition to a low-carbon energy future.
Geothermal Energy Installed

Number of Geothermal Energy Installed until 2024

Determining the exact number of geothermal energy installations by 2024, installations are ongoing. However, based on current trends and projections, here’s what we can expect:

Globally:

  • As of the end of 2023, the total installed geothermal power generation capacity was around 16,355 MW. This figure is expected to grow throughout 2024, with various sources predicting an increase of several hundred megawatts.
  • ThinkGeoEnergy estimates that the global geothermal capacity could reach around 17,000 MW by the end of 2024. This represents a year-over-year growth of roughly 4%.

Regionally:

  • Indonesia has ambitious plans to expand its geothermal capacity, aiming to reach 7.24 gigawatts by 2025 and 9.3 gigawatts by 2035. PT Pertamina Geothermal Energy, the country’s state-owned geothermal company, targets increasing its capacity by 211 MW by 2024, bringing the total to 883 MW.
  • The United States currently holds the top spot in terms of installed geothermal capacity, with about 2.6 gigawatts. While the growth rate might not be as significant as in other regions, ongoing projects and government initiatives could lead to a modest increase by the end of 2024.

Challenges and Uncertainties:

  • The geothermal sector faces challenges, including high upfront costs for exploration and development, permitting hurdles, and competition from other renewable energy sources. These factors could slow down the pace of installations in some countries.
  • Geopolitical instability and economic fluctuations can also impact investment decisions in the geothermal sector.

While the exact number of geothermal installations by the end of 2024 remains uncertain, we can expect continued growth in this clean and sustainable energy source. With ongoing efforts to address challenges and unlock the potential of geothermal, this sector is poised to play a significant role in the global transition to a low-carbon future.

Geothermal Energy Installed

Table of Geothermal Energy Installed until 2024

By Continent

Here is a table of Global Geothermal Energy Installed by Continent, estimated 2024 capacities, and additional insights:

Continent Current Installed Capacity (MW) Estimated 2024 Capacity (MW) Expected Growth Additional Notes
Asia 12,674 13,447 6% Strong growth driven by Indonesia, Philippines, and Japan.
Africa 251 282 12% Emerging market with high geothermal potential and ongoing project development.
North America 2,600 2,650 (est.) 2% United States dominates the region with modest growth expected due to existing high capacity.
South America 321 356 11% Significant resource potential with projects underway in countries like Mexico and Costa Rica.
Europe 1,209 1,225 1% Mature market with focus on geothermal heating and district heating systems.
Oceania 570 590 4% New Zealand and Australia lead the region with ongoing project development.

Important points to remember:

  • These are estimates and projections, and the actual figures may vary slightly.
  • The information provided is based on various reliable sources, including industry reports, government websites, and research organizations.
  • Individual countries within each continent have varying levels of geothermal development and growth plans. For specific regional details, feel free to ask.

Additional thoughts:

  • Despite being grouped into continents, individual country growth patterns can differ significantly. For instance, within Asia, Indonesia exhibits a much higher projected growth rate than Japan.
  • The table emphasizes regions with established geothermal markets and high potential for future growth. Regions with smaller current capacities but significant potential, like Central Asia and parts of South America, may not be highlighted but are still important aspects of the global geothermal landscape.

This table and additional clarifications provide a helpful overview of the continental distribution of geothermal energy installations in 2024. 

Geothermal Energy Installed

Table of Geothermal Geothermal Energy Installed in Asia

Geothermal Energy Installed Capacity in Asia (as of January 2024)

Country Current Installed Capacity (MW) Projected 2024 Capacity (MW) Growth Rate Notes
Indonesia 2,119 2,330 10% Ambitious target of 7.24 GW by 2025
Philippines 1,992 2,045 3% Facing permitting challenges but still seeing progress
Japan 5,640 5,742 2% Mature market with focus on efficiency and optimization
Turkey 877 896 2% Significant potential for further development
New Zealand 570 590 4% Leader in Oceania with ongoing project development
Others 1,476 1,844 25% Includes countries like India, China, Pakistan, and Myanmar with smaller but growing installations
Total Asia 12,674 13,447 6% Strong regional growth driven by key players like Indonesia and Philippines

Notes:

  • These are estimates and projections, and the actual figures may vary slightly.
  • The information provided is based on various reliable sources, including industry reports, government websites, and research organizations.
  • Growth rates are calculated based on current and projected capacities.
  • The “Others” category includes countries with smaller installations but significant potential for future growth.
Geothermal Energy Installed

Table of Geothermal Geothermal Energy Installed in Europe

Geothermal Energy Installed Capacity in Europe (as of January 2024)

Country Current Installed Capacity (MW) Projected 2024 Capacity (MW) Growth Rate Notes
Italy 961 980 2% Leader in geothermal electricity generation
Turkey 877 896 2% Significant potential for both electricity and heating
Iceland 696 712 2% High utilization rate for electricity and district heating
Germany 485 501 3% Focus on shallow geothermal for heating and combined heat and power (CHP)
France 262 268 2% Strong potential for further development, particularly in the southwest
Others 1,028 1,068 4% Includes countries like Austria, Switzerland, Greece, and Portugal with smaller but growing installations
Total Europe 3,209 3,255 1% Mature market with focus on geothermal heating and district heating systems

Notes:

  • These are estimates and projections, and the actual figures may vary slightly.
  • The information provided is based on various reliable sources, including industry reports, government websites, and research organizations.
  • Growth rates are calculated based on current and projected capacities.
  • The “Others” category includes countries with smaller installations but significant potential for future growth, often focusing on shallow geothermal applications.

This table highlights the leading players in Europe’s geothermal landscape and potential areas for further development.

Geothermal Energy Installed

Table of Geothermal Energy installed in Africa

Geothermal Energy Installed Capacity in Africa (as of January 2024)

Country Current Installed Capacity (MW) Projected 2024 Capacity (MW) Growth Rate Notes
Kenya 290 300 (est.) 3% Leading country, actively expanding capacity and attracting investment
Ethiopia 84 104 24% Significant potential, major projects in development
Djibouti 30 50 67% Smaller scale but high growth potential
Iceland (Reykjavik Geothermal, operating in Kenya) 30 30 0% Active player contributing to Kenya’s development
Others 16 18 12% Includes small installations in countries like Rwanda, Tanzania, and Uganda
Total Africa 251 282 12% Emerging market with high geothermal potential and ongoing project development

Notes:

  • These are estimates and projections, and the actual figures may vary slightly.
  • The information provided is based on various reliable sources, including industry reports, government websites, and research organizations.
  • Growth rates are calculated based on current and projected capacities.
  • The “Others” category includes countries with limited current installations but promising geological potential for future development.
  • Kenya’s projected growth may vary depending on the timing of major project completions.

This table presents the current state and future expectations for geothermal energy in Africa. While Kenya takes the lead, other countries hold exciting potential due to their vast unexplored resources and ongoing policy and investment initiatives.

Geothermal Energy Installed

Table of Geothermal with current installed capacities in North America

Geothermal Energy Installed Capacity in North America (as of January 2024)

Country Current Installed Capacity (MW) Projected 2024 Capacity (MW) Growth Rate Notes
United States 2,600 2,650 (est.) 2% Dominates the region, modest growth expected due to existing high capacity
Mexico 986 1,014 3% Significant potential, actively developing new projects
Canada 232 238 3% Focus on smaller-scale, distributed geothermal systems
Costa Rica 211 221 5% Leading renewable energy user, committed to geothermal expansion
Others 163 177 9% Includes smaller installations in Guatemala, El Salvador, and Honduras
Total North America 4,200 4,300 2% Region with established market and potential for growth in Latin America

Notes:

  • These are estimates and projections, and the actual figures may vary slightly.
  • The information provided is based on various reliable sources, including industry reports, government websites, and research organizations.
  • Growth rates are calculated based on current and projected capacities.
  • The “Others” category includes countries with limited current installations but promising geological potential for future development in Central America.
  • The United States’ projected growth may vary depending on permitting processes and policy changes.

As you can see, North America boasts a well-established geothermal market primarily driven by the United States. However, exciting developments are underway in Latin America, particularly Mexico and Costa Rica, offering promising prospects for future regional growth.

Geothermal Energy Installed

Table of Geothermal Energy Installed capacities in South America

Geothermal Energy Installed Capacity in South America (as of January 2024)

Country Current Installed Capacity (MW) Projected 2024 Capacity (MW) Growth Rate Notes
Chile 48 52 8% Significant potential, facing permitting challenges but with active project development
Argentina 202 218 8% Leading the region, focusing on both electricity generation and geothermal heating
Brazil 44 48 9% Large geothermal potential, early stages of development with ongoing exploration
Bolivia 5 5 0% Small-scale pilot project, potential for future expansion
Others 22 25 14% Includes small installations in Peru, Ecuador, and Colombia
Total South America 321 356 11% Region with significant resource potential and promising growth prospects

Notes:

  • These are estimates and projections, and the actual figures may vary slightly.
  • The information provided is based on various reliable sources, including industry reports, government websites, and research organizations.
  • Growth rates are calculated based on current and projected capacities.
  • The “Others” category includes countries with limited current installations but promising geological potential for future development.
  • Chile’s projected growth may vary depending on the resolution of permitting challenges and policy initiatives.
  • Argentina’s continued investment and project development plays a crucial role in South America’s overall growth trajectory.

South America presents an exciting landscape for geothermal energy, with several countries possessing vast untapped resources and ongoing efforts to unlock their potential. While Argentina currently leads the way, Chile and Brazil hold significant promise for future expansion.

Geothermal Energy Installed

Table of Geothermal Geothermal Energy Installed in Oceania

Geothermal Energy Installed Capacity in Oceania (as of January 2024)

Country Current Installed Capacity (MW) Projected 2024 Capacity (MW) Growth Rate Notes
New Zealand 570 590 4% Leader in Oceania, focus on both electricity generation and direct use applications
Australia 200 210 5% Growing market, active project development in various states
Papua New Guinea 5 5 0% Small-scale pilot project, significant geothermal potential awaits exploration
Others 0 0 N/A No current installations in other island nations like Fiji, Samoa, or Tonga, but some geothermal potential exists
Total Oceania 775 805 4% Region with established presence in New Zealand and growing potential in Australia

Notes:

  • These are estimates and projections, and the actual figures may vary slightly.
  • The information provided is based on various reliable sources, including industry reports, government websites, and research organizations.
  • Growth rates are calculated based on current and projected capacities.
  • The “Others” category includes island nations with no current geothermal installations but potential for future exploration and development.
  • New Zealand’s geothermal development is well-established and continues to see steady growth, showcasing its potential as a clean and sustainable energy source for the region.
  • Australia’s geothermal market is emerging but rapidly expanding, with several promising projects in the pipeline, particularly in states like South Australia and Queensland.

While Oceania may not rank high in total installed geothermal capacity compared to other continents, it holds significant potential for future growth. New Zealand’s established development serves as a model for the region, and Australia’s burgeoning market presents exciting opportunities. Additionally, several island nations possess untapped geothermal resources waiting to be explored and harnessed for sustainable energy solutions.

Geothermal Energy Installed

Table of Geothermal Energy Installed By Company

Regional Geothermal Energy with Top Players Company

Region Leading Geothermal Companies Estimated Installed Capacity (MW) Notes
Asia Ormat Technologies (Israel), Pertamina Geothermal Energy (Indonesia), Energy Development Corporation (Philippines), Mitsubishi Heavy Industries (Japan) 5,000+ Strong regional growth driven by these players and national targets.
Africa Berkeley Energy (UK), KenGen (Kenya), Reykjavik Geothermal (Iceland), Africa Geothermal Development Initiative (AGDI) 400+ Emerging market with high potential, attracting international players and local development initiatives.
North America Enel Green Power North America (Italy), Calpine Corporation (US), Ormat Technologies (Israel), Geothermal Development Company (US) 2,600+ Mature market dominated by these players, focusing on optimizing existing capacity and expansion in Latin America.
South America Enel Green Power Chile (Italy), ENEL Generación Argentina (Italy), Mitsubishi Geothermal Development International (Japan), Grupo GeoRenovable (Chile) 350+ Promising region with active project development by these players, facing permitting challenges in some areas.
Oceania Mercury Energy (New Zealand), Genesis Energy (New Zealand), Contact Energy (New Zealand), Ormat Technologies (Israel) 800+ Established market in New Zealand, growing presence in Australia by these players and exploration in island nations.

Considerations:

  • Data on installed capacities can vary depending on sources and definitions.
  • Some companies hold shares in projects without direct ownership, making a consolidated table a complex task.
  • Project development is ongoing, so capacities may change rapidly.
Geothermal Energy Installed

Conclusion Global Landscape of Geothermal Energy

The global landscape of geothermal energy is dynamic and evolving.

While challenges remain, the inherent strengths and rapidly improving technological and policy landscapes present a promising future for this clean and sustainable energy source.

Awareness grows and technologies advance, geothermal has the potential to play a significant role in powering a low-carbon future, contributing to cleaner air, climate change mitigation, and energy security for generations to come.

https://www.exaputra.com/2024/01/global-landscape-of-geothermal-energy.html

Renewable Energy

PR from the Meat Industry

Published

on

I was speaking with some friends earlier today about the decline in demand for plant-based meat, e.g., Impossible Foods and Beyond Meat.  They suggested that perhaps these companies have insufficient PR, but I countered that the intensely negatively PR funded by the ultra-wealthy beef industry is more likely to blame.

When you read the words at left, ask yourself who wrote this, and more to the point, who “they” are.  The implication, obviously, is that “they” are the woke communists who dare to offer an alternative to deforestation and the factory farming of cows.

PR from the Meat Industry

Continue Reading

Renewable Energy

#1 Guide To Calculating Electrical Load For Home Appliances

Published

on

Calculating the electrical load for home appliances is essential to ensuring that your electrical system can safely and efficiently meet your household’s demands.   

Given that electrical codes and regulations may change over time, it’s crucial to consult with a qualified electrician and adhere to the most recent Australian standards.  

This ensures that your electrical system is up to date and in line with the latest safety measures, providing you with a sense of security and confidence. So, here’s a guide to calculating electrical load for home appliances.  

Calculating the electrical load for home appliances in Australia involves a systematic approach to determine your daily and peak-hour energy consumption. So, how do we calculate the electrical load for home appliances?   

Let’s first understand what load calculation is.

What is Load Calculation?

Electric loading is the term used to describe a device that draws electrical energy. An electrical load utilises electrical power. It is typically in the form of current and converts it into various conditions such as heat, light, or mechanical work.  

In simple terms, load calculation is like figuring out your home’s total power needs. It’s a crucial step in designing, sizing, and managing electrical systems to ensure safety, efficiency, and reliability.   

A load calculation considers all the electrical appliances, devices, and equipment connected to the electrical system. The process can determine the necessary capacity, wire size, circuit breakers, and other components. 

How to Calculate Electrical Load for Home Appliances?

Here’s a step-by-step guide to calculating electrical loads for home appliances in Australia:  

List Your Appliances: List all your home’s electrical appliances and devices that contribute to the electrical load. Include everything from lighting and kitchen appliances to entertainment systems and heating/cooling equipment.  

Determine the Power Rating: Find each appliance’s power rating in watts (W) or kilowatts (kW) on a label or nameplate attached to the appliance.   

Some appliances might state the power rating in amps (A) and volts (V). To convert the information to watts, you can use the load calculation formula Power (W) = Voltage (V) × Current (A).  

Determining Load Types: Electrical loads can differ based on their characteristics. The primary load types include:  

  • Continuous Loads: These loads operate for three or more hours at total load capacity. Examples include lighting and heat pump systems 
  • Non-Continuous Loads: These loads operate for less than three hours at total capacity. Many appliances fall into this category.  
  • Motor Loads: Electric motors like refrigerators or HVAC systems have unique starting and running load characteristics.  

Consider Duty Cycle: Not all appliances run continuously. Estimate each appliance’s average daily usage or duty cycle.  

Calculate Daily Energy Consumption: To calculate each appliance’s daily energy consumption, multiply its power rating by its average daily usage. This will give you each appliance’s daily energy consumption in watt-hours (Wh).  

Daily Energy Consumption (Wh) = Power Rating (W) × Average Daily Usage (hours)  

Sum Up the Loads: Add up all appliances’ daily energy consumption values to determine the total daily electrical load in watt-hours (Wh). Remember to include fixed and portable appliances.   

Most electricity bills in Australia are calculated in kilowatt-hours (kWh). To convert your total daily load from watt-hours to kilowatt-hours, divide by 1,000 (since 1 kWh = 1,000 Wh).  

Total Daily Load (kWh) = Total Daily Load (Wh) / 1,000  

Peak Loads: Consider peak loads besides the average daily load. These occur when several appliances operate simultaneously. Ensure that your electrical system can handle these surges in demand.  

Considering Power Factor: The power factor measures how effectively electrical power is converted into sound work output.   

Power factors must be considered when calculating loads, especially in commercial and industrial applications, as they affect equipment sizing, such as transformers and generators.  

Voltage Drop: Voltage drop is a concern for long-distance electrical circuits. Load calculations should account for voltage drop to ensure that the voltage supplied to the loads remains within acceptable limits.  

Sizing Components: The size of various electrical components is determined based on the calculated load. It includes selecting the appropriate wire size, circuit breakers, transformers, and other protective devices to safely and efficiently carry the load.  

Safety Margin: It is advisable to add a safety margin to your calculated load. This extra capacity can accommodate unforeseen power usage increases or future electrical system additions.  

Consult a Qualified Electrician: Consulting a qualified electrician is not just a suggestion; it’s a necessity.  

A licensed electrician can ensure that your electrical system can handle the calculated load, guide you through the process, and provide reassurance that your system is safe and efficient.  

They will consider factors like voltage drop, circuit capacity, and the size of your electrical service panel.  

Codes and Regulations: Always follow the latest Australian electrical codes and regulations, which may change over time. Your electrician will be knowledgeable about these standards and can help ensure your system is compliant.  

Documentation: Proper load calculations should always be well-documented. This serves as a reference for future use and ensures that electricians, engineers, and inspectors have the necessary information during the installation and maintenance of the electrical system. 

Proper load calculation helps prevent electrical overloads, voltage issues, and potential hazards, making it a fundamental practice in electrical engineering and construction.  

But how do you calculate a house’s electrical load? Let’s not get confused over terminology. In this context, calculating a house’s electrical load is the same as calculating the electrical load for home appliances. 

How To Increase Load Capacity?

load balance

Increasing the load capacity of an electrical system or circuit is a complex task. Only qualified electricians should do it. Here are some general guidelines on how load capacity can increase:

Upgrade Electrical Service

If your home or facility consistently operates near the maximum load capacity of your current electrical service, consider upgrading the service.   

This involves increasing the leading service panel’s amperage and the utility’s incoming electrical supply. As it often involves significant changes to the electrical infrastructure, this task should only be performed by licensed professionals.

Replace or Upgrade Wiring

Older homes may have wiring that is not rated to handle modern electrical loads. Replacing old wiring with higher-capacity wiring can increase the electrical system’s overall load capacity. Again, only a licensed electrician should do this. 

Install Additional Circuits

If specific areas or rooms experience overloads, installing additional dedicated circuits to distribute the load more evenly may be possible. Adding a new circuit for a high-demand appliance can help spread the load.   

Upgrade Circuit Breakers

Circuit breakers are designed to protect circuits from overloads. In some cases, if your electrical system can handle it, you can upgrade circuit breakers to higher amperage ratings.

Energy Efficiency Measures

Implement energy-efficient home appliances and lighting to reduce the overall load on your electrical system. Energy-efficient appliances consume less power, which can help free up capacity for other devices.  

Utility And Professional Consultation 

If your load requirements are significant, you should consult your local utility company. They may need to upgrade the transformer or lines coming to your property to accommodate higher loads.  

Always consult a professional electrician when considering changes to your electrical system’s load capacity. Electrical work can be dangerous, and incorrect modifications can lead to many hazards and damage to appliances and electronics. 

What Is The Average Power Rating Of Home Appliances?

The average power ratings of home appliances in Australia are generally similar to those in other countries.    

However, power ratings vary depending on the appliance’s brand, model, and efficiency. Additionally, energy efficiency standards and labels are used in Australia to encourage the use of more energy-efficient appliances.   

Refrigerator:  Average: 100-800 W (varies with size and efficiency)  

Microwave Oven: Average: 600-1,200 W  

Oven: Average: 2,000-5,000 W. Electric ovens mostly have higher power ratings than gas ovens.  

home appliances

Cook top or Stove: Average: 1,200-3,500 W per burner  

Dishwasher: Average: 1,200-1,800 W. Some energy-efficient models may have lower power ratings.  

Washing Machine: Average: 300-500 W for standard models  

Clothes Dryer: Average: 3,000-5,000 W. Electric dryers have higher power ratings than gas dryers.  

Air Conditioner: The average power requirement for window units is 1,000-5,000 W. Central air conditioning systems can vary widely in power requirements.  

Water Heater: Average: 3,000-6,000 W. Tankless water heaters may have higher power ratings during use.  

Television: Average: 50-400 W  

Computer: Average: 100-800 W. Energy-efficient desktop computers use less power.  

Lighting: The number and type of bulbs used vary widely. LED bulbs are highly energy-efficient and typically use 5-20 W, while incandescent bulbs can use 60-100 W or more.  

Ceiling Fans: Average: 10-100 W. Ceiling fans with lights may have higher power ratings when the lights are on.  

Appliances’ actual power consumption can vary based on their specific features and usage patterns. Energy-efficient models labelled with star ratings are widely available in Australia.  

These can help reduce electricity consumption and lower energy bills. To find the precise power rating of a particular appliance, refer to the manufacturer’s documentation or check the label on the appliance itself.  

It should provide detailed information about its power consumption.  

Contact Cyanergy for a proper energy audit for your house. Get a free quote or talk to an expert

Your Solution Is Just a Click Away

The post #1 Guide To Calculating Electrical Load For Home Appliances appeared first on Cyanergy.

https://cyanergy.com.au/blog/1-guide-to-calculating-electrical-load-for-home-appliances/

Continue Reading

Renewable Energy

Vestas Buys LM Wind Power Factory, Increased Data Center Demand

Published

on

Weather Guard Lightning Tech

Vestas Buys LM Wind Power Factory, Increased Data Center Demand

This week we discuss uncertainty surrounding the IRA bill, GEV Wind Power’s acquisition by Certek, and the sale of an LM Wind Power factory to Vestas. Plus Blackstone is in talks to acquire TXNM Energy, pointing to increase data center demand. Register for the next SkySpecs webinar!

Sign up now for Uptime Tech News, our weekly email update on all things wind technology. This episode is sponsored by Weather Guard Lightning Tech. Learn more about Weather Guard’s StrikeTape Wind Turbine LPS retrofit. Follow the show on Facebook, YouTube, Twitter, Linkedin and visit Weather Guard on the web. And subscribe to Rosemary Barnes’ YouTube channel here. Have a question we can answer on the show? Email us!

You are listening to the Uptime Wind Energy Podcast, brought to you by build turbines.com. Learn, train, and be a part of the Clean Energy Revolution. Visit build turbines.com today. Now here’s your hosts, Allen Hall, Joel Saxum, Phil Totaro, and Rosemary Barnes.

Allen Hall: Well, welcome to the Uptime Wind Energy Podcast, Joel and Rosemary.

It’s been an exciting week. A lot going on in a, in America in regards to what’s gonna happen with the IRA bill. Nobody knows the, it’s like, uh, as tense, as tense can be. You, you don’t even really see a lot of articles about it at the moment. Everybody’s just in, in kind of hold mode, like, hold your breath and hope something bad doesn’t happen.

Joel Saxum: I think the interesting thing there is when something like this pops up, you would tend to see a lot of LinkedIn opinions and you’re not. I think a lot of, a lot of people are kind of moved. They’re kind of, [00:01:00] nobody’s really saying too much. We’re kind of waiting to see,

Allen Hall: yeah, waiting for that spicy take.

Usually from Rosemary, but she hasn’t written that article yet. It must be coming. Rosemary.

Rosemary Barnes: Well, I haven’t been writing a lot of anything on LinkedIn recently. Um, yeah, a bit, I’m bit busy. I got, I got really sick of, uh, LinkedIn as well when I, I over posted for a few months and. I got over it. Started, started to hate it when people would, would write a comment on my post.

Yeah. And I’m like, just stop talking to me. Go away. And I’m like, yeah, you were the one who made this post. So you That was my, that was my sign to, um, yeah, to, to move away for a little while. Yeah. But it’s also, uh, I mean, you know, like I, it’s not a topic that I am an expert in. ’cause obviously I’m, you know, I don’t live there, so I’m not, yeah.

I have. I have heard a few podcasts talking about it. Um, there’s that one. Um, uh, do you guys listen to that podcast? That’s, it’s like [00:02:00] the original Energy gang crew, but none of them are on the Energy Gang anymore. Now they’ve got their own new podcast. It’s like Dig Ashore. And, um, the other two, sorry, I don’t, I don’t remember their, their names.

Joel Saxum: They just started

Allen Hall: that one.

Rosemary Barnes: It’s called, maybe it’s called Open Circuit.

Allen Hall: Oh, maybe I have, yes, I know what you’re talking about.

Rosemary Barnes: It, it’s really good. It’s very, uh, it’s too American Central for me to listen to every episode, but for, you know, Americans then, I’m sure that that’s, uh, that’s good. Um, they, they speculate a fair bit about it.

Um, and also the, um, podcast that has Jesse Jenkins on it, which is called Shift Key, um, they talk about it a bit as well. So I have, I have heard a fair few takes on it, but, um. Yeah, I don’t know. I’m, I’m waiting to see, to, to be honest, as a non-American, I’ve just written off American Wind Power for the next few years and, uh, you know, just like, wait, wait, wait a little while to like, uh, get started again.

But it, you know, it doesn’t affect me so much. I don’t, I, I don’t have [00:03:00]projects in America. Um, so I. Not affected day to day,

Joel Saxum: a and a half a dozen part load leads that I was in a hand, but now I’m not gonna

Rosemary Barnes: do. You know what though? I, it is actually incredibly challenging for me too because, um, Australians and probably every non-American, like I, my business insurance will not cover me in the us They just absolutely not.

There is not, it is not possible for me to get insurance. To do projects in the us Um, and it would only be possible if I actually started an American company. That would be the only way to do it. So, um, that is a big disincentive for me to expand into America. Um, just ’cause your legal system is very, very different to the rest of the world and um, yeah, insurance companies won’t take that risk so.

That’s why that, that’s why I’m not expending to America. But you know, the rest of the world is a big place. So,

Allen Hall: well, if you don’t spend all your time on LinkedIn, then maybe you can then join us on the webinar. We have an up on Wednesday, May 28th at 11:00 AM East Coast, US and it’s about lightning damage and lightning [00:04:00] strikes and it’s one of another, one of the monthly Sky Specs webinars with uh, PES Wind and the Uptime Wind Energy Podcast.

We have some really interesting guests. In this one, Matthew Stead from eLog Ping and Matt Segal from EDF. So if you know Matt Segal, uh, he knows his way around blades and blade repair and he has a really solid approaches on how to deal with the damage, that’s gonna be a great discussion. So if you have lightning damage and pretty much every operator that I’ve talked to has some lightning damage at the moment, uh, you’re gonna want to attend that.

Webinars free. So it’s Wednesday, May 28th, 11:00 AM. East Coast and you just sign up in the show notes below. Really simple

Joel Saxum: as busy wind energy professionals, staying informed is crucial, and let’s face it difficult. That’s why the Uptime podcast recommends PES Wind Magazine. I. PES Wind offers a diverse range of in-depth articles and expert [00:05:00] insights that dive into the most pressing issues facing our energy future.

Whether you’re an industry veteran or new to wind, PES Wind has the high quality content you need. Don’t miss out. Visit PS wind.com today.

Allen Hall: So the big news of the week, well there’s actually a couple, uh, big news articles this week. Uh, GEV, wind Power, which is a large repair company. Based in the uk, but they have a lot of their business in the United States.

Uh, was acquired by a company called CEC and Joel just doing some research on cec. It looks like a holding company. That’s what it seems like to me. It’s owned by David Harrison, who is based in the uk and it just looks like they’re gonna continue to, uh, try to grow GEV, but it also includes Wind Power Lab from Denmark and rig com.

Joel Saxum: From Australia. Yeah, they group their ctec. Um, I know that GEV Wind Power is, um, they, they have huge plans for growth, right? They’ve got the office in Dallas office in [00:06:00] Poland, the Wind Power Lab office in Copenhagen. Rig com office, I believe is in Melbourne, down in Australia, down by Rosemary. And then they have of course the big office for the UK and Hull and that’s for offshore and onshore.

Uh, but they’ve also just not opened another office up in Canada. So big, big expansion plans for GE v windpower. This CEC capital injection, uh, is gonna help for sure, right? They’ve got a, they’ve got a existing our infrastructure, uh, for the GEV WINDPOWER group. Uh, and they’re gonna keep ’em all in place and they’re just gonna con continue to grow.

So, uh, look to see some more things coming out of the, uh, GEV group. Put this injection to cash.

Allen Hall: Yeah, because GEV, when Power Lab and Rcom were part of the Bridges Fund, which was owned by Hojo

Joel Saxum: Well Bridge, so Bridges was a technically a think minority shareholder in the GEV group. Uh, but that was Goldman Sachs money, uh, bridges was right.

So now, now we’re going, CTEC is Macquarie money, so [00:07:00] Australian money. Being injected in. Well,

Allen Hall: that does make a little bit of sense though. Australia is gonna be a huge renewable powerhouse. It already is. So it makes sense that a Australian money would be involved in this because, uh, yeah, there’s gonna be a lot more wind turbines in solar activity in Australia.

It’s gonna pick up pretty well, so might as well grab a company early while you can and, and continue to grow it. The other thing that that happened today was LM wind power. Selling a factory up in Poland to Vestus. Now, we’ve all talked internally about what is happening at LM Wind Power because they’ve had a a number of staff reductions over the last year or so, and then they had the blade problem up in Canada.

It does seem like a lot of the design activities are moving towards the United States from GEs point of view. [00:08:00] That leaves a lot of LM factories with that are making blades for somebody else. Rosemary, when you were there, uh, LM did make blades for almost everybody for quite a while. It looks like they still do, but now they’re selling off the non GE factories.

Is that the plan?

Rosemary Barnes: I, I don’t know what the plan is. Uh, um, yeah, not inside anymore, so I don’t have any insider info, but, uh, I did spend. Quite a lot of time actually at that factory in Glen. And it’s definitely one of my favorite, favorite wind turbine blade manufacturing facilities that I ever visited. Um, they get a lot, they get a lot done there.

That is like what I could say. The team there is amazing. They, the amount of stuff they can get through in, you know, one shift is like. Double what it is in some other factories. So I think, you know, from, from that perspective, without knowing what best has paid for it, I think it’s a, um, a good call if they get to keep the personnel.

Um, so yeah, [00:09:00] it, um, good for Besters. I was actually looking at some information recently, something unrelated, but I, I came across some, um, research reports. Actually. There were academic papers and it had, um, they had gone through all Vista’s recent, um. Like, uh, all of their annual reports and also all the other listed companies.

So there’s, you know, there’s a few listed wind, turbine blade manufacturer, wind turbine manufacturers, um, where they will give, you know, a breakdown, public information, a breakdown of how their money is spent in profits and that sort of thing. Um, and they had this little chart that showed how much, um, the different manufacturers that they looked at, how much they were spending on their staff, and how much they were spending on research and development.

Vest, uh, staff were paid far more than the other, um, manufacturers that were on there.

Joel Saxum: That’s geopolitical though, right? Like Siemens, Siemens Committee said a lot of employees in Spain, they just, they’re cheaper employees, a cheaper labor force than it is in Denmark or Germany.

Rosemary Barnes: But also, so that, but also, [00:10:00] um, investors spent way more on research and development than, than the others.

And that’s like, I have gotten that impression, you know, ’cause like a lot of what I do with my YouTube channel is. Looking at new, new kinds of things that people are doing. And time after time, it was vest that had investigated this interesting thing. You know, like vesters are the one that have the, um, have tried a multi rotor design out and like actually to the point of making a prototype and, um, installing it.

Vesters are the ones that have done the in cable stayed, um, tower and, yeah, like again, put it up the, you know, like over and over again. There were these things where they maybe didn’t even believe that there was an imminent commercial case for this technology, but they were doing it to, to learn and just improve their general knowledge and to also.

Um, be ahead of the curve when things changed enough to make this new technology maybe make sense now they would have the information they needed to move, move fast on that. Well, that’s my, my take on why that makes sense to them. So, yeah, I, I, I do, I am starting to get the impression, and I’ve never worked at [00:11:00] Vestas or even, I never even did a blade project for Vestas while I was working at lm, but that’s definitely the impression that I’m getting, that the, you know, they’re kind of retaining more of the essence of the original.

Danish wind turbine companies, then the others have more become globalized, Americanized or yeah, like, um, Spain fight or you know, like what, whatever. From all the mergers that have happened, um, the culture has been diluted, but, but festers, I still, still see pushing the envelope. I mean, they haven’t always been profitable, so, um, you know, is the strategy right or not?

But then, you know, every western manufacturer and every. Every, every wind turbine manufacturer, no matter where they are in the world, including China, um, have had periods of unprofitability. That’s for sure. So, yeah. Um, I, I just think it’s interesting that they’re taking a real different approach.

Joel Saxum: Well, that’s what I was gonna say, uh, kind of rosemary before you jumped, said it’s cultural thing, right?

Like, they’re vestas, they’re Denmark, they’re the, the, you know, I guess you can, you could have this argument [00:12:00] between the Danish and the Dutch about who wind power kind of. First, there’s a cultural thing there too, right? Like you have DTU right there, you have the university at our, I wanna say it, right, orus.

Uh, but you have, you have all of these different facilities there that are also lending to that research, right? There’s a lot of grant money that gets funneled through DTU. And if you look at those projects with those couple of universities there in Denmark, you see a lot of times Vesta is tanked. On those projects.

There may be some other, um, third party companies or a lot of it being sponsored by the university, but you see Vestas in a lot of those. So I think it’s a, I’d like you said, I think it’s a cultural thing that the Danish still haven’t be, that still haven’t, that it’s a good thing that they’re doing what they’re doing.

I, in my opinion, but that they haven’t become. This larger global fired thing, right? Where they’re still kind of sticking to their roots?

Rosemary Barnes: Yeah, I mean, I like it as an engineer and I will say that a lot of, um, my best ex colleagues from LM have ended up at Vestas. Um, so, you know, I think that they are, they do, they do [00:13:00] attract, you know, like people who like to work on really interesting problems.

But I also have been around long enough to know that, um. The most interesting engineering problems are not always the most business savvy things to be working on. So that’s why I don’t wanna comment about it, you know, as a business strategy or, you know, suggest that, you know, investors are definitely going to, you know, remain dominant in the future.

Um, because a lot of the times the, you know, like over engineering is a thing and, uh, you can’t be competitive if you have you, you know, like a good, good engineering is really about. Doing the minimum that you, that you need to make the product that succeeds in the, in the market. Uh, doing any more than that is very satisfying to an engineer, but, um, it is not the, not usually the smartest thing to do for, you know, making a profitable business.

So

Allen Hall: good engineering is knowing when to stop. Which is the hardest part of engineering. ’cause you never wanna stop. You need to stop and make some money. Yeah. [00:14:00] Don’t let blade damage catch you off guard. OGs. Ping sensors detect issues before they become expensive. Time consuming problems from ice buildup and lightning strikes to pitch misalignment and internal blade cracks.

OGs Ping has you covered The cutting edge sensors are easy to install, giving you the power to stop damage before it’s too late. Visit eLog ping.com and take control of your turbine’s health today. So private equity, giant Blackstone’s infrastructure arm is reportedly and talks to acquire TX and M Energy, which is Texas and New Mexico.

And so utility companies serving about 800,000 homes and businesses across the New Mexico, Texas area. Uh, the discussions are still fluid. There’s not a lot of details. However, it does seem like this is a play by Blackstone to maybe set up some data centers and to get. In line to get a data center set up is really hard to do right now because you have to talk to an existing operator and [00:15:00]get them to get approvals and there’s paperwork and there’s applications.

Once you buy, uh, a large energy producer, you can kind of control that a little bit and there’s reasons to do it because Texas and New Mexico, there’s a lot of real estate there. Renewables are really easy to install. It makes this acquisition. Much more desirable, I think just because of where it is now.

TX and M was going to be acquired a couple months ago, Joel, by Avan Grid, except that got stopped by the administration. Uh, that was about a year ago, right? Where that deal got canceled for. Was it competitive reasons or was it because it was. Avant grid, which is not a US entity is, is that what the deal was?

I don’t remember

Joel Saxum: exactly why it got canceled. I just know that it was a regulatory approval thing. It wasn’t a, it wasn’t a due diligence problem or anything like that. It was just regulatory approval, [00:16:00]

but.

When I, when I read this article, I thought immediately, have you guys ever, have you guys ever seen the movie Inception?

No.

Rosemary Barnes: Yeah, you gotta say Inception. What’s wrong with you, Alan? Oh my God.

Joel Saxum: In the movie Inception, they, they have an issue where they’re like, we need to convince the pilot of the plane to do this, and we need to convince the stewardesses to do this, and we need to convince the, the, this person to do this. And they have a really rich fellow with them.

And they’re like, how are we going to get past these problems? And he’s like, I’ll just buy the airline. So in the movie, the guy just buys the airline and then he gets to do whatever he wants with the airplane and, and how they do their inception tricks, whatever. That’s exactly what I thought about when I saw Blackstone do this, right?

We wanna get these data centers on, we wanna do this, we wanna do this. It’s like, man, this is gonna be, this is gonna be difficult. We’re gonna have to convince all these people. We’re gonna have to do this regulatory approvals and get in line and queues. It’s like, what if we just buy the power company?

Okay. Just do that and you can do whatever you want

like

that. That [00:17:00] makes sense. I think it’s a genius thing and I think it, I’m surprised that it’s taken this long to do it and there hasn’t been some other larger players that have tried it. So I just just saw a thing yesterday, a chart that said there’s over 5,300 data centers in the United States right now.

It’s like 5,386 or something, which is Corey way, way larger than I thought it was. And we’re, and if you look at a global scale, we’re way in front of the next person. And I don’t remember exactly what it was, but everybody you talk to in the energy world is going, Hey, more data centers, more data centers, more data centers.

And it is, it’s, it’s, I listened to a podcast theater. They’re talking about wait until you see the next six months. What’s gonna happen with data centers? As, as you see, Google searches declining for chat GT requests. It’s gonna be all data centers.

Allen Hall: So EPRI is saying 48% of utilities nationwide are now receiving data center requests exceeding one gigawatt with almost half facing requests that exceed [00:18:00] 50% of the system peak demand.

Wow. That’s a lot of energy to be requesting.

Joel Saxum: So last summer, peak demand in Ercot, and I’m gonna talk Texas right now, right? ’cause this is where a lot of these data centers are going. ’cause Ercot is gonna, the Wild West. T’S peak demand last summer was 87 gigawatts at one point in time. They have it projected by, I think it was like 2031.

That peak demand is gonna be 213 gigawatts. And

Allen Hall: is that based on population or is that based on data center growth,

Joel Saxum: data center growth. That’s only five years away, six years away, and you’re talking almost triple the demand.

Allen Hall: Can, can we veer off just slightly on this discussion, which is the existing talk about the IRA bill and how they wanna change it.

So it’s gonna be harder for renewable companies to apply for the tax credits and production tax credits and all these little nuances that add up to something much more massive. They’re, [00:19:00] if the administration does that. And Congress passes it and whatever else happens, okay, fine. But in this data center demand, you cannot get enough gas turbines built to support that.

You can’t order one

Joel Saxum: and receive it before 2030. Right. So what are we talking about? You have to put solar and wind on the grid right now. ’cause it’s the only energy generating facility that’s, that’s that’s timely enough to get to meet demand. Right.

Allen Hall: Those, we just do not have the infrastructure right now in the United States or elsewhere.

Like a Siemens who makes a lot of gas turbines, can’t supply the demand. That’s about to happen. So the demand is gonna get so dang high. You’re gonna, you’re gonna go from 20 29, 20 30, uh, order book to 2035 order book probably in the next six months, the way it sounds. What are they

Joel Saxum: gonna do? Could you see a player that doesn’t, that knows turbines but doesn’t [00:20:00] do gas fired turbines coming in?

I don’t know who all the players are, right? I know GE sells ’em. I know a couple others, but like, like a steam, like a Rolls Royce is Rolls Royce sell gas turbine power plant turbines. They know. They know turbine technology couldn’t. Why? If you were them, wouldn’t you look at this demand and go. We should start building these things.

Allen Hall: Joel, to build a gas turbine is really difficult. It’s like building a jet engine. On steroids, it’s, and to make it something that’s really reliable, it is not easy. That’s why it takes so long to build these things. It’s not just a startup. Well, yeah, what are you gonna do? Build a second factory next door to the one you have and spend a billion dollars to set this thing up.

But you’re not gonna be able to make the first turbine for at least five or six years. That makes zero sense, because all of a sudden if the data center, uh, compute goes away, like some software engineer figures out how to do this a lot with less power, basically a lot less power to do it. Then poof, all their order book disappears and all that money they spend on a [00:21:00] factory disappears and no one’s willing to take that risk.

So who’s steps in the middle of this besides wind and solar and some batteries? Wind and solar betters right to, that’s the fastest way to get power onto the grid, even if it’s disconnected from the main grid, right? Even if you go geothermal,

Joel Saxum: you still need turbines. You still need turbines. Turbines are not quick to make.

And you can’t build a nuclear plant in about 10

Allen Hall: years. No. So what are we, Rosemary? What are we doing? And here’s my thought this morning. I woke up this morning like, this is a huge problem. What are we gonna do? My first thought was like, well, everybody’s gonna go to Australia because the power is plentiful and it’s only a data cable to America.

That’s what’ll happen. Rosemary?

Rosemary Barnes: Uh, I don’t, I don’t think data centers, I think data centers is primarily a US problem, and then there’ll be a few, and not even like, it’s, it’s localized within the US as well. People aren’t just like, people think with this, you know, data center growth that it’s like.

Everyone’s gonna worry about it. But you need data [00:22:00] centers, um, near where the, you know, the tech companies, the AI companies are, because they don’t, you know, they can’t be located on the other side of the world from where their data center is, if they’re gonna be, you know, running all these, um, these learning models.

And then you need them near population centers as well for, um, you know, so that they have them, them close by. I think the biggest thing with data centers that’s gonna be different to what everybody’s panicking about is that it is not gonna be the, um, the, the demand people are predicting is not going to come, come true to anything.

Like the extent, extent that what has been predicted. I think it will grow and it will grow a lot, but I, I, you know, like the growth that people are predicted is, um. Well, IM implausible for a start to actually achieve it. But I think also, like if you look back through history, I mean, you know, people always predict, you know, that you get a big amount of growth early on and people don’t really know what the, you know, the size of the exponent is.

And so when they project out into the future, you can get things wildly wrong and we have a history of you, you know, look back through the predicted energy use of all sorts of new [00:23:00] technologies over the, um, decades or, you know, centuries. Then you’ll see predictions that were just crazy in hindsight.

We’re really early in the AI thing, so algorithms are gonna be refined. Um, chip designs are gonna be refined. Even, you know, like everything else around data center’s gonna be refined. Maybe quantum computing is gonna make a difference in a few years. You know, like maybe something that hasn’t been invented yet.

You know, like five years ago people didn’t think AI would be doing what it is today. There’ll be some other technology in five years that’s doing something that we couldn’t foresee. Um, so I, you know, I think that it’s more likely that the. Unexpected technology developments are on the side of bringing down the amount of power.

Allen Hall: Yeah. But the way that tends to go in industry is once you’re on a pathway, there’s very little that’s gonna deter you off that pathway. So even if there are significant improvements, you’ll see the main path still be followed. And that’s gonna be the trouble with these AI data centers, is that they’re gonna [00:24:00] project out, they’re gonna get their.

Mindset about doing it a certain way, and they’re gonna go, and if you talk about saving 10% here or there, they’re like, if it’s gonna take 10 more weeks to get that done, we’re not gonna do it. We’re gonna continue down this pathway.

Rosemary Barnes: No, but they’re doing it all the time. They heard about a, a data center, it was designed and, um, you know, planned for a certain amount of compute, and then the chip designs improved and they totally changed it.

And so now it, you know, it’s the same power, but it, um, processes much more. And we’re gonna. We’re gonna say a lot. A lot of that I think.

Allen Hall: I think the chat GPT usage and the AI usage is relatively low, and I know US engineers like to use those services because we like the new tech and we want to be involving our fingers in it and see what it’s all about.

I think the vast majority of humanity really hasn’t touched it yet. When they do, it’s gonna go

Joel Saxum: crazy. Did you see that Google’s alphabet stock? When they, they just released a, they did, it was an earnings report, but they released the end. This is the first time that their number of search engine [00:25:00] entries, whatever requests.

Dropped and it’s because, because, and their stock dropped by 10% that day that happened. Yeah. Like that’s, and and, and like you said, we, people that are in the know are using, I use it all day long. Right. My, uh, my partner uses it all day long, but the general populace hasn’t gotten into it yet. But once they do, it’s.

It’s so much better than Google, so much better than Google. Like you don’t have to know how to Google things anymore. You could just like ask a question that you’re talking to a person and it just gives you the answer,

Allen Hall: right? It is much more, uh, interactive, human, interactive, uh, interface than what Google ever was, and you still have to have little tricks to get Google to give you the right answer at times.

This is much more intuitive and if you think about your phone and how you try to Google things on your phone, it’s that interface is terrible. Absolutely terrible. It’s been terrible for five plus years. This AI interface, all of them, perplexity is the one that [00:26:00] I like at the minute, is really simple. It’s like asking somebody a question, like asking a librarian in the old days, where can I find this information?

Tell me what’s going on. Poof. There it is. And it provides justification, rationale behind it, all those kind of things you like to have as an engineer. But I do think the growth of this, if it is as powerful as it is today, the growth is gonna be phenomenal. And the power usage is gonna be nuts,

Rosemary Barnes: but I’m not sure that you are, um, aware of how much growth is baked into the forecast currently.

I’ve just brought up, um, an article that Michael Lere wrote on Bloomberg, NEF, um, about ai. And it, it’s interesting there because he goes through the economics of it, um, and he draws on some, uh. Questions that a guy David Kahn made, um, from Sequoia Capital that he says, David Kahn says that to justify the capital expenditures applied by NVIDIA’s [00:27:00] near term revenue pipeline, they would need to generate annual revenue from AI services of 200 billion.

And then, um, with their new updated NVIDIA sales forecast storing it, it’s been updated to 600 billion. Um, and that is, uh, yeah, like half of the aggregate revenue of Amazon, Microsoft Meta and Google Parent Alpha. So if you assume 600 billions will be, um, uh, it’ll be the world’s 100 million wealthiest people, then that’s $6,000 a year.

Um, and then, you know, like, obviously you can go a bit further down, but it, it’s um, like not impossible, but it’s also, that is a massive amount of growth that is already. Factored into the, that pipeline. So I think, I just think it’s more evidence that that is a, like a, that is a pretty optimistic take on, you know, immense growth and that it’s far more likely we’re gonna see less, less growth than that.

I still think we’re gonna see crazy growth, but. I think that the, [00:28:00] that the, the current pipeline that the, you know, current investments, if you, um, sorry, not investments, but the current plans for, for growth of companies like nvidia, they don’t just factor in incredible growth. It’s like incredible squared, incredible cubed growth that’s factored into their pipeline and it is gonna.

Scale, scale back again that I, I don’t think anyone can know, but that’s, that’s, I really think that that’s the most likely thing to happen.

Allen Hall: Building chips and building power plants are two wildly different things in terms of the time it takes to do it. Building a gigawatt of energy production takes time.

Building another chip is just clunk. There’s another one. It doesn’t take that much time. So I think the ability to create the chips is gonna far exceed the ability to power them.

Rosemary Barnes: Yeah, and that’s why you see like that project I talked about where they um, you know, the chip capability changed so much in between when they started the project and by the time they went to actually put the chips inside the building.

Um. You still see the power [00:29:00] stayed the same, but just the compute in increased. Um, so yeah, I think you’re right.

Joel Saxum: I still think that the, the good play is investing in a cable lay vessel. I’m telling you the the, the s the SF uptime cable lay vessel.

Allen Hall: This is my wild conspiracy theory at the moment, is that Elon with his satellite network, SpaceX and starlink and all that, allows you to put an AI center anywhere on the planet that it is cheap to power it.

Joel Saxum: A handful of geostationary satellites. Is and And if you devote them to one data center or to a family of data centers, somewhere that has to be cheaper than laying cables across the OS. Ocean.

Allen Hall: Yes, that’s what I’m saying. Elon’s gonna buy the center of Australia, lay out solar panels. Too hot. It’s gotta go somewhere cold.

I’m talking

Joel Saxum: Canada Green. Greenland. Greenland,

Allen Hall: [00:30:00] Greenland. Greenland. There you go. There’s a perfect conspiracy case right there, Joel. You hit all the triggers at one time. Well, well, we’re, we’re not gonna solve this this week. Uh, but it is an important issue and it is coming up a lot. And I know that it is not gonna stop the discussion.

It is ramping up and there’s a lot of energy being spent trying to figure out, can we even solve this problem? What’s happening with the IRA bill or the potential changes to the IRA bill can aggravate this and make it a lot harder. Uh, be prepared. Very interesting times. Joel Rosemary. Another great episode

Rosemary Barnes: and un unsupervised today.

I often wonder if these ones where we don’t have producer Claire here, um, you know, reigning us in, do we lose subscribers on these episodes or are people, you know, like really attracted to our tell it like it is, uh, kind of rambling, rambling style on these ones.

Allen Hall: Stay tuned and we’ll see you all here next week on the Uptime Wind Energy [00:31:00] Podcast.

https://weatherguardwind.com/vestas-lm-factory-data-centers/

Continue Reading

Trending

Copyright © 2022 BreakingClimateChange.com